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Author SHA1 Message Date
Codex eec4677db1 test: add explicit projected-port LES source profile 2026-10-18 16:13:30 -07:00
Codex 2cf9853952 test: prepare matched projected pair Taylor-Green repeat 2026-10-18 15:38:04 -07:00
Codex 1aa8110ec8 test: add bounded projected pair CUDA qualification gate 2026-10-18 15:04:51 -07:00
Codex a135252ae7 feat: add experimental projected explosion per refinement pair 2026-10-18 14:54:17 -07:00
Codex ed9d8c937d docs: correct refinement topology and diagnostics scope 2026-10-18 13:13:53 -07:00
Codex fc0e544c0a Merge reviewed LES normalization into bounded 2D dev scope 2026-10-18 08:19:23 -07:00
Codex 95cb6d2b9f fix: integrate reviewed LES normalization with explicit dev flow pins 2026-10-18 07:58:41 -07:00
TRON 53fad76759 test: cover TRT restart and actual-rate refinement phase
Integrate reviewed test changes from 7c1517de819741907fb945ea0ab7864734fa3856 and 340ba4e1dc6386581839c0b28c8fe8a1f4aeb70b unchanged. Document bounded 2D implementation, evidence and open gates; production source and historical manifests are unchanged.
2026-10-18 07:54:54 -07:00
Frank14f 8403956a9a Merge reviewed MRT window validation and tolerance wording into dev 2026-10-18 22:18:09 +08:00
TRON 185a919cc5 test: opt in to window-ledger DFG observations with separate receipts 2026-10-18 06:23:04 -07:00
ClaudeandClaude Opus 5.5 aceea293a3 docs: drop 'rigorous' wording for the window tolerance (no threshold change)
Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 13:19:44 +00:00
ClaudeandClaude Opus 5.5 a233c90324 test: measurement-only A-versus-window timing for shifted-MRT refined DFG
A (per-base read-and-sum per 80-step interval), W (window + step(80) +
one read) and W1 (window + 80 x step(1)) over equal simulated duration
from the same fresh state and warm-up, 3 interleaved repeats. Bitwise
populations and per-interval total impulses (documented engineering
tolerance) are compared outside timing; health checks untimed. Records
candidate source identity (revision, dirty flag, file hashes) and does not
use or modify frozen refined-DFG manifests/results.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 13:09:31 +00:00
ClaudeandClaude Opus 5.5 f851aecf73 test: shifted-MRT no-Jet window gate with step(0), reset and split-step checks
Separate GPU class for a shifted MRT, all-blocked, stationary-body case
without Jets: window totals vs summed per-base reads (substep-scaled
tolerance), bitwise populations vs a raw-only stepper, a single step(N)
stepper with bitwise-equal window rows and populations, step(0)
non-change, and reset after a window. SRT/Jet test stays separately
scoped. Test-only.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 13:03:18 +00:00
ClaudeandClaude Opus 5.5 51202fc1c3 test: substep-scaled tolerance and bitwise populations in window GPU gate
Scale the window-vs-summed-reads tolerance by the actual absolute fine
substep contributions (last_raw after every fine hop), labelled a
conservative engineering tolerance rather than a proof. Compare
populations by finite FP32 bits plus NaN masks and reject infinities.
Test-only.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 12:59:09 +00:00
ClaudeandClaude Opus 5.5 d930323479 feat: optional observation-window raw exchange ledger
FixedPatchStepper(observe_window_exchange=True), which requires
observe_raw_exchange, allocates a second per-link FP64 ledger per body
level. While a window is open, the unchanged BlockAccumulateExchange
kernel also accumulates into it after each fine hop. Small API:
start_exchange_window() zeroes and opens at the current completed step;
read_exchange_window(body_id, level=) is non-destructive and reports
impulse with rates over the integer window duration. initialize/
_initialize_raw and step failure invalidate; remap builds a new instance
with no open window; Jet amplitude updates may stay in-window. Default
disabled: no allocation and no extra launch; last_substep/last_base_step
unchanged. summarize_exchange gains window='window' with duration.
Host contract tests (mocked driver) and a GPU gate against summed
per-base reads with a reordering-bound FP64 tolerance.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 12:54:44 +00:00
ClaudeandClaude Opus 5.5 6c53d2e74a test: fix flat uniform DDF masking and clarify harness labels
Simulation.get_ddf() is flat (9*ny*nx); view it as (Q, cells) before
applying the fluid mask, with a flat-DDF regression. Label A/E as
runner-like force-read workloads (values discarded, no aggregation or
validation; no macro/probe/CSV cost; not benchmark throughput) and split
status lines into CONSTRUCTED and WARM_READY. Test/doc only.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 12:33:07 +00:00
ClaudeandClaude Opus 5.5 724afb607c test: physical health and stricter parity in timing harness
Untimed physical-leaf/fluid health after warm-up and after each timed
window using the existing runner limits (finite macros, rho in [0.5,1.5],
max Mach <= 0.2); refined masks as in run_refined_dfg. Parity comparator
rejects unequal level counts and any infinity; matching NaN stays allowed
only as a storage mask. Regression tests for both. No numerical gate or
production change.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 12:29:21 +00:00
ClaudeandClaude Opus 5.5 77bab1c4ea test: apply timing harness review caveats
Explicit stream synchronization before/after each timed loop (refined
FixedPatchStepper stream, uniform Simulation stream, in their contexts);
required --max-wall-seconds outer timeout checked between variants and in
per-step loops; untimed finite leaf/fluid health checks; force notes for
B/C/E' (no host reads; final base interval only; whole-window average with
different summation order). Parity stays A/B/C vs A and E/E' vs E only.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 12:27:16 +00:00
ClaudeandClaude Opus 5.5 15fb58e36f test: measurement-only refined DFG MRT timing harness
Wall-time A/B/C/E/E' variants over equal simulated duration, reusing
run_refined_dfg setup functions. Fresh state and identical warm-up per
repeat, 3 interleaved repeats, construction/JIT, warm-up and bitwise
population/NaN-mask parity checks outside timed regions. B, C and E' are
labelled timing-only (no valid force history). No numerical or
production change.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 12:25:43 +00:00
TRON 4d4b9ba00a test: compare all-dense MRT fine stepping with blocked layouts 2026-10-18 03:51:53 -07:00
TRON 2abc48f0d8 test: select matched MRT DFG pilot with separate provenance 2026-10-18 03:49:21 -07:00
ClaudeandClaude Opus 5.5 3ea131e92c test: MRT refinement coverage and obsolete rejection fix
Remove MRT from the FixedPatch2D rejection matrix (TRT and other
rejections retained); convert host MRT tests to stdlib unittest; add GPU
gates for unshifted dense-vs-blocked MRT two-level roots (exact bits) and
a shifted all-blocked three-level MRT smoke checking per-level omega.
No numerical source change.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 10:31:25 +00:00
ClaudeandClaude Opus 5.5 00d7a54829 feat: opt-in MRT collision for blocked/refined stepping
Additive compile-time COLLISION_MODEL == 2 branches in BlockStep,
BlockChannelStep and patch_collide repeat the uniform collide_dispatch
MRT sequence (zero forcing, omega clamp, collide_mrt_no_force). SRT
statements, including the shifted retained-delta/direct-momentum path,
are unchanged under the alternate branch. Guards accept SRT or MRT only;
TRT, LES, non-FP32, non-double-buffer and shifted dense/mixed refinement
stay rejected. Transfers, subcycling, BFL, raw ledgers, channel closures,
shifted-Jet SRT guard and PeriodicBlockStepper are untouched. Existing
MRT operator, shifted representation and fixed kinetic rates are reused.

Co-Authored-By: Claude Opus 5.5 <noreply@anthropic.com>
2026-10-18 10:26:55 +00:00
100 changed files with 4635 additions and 1617 deletions
+40 -18
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@@ -123,7 +123,9 @@ with CudaContext(0) as ctx, FixedPatchStepper(cfg, (8, 6, 24, 18), context=ctx,
``` ```
Scope and limits: Scope and limits:
- D2Q9, SRT, FP32, double buffer, unshifted, no LES or forcing; fixed 2:1 patch(es), two levels (or one nested third). - The examples below use D2Q9, SRT, FP32, double buffer, unshifted, no LES or
forcing. Fixed 2:1 hierarchies can use level lists of arbitrary depth; the
legacy two/three-level forms are shown below.
- `coarse_boundary="periodic"` (default) or `"slot_reservoir"` (bottom slot, top - `coarse_boundary="periodic"` (default) or `"slot_reservoir"` (bottom slot, top
reservoir; patch needs `y0 >= 4`, `y1 <= ny-4`). Periodic mode ignores the wall/slot config fields. reservoir; patch needs `y0 >= 4`, `y1 <= ny-4`). Periodic mode ignores the wall/slot config fields.
- Object centers/radii use the coarse **cell-edge** frame (cell `I` spans `[I, I+1)`), - Object centers/radii use the coarse **cell-edge** frame (cell `I` spans `[I, I+1)`),
@@ -135,16 +137,20 @@ Scope and limits:
divide the WHOLE fine allocation, i.e. `2*(y1-y0)+8` by `2*(x1-x0)+8` including the divide the WHOLE fine allocation, i.e. `2*(y1-y0)+8` by `2*(x1-x0)+8` including the
four-cell ghost band. It gives results identical to dense storage and is four-cell ghost band. It gives results identical to dense storage and is
infrastructure for future block AMR, not a speedup. infrastructure for future block AMR, not a speedup.
- Several separated patches: pass a sequence of `(x0, y0, x1, y1)` - Several regions: pass a sequence of `(x0, y0, x1, y1)` rectangles as
rectangles as `bounds`, at least 4 coarse cells apart, with both `fine_block` `bounds`, with both `fine_block` and `base_block`. Transfers are built once
and `base_block`. The fine level is then one level-wide grid `(2*ny, 2*nx)`: from their union; adjacent, overlapping and concave unions are accepted when
their actual dependencies close. There is no fixed rectangle-gap rule.
The fine level is then one level-wide grid `(2*ny, 2*nx)`:
`run.patch.fine_shape` gives it, `initialize`/`download` use it, and only the `run.patch.fine_shape` gives it, `initialize`/`download` use it, and only the
patch windows (active region plus 4-cell ghost band, origin `(2*y0-4, 2*x0-4)`) grid-aligned tiles intersecting the union plus its four-cell ghost band are stored.
are stored; each window must align with `fine_block`. Order of rectangles does Block sizes must divide the level-wide grid; rectangle edges need not align
not matter. `fine_objects`/`jets` work as for one patch: each circle (same with tiles. Order of rectangles does not matter. `fine_objects`/`jets` work
coarse cell-edge frame) must lie wholly inside one patch's active region with as for one patch: each circle (same coarse cell-edge frame) must lie wholly
inside the union's active region with
its boundary stencil clear of transfer cells; a jet may not select links of two its boundary stencil clear of transfer cells; a jet may not select links of two
different bodies, even across patches. No wall-touching patches or nesting yet. different bodies, even across regions. Wall-touching patches remain unsupported.
For nesting, use the level lists or legacy child forms below.
```python ```python
cfg = LBMConfig(nx=32, ny=16, viscosity=.1) cfg = LBMConfig(nx=32, ny=16, viscosity=.1)
@@ -158,7 +164,7 @@ Scope and limits:
coarse_g, fine_g = run.download() # coarse: NaN on every covered cell; coarse_g, fine_g = run.download() # coarse: NaN on every covered cell;
# fine: NaN on every non-ACTIVE cell # fine: NaN on every non-ACTIVE cell
``` ```
- Three levels (one nested chain): add `child=(x0, y0, x1, y1)` in - Legacy three-level scalar chain: add `child=(x0, y0, x1, y1)` in
**L1 window cells** (the patch's fine grid including its 4-cell ghost band) and **L1 window cells** (the patch's fine grid including its 4-cell ghost band) and
`child_block`, with `fine_block` and `base_block`. L2 must sit inside L1's `child_block`, with `fine_block` and `base_block`. L2 must sit inside L1's
ACTIVE cells, away from L1's ghost band and transfer footprint (checked before ACTIVE cells, away from L1's ghost band and transfer footprint (checked before
@@ -192,14 +198,30 @@ Scope and limits:
run.step(4) run.step(4)
coarse_g, l1_g, l2_g = run.download() # solids/covered/nonleaves are NaN coarse_g, l1_g, l2_g = run.download() # solids/covered/nonleaves are NaN
``` ```
- Not available: per-link surface exchange/force readout in blocked mode, - Level lists: `refinements[l]` describes level `l+1` in allocated level-`l`
checkpoints, moving bodies, L1 bodies/Jets in a three-level chain, integer cells; use a rectangle list for a union, or a scalar rectangle for a
several patches per level with nesting, dynamic refinement, `Simulation` single window (a scalar child requires a scalar parent). `level_blocks`,
integration. Validation so far is storage/operator equivalence and short runs, `level_objects` and `level_jets` each have one entry per level, including L0.
not accuracy, convergence or long-time stability. The new L2-body GPU gates These lists are mutually exclusive with the legacy patch keywords. Three or
(layouts, masks, amplitude reversal, legacy equivalence) and independent more levels require all-blocked storage and bodies/Jets only on the finest
every-substep numerical replay remain required acceptance checks; CPU tests level. Every adjacent pair must preserve inherited ACTIVE coverage, valid
alone do not establish GPU numerical correctness. donors/receivers, surviving pulls and the upstream transfer footprint.
Level `l` takes `2**l` steps per base interval. This describes implemented
topology and scheduling, not accuracy or convergence qualification.
- Blocked body levels can enable `observe_raw_exchange=True` and call
`read_raw_exchange(body_id, level=...)` after a completed base interval.
It reduces unique cut-link observations into wall/aperture/total force,
torque and mass exchange in base-lattice units per unit depth, for the last
base interval (default) or `window="last_substep"`.
`observe_window_exchange=True`, alongside `observe_raw_exchange=True`, enables
`start_exchange_window()` / `read_exchange_window(body_id, level=...)` across
completed base intervals. These are raw boundary-reaction diagnostics, not a general
stress or nozzle-load accuracy claim; dense body layouts are unsupported.
- Not available: checkpoints, moving bodies, L1 bodies/Jets in a three-level
chain, automatic dynamic refinement, `Simulation` integration. Qualification
depends on the tested configuration; see [the validation scope](docs/validation/2d_scope.md).
CPU topology/schedule tests alone do not establish GPU numerical correctness,
general convergence or long-time stability.
## Installation ## Installation
@@ -0,0 +1,62 @@
# Selective LES normalization integration on dev8403956
This change reuses the reviewed correction from 5465832 without merging its
branch history. The only production change is the two closed-form coefficients
18 -> 18 sqrt(2) and their explanatory comments in turbulence_smag.cuh. Its SHA256
is a3db46c2e7d27530b2d1436e65cdbed0b72cc7e047bfbeef2a640877271b51aa.
Defaults, iterative/deviatoric/capped closure, collision dispatch, AMR guards,
and all other production source files are unchanged.
## Separate source contract; unchanged experiment
The single existing flow runner now accepts `--experiment dev8403956`.
Its separate source_pins_dev8403956.json pins all 101 production files from the
committed 8403956 baseline; corrected mode permits only the exact reviewed
header substitution. Results record the actual checkout commit, import path,
experiment name and manifest SHA256. No arbitrary manifest-path override exists.
Omitting the option still selects the original historical source manifest.
That manifest, the original paired receipts, scalar preparation manifests and
independent continuum oracle are unchanged. Historical baseline and corrected
receipts remain evidence for their own exact sources, not new dev receipts.
Historical guards intentionally reject this different dev source tree. Eight
production files already differed between the historical source snapshot and
8403956; neither the old manifest nor its acceptance is silently regenerated.
The physical experiment and every numerical acceptance threshold are unchanged:
8 x 34 nodes, halfway y walls, periodic x, unforced D2Q9/SRT, shifted FP32,
double-buffer streaming, Cs=0/.16/1, checkpoints 519/1038/2075. Each case has one
actual advancing warm-up followed by complete initial-state restoration before
READY. Total launches are 6,225 measured plus three warm-ups. Cs=1 remains an
amplified diagnostic, not a physical coefficient recommendation.
## Host checks
PYTHONDONTWRITEBYTECODE=1 python -m unittest discover -s tests/unit -p 'test_smagorinsky_normalization.py' -v
PYTHONDONTWRITEBYTECODE=1 python -m unittest discover -s tests/unit -p 'test_les_flow_*.py' -v
The direct-current-header test is copied unchanged from reviewed 5465832:
120 tensor parameter cases, Cs=0/equilibrium and omega guards, converged
trace-free iterative comparison, and mutation detection in both lattice
algebras. This is scalar D2/D3 algebra coverage, not 3D-flow qualification.
Flow tests retain analytic/reference checks and add current named-source,
reverse-patched baseline, variant rejection, unrelated-source tampering and
immutable historical-default checks. The temporary baseline is constructed
only inside a test directory; production is never reverse-patched.
## Pending final-commit GPU gate
After independent review and explicit executor authorization, run from the
exact committed candidate checkout, selecting the authorized physical GPU:
CUDA_VISIBLE_DEVICES=<physical-GPU> PYTHONDONTWRITEBYTECODE=1 python tests/validation/run_uniform_les_flow.py --root "$PWD" --experiment dev8403956 --variant corrected --run-gpu --device 0 --output <new-evidence-directory>/corrected.json
Retain all source hashes, exact commit/import/device identity, manifest hash,
three READY/reset records, complete result JSON, stdout/stderr and actual exit.
Require all frozen gates, DONE passed=true and exit 0. Compare with historical
corrected evidence without relabeling it as current evidence. The old-vs-new
normalization discrimination already exists; no new baseline GPU run is needed
unless review finds a changed exercised uniform solver path.
No GPU result is claimed by this integration preparation. This does not expand
LES qualification to MRT, forcing, AMR LES or three-dimensional turbulent flows.
@@ -0,0 +1,57 @@
# Experimental projected G explosion
`FixedPatchStepper(..., explosion="projected_linear")` changes only the existing
G-to-G explosion reconstruction. The omitted/default `"constant"` selector retains
the same kernel, launch arguments and device allocations. Projected mode adds two
compact tables per adjacent pair; recursion, collision, BFL, restriction, buffer
ownership and synchronized publication are unchanged. `remap_child` preserves it.
Runtime eligibility is periodic-root, fully blocked D2Q9/SRT/FP32, body/Jet-free,
without LES; the fixed-patch backend has no forcing interface. Shifted and unshifted
storage use the same reconstruction. One generic builder handles scalar windows,
unique union rows and all adjacent hierarchy pairs without depth/rectangle caps.
Donors are original explosion donors intersected with owned, uncovered ACTIVE
cells. An axis uses centered differences only if both neighbors are legal;
otherwise both addresses repeat the center. Nested layout periodicity is explicit.
No covered cells, holes, inactive cells or stale halo copies enter the stencil.
The 33-line kernel is unchanged from our `519473a` experiment and retains its
mathematical attribution. Host tests cover union decomposition, concavity, narrow
gaps, grazing packet paths, offsets, sparse/nested owner addresses, three/four-level
source timing, unchanged constant dispatch, remapping and shifted/unshifted actual
kernel arithmetic compiled as host C++. These are not CUDA or flow validation.
## Reviewed bounded evidence
The `1aa8110` CUDA gate, with production exactly `a135252`, passed exact-dev
omitted/default and explicit-constant equivalence, per-population reconstruction,
scalar/union/four-level scheduling, alternate layouts, and changed remapping in
both storage modes. Operator maximum error was 2.98023224e-8; the eight-step
concave replay maximum was 1.58037614e-7. Whole-step mass/momentum remain
finite diagnostics, not an FP32 conservation certificate. Reviewed evidence:
`7aa66ff0542175092753ea099f40b903ece0527e`.
The fresh four-case `2cf9853` N128/256 Taylor–Green repeat retained all `11901a7`
settings and gates. All 20 main scalar rows and 260 early-pressure samples matched
the older receipts exactly; this is not field-array equality. Projected worst
velocity was 0.001995299260844 versus 0.002 (only 0.235% margin), pressure
0.012157174904932 and energy 0.001184362645162. Constant velocity
0.004418076615223 failed its gate, so the aggregate verdict remains false.
The projected early sampled pressure peak was 0.021621453573334; it remains a
descriptive sampled maximum. Reviewed evidence: `90849a55cad4a0da9b72747da7bfe6eb75962a44`.
The old N64 projected failures remain relevant. These results support only this
bounded plumbing gate and short periodic Re100 smooth-decay experiment. They do
not establish union/multilevel physics accuracy, convergence, long-time stability,
body/Jet, boundary, forcing, MRT or LES suitability. Constant remains the default.
## Separate LES source profile
The two older LES source manifests and the historical default are unchanged and
correctly reject this different source tree. The existing LES runner now offers
`--experiment a135252`, pinning all 101 actual committed corrected source files.
Its explicit baseline-header override describes only a synthetic isolated reverse
control, never the committed a135252 header. The unchanged corrected-only uniform
LES regression (Cs=0/.16/1) is the remaining integration gate; no LES result is
inherited from the projected evidence. The separate historical jet-CV `channel.py`
pin mismatch predates this port and is not addressed here.
+34
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@@ -0,0 +1,34 @@
# MRT reuse in blocked/refined stepping (candidate)
Base `9805383`. Opt-in by `LBMConfig(collision="MRT")`; SRT remains the default and its
kernel statements, including the shifted retained-delta/direct-momentum path, are unchanged
under the alternate compile branch.
## What changes
- `blocks.cu` (`BlockStep`), `step/block_channel.cu` (`BlockChannelStep`) and `refinement.cu`
(`patch_collide`) gain a compile-time `COLLISION_MODEL == 2` branch that repeats the uniform
`collide_dispatch` sequence with zero forcing: `compute_rho_u`, omega clamp to
`[OMEGA_COLLISION_MIN, OMEGA_COLLISION_MAX]`, `collide_mrt_no_force`.
- Kernel and host guards accept SRT or MRT only. TRT, LES, non-FP32 storage, non-double-buffer
streaming, and shifted dense/mixed refinement remain rejected.
- Transfers, subcycling, BFL, raw exchange ledgers and channel closures are untouched. The
existing pressure-NEQ outlet selects its MRT branch (unknowns-only NEQ extrapolation) from
`COLLISION_MODEL`, so MRT channel parity must use uniform MRT as reference.
## Contracts (existing operator, not redefined here)
- Shifted storage uses the existing MRT representation (equilibrium moments from `rho - 1`),
not the SRT retained-delta/direct-momentum precision. Mass and momentum are conserved
moments (relaxation rate 0).
- Kinetic rates are the operator's fixed `s_e = s_eps = s_q = 1.2` on every level; the shear
rate is the existing per-level omega. Under acoustic 2:1 scaling the physical bulk viscosity
therefore halves on each finer level. No rate rescaling is applied.
- No LES, no external forcing (`d_params` force fields stay zero).
- Shifted Jets stay SRT-only: `body/jets.py` keeps its existing guard. This extension does not
provide shifted MRT Jets.
- `PeriodicBlockStepper` (uniform blocked stepper) remains SRT-only.
## Evidence status
CPU: `tests/unit/test_refinement_mrt.py` (host guards, source contract). GPU:
`tests/validation/multigrid/test_refinement_mrt_gpu.py` (uniform-MRT channel parity, AMR MRT
smoke) and unchanged SRT GPU tests. Strict parity may be subject to cross-kernel FMA
contraction differences already documented for SRT. Not a DFG/benchmark validation.
+21 -9
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@@ -1,8 +1,11 @@
# Fixed three-level separated patches # Fixed three-level rectangle unions
`FixedPatchStepper` supports exactly three static, blocked levels with separated This page describes the legacy three-level entry point of `FixedPatchStepper`,
rectangle sets on either adjacent pair. This is not general AMR: there is no with rectangle unions on either adjacent pair. The `refinements` level-list
per-region timestep, moving geometry, dynamic refinement or L1 body support. entry point also supports arbitrary depth; three or more levels require
all-blocked storage and bodies/Jets only on the finest level. This is not
general AMR: there is no per-region timestep, moving geometry, automatic
dynamic refinement or L1 body support in the three-level form.
All regions share one current/spare buffer pair per level. The existing schedule All regions share one current/spare buffer pair per level. The existing schedule
advances L0 once, L1 twice and L2 four times per base step, with aggregate transfers. advances L0 once, L1 twice and L2 four times per base step, with aggregate transfers.
No CUDA kernel changes are involved. No CUDA kernel changes are involved.
@@ -30,12 +33,15 @@ are physically equivalent to parent set `[(4,4,12,12)]` with child set
`[(8,8,16,16)]`. Reusing the same numbers after changing the parent frame can `[(8,8,16,16)]`. Reusing the same numbers after changing the parent frame can
move the physical region. move the physical region.
Both adjacent pairs require a Chebyshev gap of at least four in their own Both adjacent pairs are built from their unions, without a fixed rectangle-gap
parent-cell units. The whole child union must preserve inherited ACTIVE rule. Adjacent, overlapping and concave unions are accepted only when their
coverage, uncovered ACTIVE donors/receivers, surviving pulls, and the upstream actual transfer dependencies close. The whole child union must preserve
inherited ACTIVE coverage, uncovered ACTIVE donors/receivers, surviving pulls, and the upstream
restriction footprint. Sparse holes remain unowned; inherited INNER remains restriction footprint. Sparse holes remain unowned; inherited INNER remains
stream-only and OUTER remains invalid. Block sizes must align with every stream-only and OUTER remains invalid. Block sizes must divide their allocated
support edge, including its four-cell ghost band. level grids. Sparse storage owns every grid-aligned tile intersecting the union
plus its four-cell ghost band; rectangle and support edges need not align with
tile edges.
## Example ## Example
@@ -65,6 +71,12 @@ CPU geometry, table, pre-CUDA rejection, schedule and cleanup tests:
PYTHONPATH=src python -m unittest discover -s tests/unit -p 'test_refinement*.py' -v PYTHONPATH=src python -m unittest discover -s tests/unit -p 'test_refinement*.py' -v
``` ```
`tests/unit/test_union_refinement.py` covers union dependencies and tile
ownership; `tests/unit/test_hierarchy.py` covers composed geometry through four
levels. `tests/unit/test_raw_exchange.py` checks the four-level host schedule
with CUDA mocks. These establish topology/control-flow coverage, not numerical
qualification at every depth or interface shape.
Explicit GPU gates are in Explicit GPU gates are in
`tests/validation/multigrid/test_refinement_three_level_multipatch_gpu.py`. `tests/validation/multigrid/test_refinement_three_level_multipatch_gpu.py`.
They cover physical-frame equivalence, twins, asymmetric refinement, multiple They cover physical-frame equivalence, twins, asymmetric refinement, multiple
+37 -25
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@@ -1,11 +1,15 @@
# Synchronized leaf G remap and manual continuation # Synchronized leaf G remap and manual continuation
This is a CPU state-transfer component, **not a runtime adaptive solver**. This is a CPU state-transfer component, **not a runtime adaptive solver**.
It changes only a separated L2 rectangle set in a three-level, body-free, It changes only an L2 rectangle union in a three-level periodic hierarchy.
periodic hierarchy. L0/L1 topology, relaxation parameters, direction order, The body-free case is shown first; stationary L2 bodies/Jets follow the bounded
support contract below. L0/L1 topology, relaxation parameters, direction order,
physical frame and completed time remain unchanged. Existing geometry checks physical frame and completed time remain unchanged. Existing geometry checks
validate child support/nesting and separation. The CPU helper itself adds no CUDA, scheduler, allocator, boundary handling, validate child support/nesting and actual transfer dependencies, without a fixed
collision or ghost refill. A bounded runtime adapter is described below. rectangle-gap rule. The three-level remap limit is unchanged by the stepper's
arbitrary-depth level-list support. The CPU helper itself adds no CUDA,
scheduler, allocator, boundary handling, collision or ghost refill. A bounded
runtime adapter is described below.
```python ```python
from CelerisLab.lbm.refinement import FixedPatchSet2D from CelerisLab.lbm.refinement import FixedPatchSet2D
@@ -29,11 +33,13 @@ origin is retained. Physical lower edges are `origin + spacing*(x,y)` on L0,
`origin + spacing*(parent.fine_origin + (x,y)/4)` on L2. `origin + spacing*(parent.fine_origin + (x,y)/4)` on L2.
Factory options `coarse_boundary` and `objects` must declare `"periodic"` and Factory options `coarse_boundary` and `objects` must declare `"periodic"` and
an empty body collection (all levels). LBMConfig's channel settings do not an empty collection; L2 bodies use `child_objects` as described below.
select this operator's boundary mode. Geometry metadata is factory-created; LBMConfig's channel settings do not select this operator's boundary mode.
Geometry metadata is factory-created;
manual mutation/forging of metadata is unsupported. Caller certifies the manual mutation/forging of metadata is unsupported. Caller certifies the
actual state has no bodies/forcing, that all device work and old readers are actual state matches the declared boundary and has no forcing, that all device
quiescent, and that inputs are the **current owned-leaf postcollision G**. work and old readers are quiescent, and that inputs are the **current owned-leaf
postcollision G**.
Count/phase stamps check consistency, not freshness or active-buffer identity. Count/phase stamps check consistency, not freshness or active-buffer identity.
`current_g` is three NumPy Q-major arrays `(9,ny,nx)`. For blocked inputs, `current_g` is three NumPy Q-major arrays `(9,ny,nx)`. For blocked inputs,
@@ -73,9 +79,10 @@ PYTHONPATH=src python -m unittest discover -s tests/unit -p 'test_synchronized_r
`replacement = current.remap_child(rectangles)` returns a new ready `replacement = current.remap_child(rectangles)` returns a new ready
`FixedPatchStepper` at the **same absolute step_count**. It supports only `FixedPatchStepper` at the **same absolute step_count**. It supports only
body-free periodic three-level runs whose existing L2 uses periodic three-level runs with no L0/L1 bodies and an existing L2
`child_rectangles_in_parent`. Scalar or union L1 parents are supported; scalar `FixedPatchSet2D`; stationary L2 bodies/Jets follow the support contract below.
`child=` is deliberately rejected. L0/L1, relaxation and block sizes stay fixed. Scalar or union L1 parents are supported; scalar `child=` is deliberately
rejected. L0/L1, relaxation and block sizes stay fixed.
No tagger, scheduler, in-place replacement, or general rollback is provided. No tagger, scheduler, in-place replacement, or general rollback is provided.
The method holds the stepper lock, validates geometry, synchronizes its stream, The method holds the stepper lock, validates geometry, synchronizes its stream,
@@ -113,13 +120,14 @@ Per-population conservation is not an advancement target under collision.
### Bounded pinned-body extension ### Bounded pinned-body extension
`replacement = current.remap_child(rectangles, child_objects=original_objects)` `replacement = current.remap_child(rectangles, child_objects=original_objects)`
also accepts stationary Circles in separated L2 rectangles. Every body’s also accepts stationary Circles inside the L2 union. Each body's **physical
**complete containing rectangle must remain identical**. Several bodies may boundary, complete BFL support and current per-link velocity must remain
share one pinned rectangle; there need not be any fluid-only rectangles. identical**. Rectangles are not pinned: they may be split, merged or resized,
Separated fluid-only rectangles may be added, removed or moved. Existing and other fluid coverage may change, including within the same connected union,
nesting, four-cell gap, full-circle containment, reverse cut-link coverage and two-hop BFL provided that physical support is unchanged. Existing nesting, union transfer
transfer-footprint checks still apply. This is manual remapping, not adaptive dependencies, full-circle containment, reverse cut-link
body tracking or runtime body editing. coverage and two-hop BFL transfer-footprint checks still apply. This is manual
remapping, not adaptive body tracking or runtime body editing.
Supply all original root edge-frame definitions in their construction order. Supply all original root edge-frame definitions in their construction order.
Do not pass `current.child_boundary.objects`: those are projected fine-local copies. Do not pass `current.child_boundary.objects`: those are projected fine-local copies.
@@ -128,8 +136,8 @@ state, remapping reprojects the supplied definition onto the old topology and
compares exact ordered circle centers/radii, flags, physical cut links, body compares exact ordered circle centers/radii, flags, physical cut links, body
IDs, q, lever arms, hits, BFL support, IDs, q, lever arms, hits, BFL support,
legacy SurfaceActuation specification and current per-link velocity against legacy SurfaceActuation specification and current per-link velocity against
the existing boundary. Omission, changed geometry/actuation and changed body the existing boundary. Omission, changed geometry/actuation or changed physical
rectangle fail without device reads or allocations; reordered bodies fail boundary/BFL support fail without device reads or allocations; reordered bodies fail
too. Root object IDs are still assigned by list position, as in the constructor. too. Root object IDs are still assigned by list position, as in the constructor.
Jets are taken from the live L2 boundary, including the most recent successful Jets are taken from the live L2 boundary, including the most recent successful
@@ -141,12 +149,16 @@ boundary and velocities must match exactly.
typed `FineBoundary2D`; it derives L2 fluid leaves as ACTIVE minus SOLID. No typed `FineBoundary2D`; it derives L2 fluid leaves as ACTIVE minus SOLID. No
caller mask is accepted. Solids, ghosts and holes are never donors and remain caller mask is accepted. Solids, ghosts and holes are never donors and remain
NaN, physical-fluid overlap is exact, and exposed L1 still restricts all four NaN, physical-fluid overlap is exact, and exposed L1 still restricts all four
old fluid children. The helper checks the old/new body pins and boundary too. old fluid children. The helper checks old/new physical boundary and velocity
Its immutable `pinned_rectangles` is a canonical, deduplicated tuple, empty for body-free layouts; rectangle input equality too. Its immutable `pinned_rectangles` is legacy containment metadata,
order does not affect it. Scalar-parent window offsets remain part of the not a remap eligibility constraint; it may be empty for a seam-spanning body.
coordinate conversion. Scalar-parent window offsets remain part of the coordinate conversion.
Focused CPU mocks: `tests/unit/test_pinned_body_remap.py`. GPU declarations: Focused CPU mocks: `tests/unit/test_pinned_body_remap.py`.
`tests/unit/test_union_body_support.py` also checks seam-spanning circles,
rectangle repartition/resize, unchanged physical support and live-Jet
preservation. These host checks do not establish GPU evolution accuracy.
GPU declarations:
`tests/validation/multigrid/test_pinned_body_remap_gpu.py`, covering no-op `tests/validation/multigrid/test_pinned_body_remap_gpu.py`, covering no-op
next-step bitwise identity, moved-fluid A→B→A, current-amplitude preservation, next-step bitwise identity, moved-fluid A→B→A, current-amplitude preservation,
physical boundary/velocity equality, source independence and absolute counts. physical boundary/velocity equality, source independence and absolute counts.
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@@ -0,0 +1,53 @@
# Bounded 2D implementation and validation scope
This inventory starts from dev `8403956a9afc0b0bb89265cec374392013d89016` and
integrates only the reviewed LES normalization production correction from
`95cb6d2b9f43c1bdd46cbf27f03f0dfc0877cfb0`. The merged production bytes match that
tested candidate exactly; the scope-test changes are retained from `53fad767`.
GPU receipts remain associated with their exact tested commits, not relabeled as
a new merged-commit run. Historical source identities and gates remain unchanged.
## Implementation boundaries
- Uniform D2Q9 supports SRT, TRT and MRT. An available collision selector does not
qualify every wall, inlet/outlet, forcing, storage or LES combination.
- Fixed refinement supports SRT/MRT, FP32 and double-buffer streaming; TRT and LES
are rejected. Shifted refinement requires all-blocked storage. Refined channel
boundaries have narrower configuration guards than uniform boundaries.
- Uniform checkpoints support compatible same-method continuation. Changing
collision or LES parameters is a different evolution, not exact continuation.
Jet checkpoints and refined checkpoints are unsupported; synchronized remapping
is not persistent restart.
- Keep these conclusions 2D. Local D3Q19 operator tests do not establish a supported
3D Simulation runtime.
## Evidence and remaining gaps
| Area | Available evidence | Boundary of the conclusion |
|---|---|---|
| MRT cylinder flow and observation windows | Full matched uniform/refined MRT DFG and the window-ledger campaign passed their frozen periodicity, reference and matched-comparison gates. The window campaign used `185a919`; its MRT/no-LES numerical path remains unchanged. Current dev also contains independently scoped test/documentation changes and the LES correction, which do not extend MRT qualification. | This does not qualify other collision/boundary combinations or every refinement interface. Timing improvements are not additional accuracy evidence. |
| Uniform forced channel | Six Poiseuille GPU cases on `8403956`: SRT/TRT/MRT at wall-normal resolutions H16/H32 passed. | This is the tested analytic channel configuration, not open-boundary or all-layout qualification. |
| Uniform restart | Ten SRT/MRT checkpoint GPU tests passed on `8403956`; the separate representative TRT same-method double-buffer continuation GPU case also passed (one test). | This covers the tested same-method continuation configurations. No LES, Jet or refined checkpoint claim follows. |
| Taylor–Green refinement | Independent topology checks are available. The actual-rate phase GPU regression passed one test across two layouts, with errors 1.584e-7 and 4.500e-9. | The physical interface-accuracy gap remains open. Passing topology and phase checks does not establish convergence or close that accuracy gate. |
| Porous Couette and annulus | Prior campaign evidence exists and must remain associated with its original setup and source. | The reconstructed annulus is a validation helper, not qualification of a public boundary-condition API. Do not infer absence of evidence from a missing current rerun. |
| LES normalization | The reviewed correction is integrated. Exact `95cb6d2` GPU validation passed all nine observations and frozen gates, with three warm-up/reset records, verified 101-source/import identity, DONE and exit 0. Last two SGS decrement relative errors were 6.276e-4 and 6.124e-5 against the unchanged 0.15 gate. | Scope is unforced uniform D2Q9/SRT, shifted FP32, double-buffer streaming and the tested wall-bounded x-periodic shear. No TRT/MRT LES, forcing, EsoPull, objects, refinement or 3D turbulence qualification follows. |
Historical uniform SRT cylinder-startup and inlet-rounding findings remain separate
from the passed MRT DFG result. Raw exchange/window consistency is a measurement
contract, not a general stress or force-accuracy certification. Existing source-pinned
runners may intentionally reject a newer checkout; never silently repin old receipts.
## Remaining work
The related host checks passed (67 checks); they do not replace the GPU or
physical-accuracy evidence above. Preserve the existing SRT checkpoint cases,
historical LES manifests and all frozen numerical criteria.
Continue the TG accuracy investigation using its actual fine-level rates and
the established analytic convention. Keep the physical accuracy gate open until
the relevant comparison passes. Review this integration independently before
publication; no new merged-commit GPU run is claimed here.
No repeat of the accepted full MRT DFG or Cartesian expansion across unsupported
combinations is required by this document. Main integration remains a separate
review of complete, bounded feature scope.
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# Matched MRT DFG pilot preparation
Preparation only: this test-only extension reuses the existing runner and existing MRT
operator. GPU admission awaits reviewed MRT capability results; no pilot/full execution
is implied by CPU preflight. No production, historical SRT manifest, reference data,
periodic gate, geometry, initialization or observation algorithm is changed here.
## Selection and provenance
Use `--collision MRT` for **both** uniform D80 and refined root D40/fine D80. There are
no independently selectable collision models per case. Default remains SRT.
MRT verifies `data/refined_dfg/source_manifest_mrt.json`, pinned to reviewed numerical
source snapshot `3ea131e92c057843034f11a1c574301a2430dfce`, including the shared geometry,
pressure/cycle helpers and official reference. Test-only commits may change HEAD without
changing this numerical source pin. Plan, READY, case summaries and comparison separately
record `checkout_revision` and `checkout_dirty` using existing source-provenance helper;
the runner hash remains separate. Collision is recorded in every receipt, and full-mode
validation rejects missing or different collision labels in plan, either summary or either
READY receipt, in addition to existing source/runner/health/time checks.
The historical SRT manifest remains byte-for-byte unchanged. SRT on the MRT candidate
checkout deliberately fails that source pin; use a matching historical checkout via
`--source` for SRT. No fallback or automatic repinning is permitted. Historical SRT
failure/diagnostic evidence remains attached to its original source and runner hashes;
it cannot authorize an MRT full run. The existing failed-observation step-reporting
undercount is not changed in this narrowly scoped selection patch.
## Frozen physical comparison
All settings remain those documented in `refined_dfg.md`: U_lattice=.01, physical mean
U=1 m/s, D=.1 m, shear ν=.001 m²/s, fixed physical domain/body/wall planes, patch
(40,24,320,140), shifted FP32 double buffers, no LES/forcing/Jets, finest dx=.00125 m,
finest dt=.0000125 s, unchanged half-cell frame conversion and axis-specific phase.
Force interval accumulation, physical leaf mass, pressure interpolation, flux sampling,
safety thresholds, t*=5 pilot and t*=300 cap are unchanged. Existing accuracy/periodicity
criteria are imported unchanged. Both MRT cases are fresh runs; old MRT or SRT results
are not substituted as controls.
Both cases use the **existing MRT pressure-NEQ branch**: only unknown directions q2/6/8
are extrapolated. This differs from SRT's all-nine .5-damped branch; the retained
`srt_neq_damp=.5` configuration value is inactive under MRT. Backflow clamp remains off.
The outlet is still noncanonical relative to exact DFG do-nothing conditions.
The reused MRT operator keeps fixed kinetic rates `s_e=s_eps=s_q=1.2` on all levels;
only the shear rate follows existing per-level viscosity. Physical bulk relaxation
therefore differs between coarse and fine levels. Transfer operators and subcycling
are unchanged. This is the candidate's declared behavior, not a new fully mode-scaled
MRT transfer scheme. Do not tune rates, the patch or gates after seeing outcomes.
Capability smoke/parity gates do not establish DFG accuracy or speedup.
## CPU and admission commands
From this checkout:
```sh
python tests/unit/test_refined_dfg.py
python tests/validation/run_refined_dfg.py --collision MRT --mode plan --output /tmp/new-mrt-dfg-plan
```
After root verifies the candidate MRT root/parity/refinement capability results and admits
an idle device, the paired pilot may use the existing bounds and external watchdog:
```sh
CUDA_VISIBLE_DEVICES=<admitted-device> timeout --signal=TERM --kill-after=30s <hard-budget>s python tests/validation/run_refined_dfg.py --collision MRT --mode pilot --gpu-gates-approved --max-wall-seconds <soft-budget> --output <new-mrt-pilot-directory>
```
The flag is caller attestation, not evidence. An unhealthy first case prevents the second.
Existing strict pilot receipt validation and calibrated wall-time controls remain; full
mode is not being admitted as part of this preparation. Root must review both healthy
pilot outcomes and separately decide any full-run admission.
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# Refined DFG MRT timing harness (measurement only)
`tests/validation/time_refined_dfg.py` times the matched MRT refined/uniform DFG Re100 setup of
`run_refined_dfg.py` (same configuration, geometry and initial state functions). No numerical,
physics-gate or production change; no force or accuracy result is produced.
| Variant | Loop | Force reads |
|---|---|---|
| A | refined `step(1)` + `read_raw_exchange` per base step | runner-like force-read workload (values discarded) |
| B | refined `step(1)` only, no host reads (`observe_raw_exchange` stays on) | timing-only |
| C | refined single `step(N)` | timing-only; ledger keeps the final base interval only |
| E | uniform `sim.run(<=100)` + `read_force` | runner-like force-read workload (values discarded) |
| E' | uniform single `sim.run(2N)` | timing-only; at most a whole-window average, different summation order |
- No variant retains a valid force history; A/E omit the runner's interval aggregation and
validation, and no variant includes macro/probe/CSV costs. Results are not full benchmark
throughput.
- Status lines: `CONSTRUCTED` (construction/JIT complete) and `WARM_READY` (first warm-up and
health check passed) per case.
- Equal simulated duration: N refined base steps vs 2N uniform D80 steps.
- Every repeat starts from the same fresh state (refined `initialize`, uniform `snapshot/restore`)
and the same warm-up; construction/JIT, warm-up, downloads and parity checks are untimed.
- The actual stepping stream is synchronized explicitly before and after each timed loop; the
wall timer (`time.perf_counter`) is the only source. No CUDA-event span is called kernel time.
- `--max-wall-seconds` is required for GPU runs (outer timeout, checked between variants and
every 100 steps in per-step loops).
- Final populations and NaN masks must be bitwise identical to the first A repeat (A/B/C) or the
first E repeat (E/E'); refined and uniform grids are never compared. Leaf/fluid populations
must be finite. Physical health (finite leaf/fluid macros, rho in [0.5, 1.5], max Mach <= 0.2,
the existing runner limits) is checked after warm-up and after each timed window. Matching NaN
is accepted only as a storage mask; any infinity or level-count mismatch fails parity. All
parity/health checks are untimed.
- Cases run sequentially (uniform, then refined) in one process with startup serialized;
variants are interleaved within each repeat. A-B and B-C are measured comparative
differences under GPU variability, not exact causal decompositions.
Usage (root selects one verified idle GPU):
PYTHONPATH=src python -m unittest tests/unit/test_time_refined_dfg.py
python tests/validation/time_refined_dfg.py --output <new> --plan
CUDA_VISIBLE_DEVICES=<gpu> python tests/validation/time_refined_dfg.py --output <new> --max-wall-seconds <s>
Defaults: 2000 base steps, 200 warm-up base steps, 3 repeats. Profiler capture and the
`observe_raw_exchange=False` variant are deferred until these measurements exist.
## A versus observation-window ledger (`tests/validation/time_window_dfg.py`)
Measurement-only comparison on the same shifted-MRT refined setup: A (per-base `step(1)` +
`read_raw_exchange`, summed per 80-base-step interval), W (`start_exchange_window`, `step(80)`,
one window read) and W1 (window with 80 x `step(1)`, isolating the read pattern from call
batching). Same fresh state, warm-up and simulated duration; populations must be bitwise equal
to the first A repeat and per-interval total impulses within the documented engineering
tolerance, all outside timing. The candidate source is recorded (checkout revision, dirty flag,
file hashes); frozen refined-DFG manifests/results are not used or changed.
PYTHONPATH=src python -m unittest tests/unit/test_time_window_dfg.py
python tests/validation/time_window_dfg.py --output <new> --plan
CUDA_VISIBLE_DEVICES=<gpu> python tests/validation/time_window_dfg.py --output <new> --max-wall-seconds <s>
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# Opt-in observation-window ledger in the DFG runner
This test-only integration adds `--exchange-window` to `run_refined_dfg.py`. It uses the
existing production ledger; no collision, boundary, transfer, physical setup, reference,
periodicity gate or acceptance threshold changes. Default remains the historical
per-base-step observation path. Uniform stepping/force accumulation is unchanged.
For the refined case, each existing observation interval opens a new ledger at completed
base step `begin`, advances exactly the same `n` base intervals, and reads the integrated
root-lattice impulse for `[begin, begin+n]`. The contract requires root units, `window`
kind, `2*n` fine samples, matching endpoints, and fine dt=.5. The existing coefficient
calculation still divides this impulse by `n` and `.5*U_lattice**2*D_root`; force timestamps
remain `(begin+n/2)*U_lattice/D_root`. It does not divide an already averaged force again.
Pressure/macro/physical-leaf mass measurements and safety checks remain at the original
interval end. Pilot interval is 80 root steps; early full-run intervals remain 2000, and
any final shortened interval uses its actual `n`.
The opt-in uses one `step(n)` call and one window read per observation, rather than `n`
Python calls/readbacks. Internal subcycling and per-base synchronization remain owned by
the same backend. Cooperative deadline checks surround that complete interval; unlike
the default path they cannot interrupt between base steps inside `step(n)`. The existing
external hard watchdog is still required. The full-run cadence/cap is documented here,
but this preparation does not admit a full run or a GPU operation.
## Provenance and receipt separation
`source_manifest_window.json` pins the reviewed a233c9032487a6006e950d1e327079b00466c410
snapshot (production ledger origin d930) plus existing helper/reference files. Both SRT
and MRT are supported by this explicit opt-in source pin; collision selection remains
independent and shared by the two cases. Existing SRT and MRT manifests are untouched.
Default mode continues to reject the changed candidate under those historical pins;
use a matching historical `--source` checkout to run its default path. There is no
silent repinning, source fallback, or reuse of historical outputs as candidate evidence.
Plan, READY, summaries, timeout/comparison receipts now record `observation_mode` as
`last_base_step` or `window`, alongside collision and actual checkout provenance. On a
uniform receipt this labels its **paired campaign's refined observation mode**, not a
change to uniform observation. Full-mode pilot validation rejects missing or mismatched
mode labels in the plan, either case summary, and either READY receipt. Source/runner
hash, collision, completeness and health checks remain. Cross-mode pilot reuse is denied.
The earlier short A/W/W1 timing/capability evidence is not a full-run speedup or accuracy
claim. Mathematical impulse integration/units are unchanged; floating-point reduction
order can differ, so bitwise equality of force sums is not promised. Physics acceptance
continues to use the existing frozen gates. Historical failures/results are untouched.
CPU preparation commands, from the repository root:
```sh
python tests/unit/test_refined_dfg.py
PYTHONPATH=src python -m unittest tests.unit.test_raw_exchange_window tests.unit.test_time_window_dfg -v
python tests/validation/run_refined_dfg.py --collision MRT --exchange-window --mode plan --output /tmp/new-window-dfg-plan
```
Root must independently review and admit any execution. An admitted paired pilot uses
the existing watchdog, device selection, `--gpu-gates-approved`, positive
`--max-wall-seconds` and a new output directory, adding only `--exchange-window` to the
selected collision's pilot command. No GPU or remote action was performed for this patch.
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# First-failure uniform SRT diagnostic (prepared, not executed)
Purpose: locate the first physical failure in the unchanged uniform D80 SRT control that was healthy at executed step 160 and nonfinite at the next observation, executed step 320. The original failure's summary `steps=160` is the last accepted observation, not the last executed step. This diagnostic does not select different numerical parameters, run an AMR case or perform a new benchmark campaign.
## Exact source and configuration
The default source is the containing repository (override with `--source`); the exact pinned production/runtime source is commit `9805383f9c50d867e8555471baf5dbda8333a652`. The manifest pins production files and the helper/runner dependencies directly against the original failure's `source_before.json`. All pinned contents match. Import guards require CelerisLab and the runner from the selected pinned checkout.
The script calls the original `run_refined_dfg.config(helper,80)` factory and unchanged `Simulation(...).initialize()`. Thus it retains D80, U=.01, ν=.008, τ=.524, ω≈1.9084, shifted FP32, SRT, double buffer, parabolic local Zou–He inlet, all-nine pressure-NEQ damping .5, backflow clamp disabled, identical cylinder geometry and initialization. No clipping, equilibrium rewrite or solver patch is added.
The inlet overload in this source may differ by FP32 rounding from older d79 code even where the algebra matches; that is not changed here and is not established as the cause of failure. MRT's outlet branch also differs. Neither prior MRT success nor this diagnostic establishes an SRT/outlet/body attribution.
## Observation and stop contract
- At most 320 actual solver steps, starting from the original fresh initialization. Stop at the first physical health failure (or wall deadline).
- Read the production macroscopic path, its decoded populations, and force after every completed step. Preserve the actual executed count separately from the last observed count.
- Independently report nonfinite physical populations, nonfinite physical macros and nonfinite reaction. Apply the original density [.5,1.5] and Mach≤.2 checks to physical FLUID nodes. A new population-only check may stop earlier than the original macro-only health check; the report explicitly distinguishes it.
- Per-step `Simulation.run(1)` resets/reads the observation buffer for a one-step force window. This changes observation cadence and force accumulation windows, not configuration or fluid updates. A cumulative-force-only overflow from the original 100/60-step batching would not be reproduced identically; that limitation is explicit. Original macro warnings already show nonfinite populations/macros, so this instrument prioritizes locating the physical failure.
- Ghost/inactive/body-solid populations are reported in separate categories; their NaNs do not independently trigger physical failure. Category masks are disjoint and complete. Boundary subtypes are decoded as the nibble, not mistaken for independent bit flags.
- Physical region labels are body-near (within radius+3 cells), outlet/inlet-near (three fluid columns), wall-near (three fluid rows), and remaining bulk. These locate symptoms, not causal mechanisms.
- Initial, preceding and firstbad/final compact reports retain category counts, finite global extrema and positions, the first 16 offending nodes in row-major order, their bad q indices/all populations, and up to four 5×5 population/flag neighborhoods. “First” identifies earliest sampled step; within that step the list is row-major, not an asserted temporal order among GPU threads.
## Bounded evidence
Only the immediately preceding and firstbad/final active-buffer states are retained. `states.npz` contains their exact raw shifted FP32 values, production-decoded FP32 populations and step numbers, plus flags. This is ~81 MiB at the exact D80 shape, with a 128 MiB artifact limit enforced. There are no saved field trajectories. Initial conditions are reproducible from the source/config; only their diagnostic summary is retained.
These are diagnostic snapshots, not full restart checkpoints (spare buffers and observation/control state are not a restart bundle). `diagnostics.json` stores nonfinite numbers as explicit `NaN`, `+Inf`, `-Inf` strings and is strict finite JSON; NPZ preserves actual IEEE values. A force-only failure can have no offending fluid node. A clean cap means no sampled failure through 320, not benchmark acceptance.
## CPU validation
```sh
python tests/validation/uniform_srt_diagnostic/test_diagnostic.py
python tests/validation/uniform_srt_diagnostic/diagnose_uniform_srt.py --output /tmp/new-srt-preflight
```
Seven CPU-only tests pass: source/config, complete category partition, inactive nonfinite exclusion, independent population/macro/force reasons, health thresholds, bounded two-state artifact writing, and deadline/source guards. `py_compile` and the real-source default preflight pass. No CUDA import is required by preflight/tests and no GPU was executed here.
## Root-only admitted execution
After independent review and root GPU admission:
```sh
CUDA_VISIBLE_DEVICES=<admitted-device> timeout --signal=TERM --kill-after=30s <hard-budget>s python tests/validation/uniform_srt_diagnostic/diagnose_uniform_srt.py --source <exact-9805383-checkout> --execute --gpu-admitted --wall-seconds <soft-budget> --output <new-output-directory>
```
The external watchdog is required for a blocked CUDA call; cooperative wall checks cannot interrupt one. Budget should allow per-step downloads and ~81 MiB evidence writing; this diagnostic is not a performance measurement. The step ceiling cannot be increased by a CLI flag. `READY` is emitted after the first completed step and all observation paths. First physical failure is expected diagnostic evidence and returns exit 2; step cap returns 0. `preflight.json` records the pre-execution configuration, not a completion receipt.
Original failure files, production source, original pilot runner and gates are untouched. This test-only handoff is based on exact commit 9805383; added diagnostic files are not part of the historical failure source manifest.
## Historical reporting undercount (not changed here)
The failed pilot executed to step 320 before its second observation failed. Its summary `steps=160` reflects `begin`, which advances only after an accepted observation. This is a reporting undercount, not evidence that the second batch did not execute. The original failure package and runner/gates are preserved unchanged. This diagnostic records both `executed_steps` and `observation_step`, and labels previous-state steps explicitly. Fixing the historical runner's reporting is a separate change.
+2 -2
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@@ -1,4 +1,4 @@
"""Host contract for the blocked root's uniform-SRT channel boundary. """Host contract for the blocked root's uniform SRT/MRT channel boundary.
Boundary ghosts are evolved state, but are not physical fluid leaves. Halo Boundary ghosts are evolved state, but are not physical fluid leaves. Halo
ownership remains periodic to reproduce the uniform kernel's wrapped pulls. ownership remains periodic to reproduce the uniform kernel's wrapped pulls.
@@ -29,7 +29,7 @@ def validate_channel_config(cfg, blocks):
def validate_channel_transfers(pair, layout, targets): def validate_channel_transfers(pair, layout, targets):
"""Reject actual exchange/closure overlap, not a padded geometric envelope. """Reject actual exchange/closure overlap, not a padded geometric envelope.
Explosion donors and restriction receivers must use ordinary bulk SRT Explosion donors and restriction receivers must use ordinary bulk collision
semantics. Restriction writes receiver-local source slots; these may not semantics. Restriction writes receiver-local source slots; these may not
overwrite the channel's extra immutable-input reads (pressure donor and overwrite the channel's extra immutable-input reads (pressure donor and
same-node halfway-wall corrections). The slot check deliberately respects same-node halfway-wall corrections). The slot check deliberately respects
+46 -2
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@@ -14,12 +14,15 @@
#include "core/obs.cuh" #include "core/obs.cuh"
#include "operators/macro.cuh" #include "operators/macro.cuh"
#include "operators/collision_srt.cuh" #include "operators/collision_srt.cuh"
#if COLLISION_MODEL == 2
#include "operators/collision_mrt.cuh"
#endif
#include "streaming/pull_double_buffer.cuh" #include "streaming/pull_double_buffer.cuh"
#include "boundary/curved_boundary.cuh" #include "boundary/curved_boundary.cuh"
#include "boundary/planar_velocity.cuh" #include "boundary/planar_velocity.cuh"
#if DIM != 2 || NQ != 9 || COLLISION_MODEL != 0 || STORE_PRECISION != 0 || USE_LES || STREAMING_MODEL != 0 #if DIM != 2 || NQ != 9 || (COLLISION_MODEL != 0 && COLLISION_MODEL != 2) || STORE_PRECISION != 0 || USE_LES || STREAMING_MODEL != 0
#error "Blocks require FP32 D2Q9 SRT double buffers without LES" #error "Blocks require FP32 D2Q9 SRT or MRT double buffers without LES"
#endif #endif
// Fixed-patch cell kinds, matching refinement.py ACTIVE/INNER_GHOST/OUTER_GHOST. // Fixed-patch cell kinds, matching refinement.py ACTIVE/INNER_GHOST/OUTER_GHOST.
@@ -60,6 +63,39 @@ extern "C" __global__ void BlockExplode(
to[index_f(t % TOTAL_CELLS, q)] = from[q * coarse_cells + d % coarse_cells]; to[index_f(t % TOTAL_CELLS, q)] = from[q * coarse_cells + d % coarse_cells];
} }
// Experimental Schornbaum--Ruede (arXiv:1508.07982, Algorithm 2)
// and Chen et al. (doi:10.1016/j.physa.2005.09.036) population interpolation.
// Independent implementation of the mathematical stencil; no upstream source copied.
// Stencil cells are owner cores; a disabled axis repeats its center twice.
extern "C" __global__ void BlockExplodeProjected(
const fpxx* coarse, fpxx* fine, const uint64_t* target, const uint64_t* donor,
unsigned int count, unsigned long coarse_cells,
const uint64_t* neighbors, const float* offsets)
{
unsigned int row = blockIdx.x * blockDim.x + threadIdx.x;
if (row >= count) return;
const uint64_t t = target[row], d = donor[row];
fpxx* to = fine + (t / TOTAL_CELLS) * NQ * TOTAL_CELLS;
for (unsigned int q = 0; q < NQ; ++q) {
float v[4];
for (unsigned int a = 0; a < 4; ++a) {
const uint64_t n = neighbors[4ul * row + a];
v[a] = coarse[(n / coarse_cells) * NQ * coarse_cells
+ q * coarse_cells + n % coarse_cells];
}
float gx = .5f * (v[1] - v[0]), gy = .5f * (v[3] - v[2]);
const float ex = d_cx[q], ey = d_cy[q];
if (q != 0) {
const float along = (ex * gx + ey * gy) / (ex * ex + ey * ey);
gx -= ex * along;
gy -= ey * along;
}
to[index_f(t % TOTAL_CELLS, q)] =
coarse[(d / coarse_cells) * NQ * coarse_cells + q * coarse_cells + d % coarse_cells]
+ offsets[2ul * row] * gx + offsets[2ul * row + 1] * gy;
}
}
// Targets are receiver-local SOURCE slots for the immediately following pull. // Targets are receiver-local SOURCE slots for the immediately following pull.
// Keep child summation order identical to PatchCoarseStep; no collision here. // Keep child summation order identical to PatchCoarseStep; no collision here.
extern "C" __global__ void BlockCoalesce( extern "C" __global__ void BlockCoalesce(
@@ -141,6 +177,13 @@ extern "C" __global__ void BlockStep(const fpxx* in, fpxx* out, unsigned int hal
gx, d_block_wall.nx, d_block_wall.slot_width, d_block_wall.amplitude)); gx, d_block_wall.nx, d_block_wall.slot_width, d_block_wall.amplitude));
else if (gy == d_block_wall.ny - 2) reconstruct_top_reservoir(f, RHO); else if (gy == d_block_wall.ny - 2) reconstruct_top_reservoir(f, RHO);
} }
#if COLLISION_MODEL == 2
// Uniform MRT sequence (collide_dispatch, zero forcing); SRT path below unchanged.
float rho, ux, uy;
compute_rho_u(f, rho, ux, uy);
collide_mrt_no_force(f, rho, ux, uy,
fminf(OMEGA_COLLISION_MAX, fmaxf(OMEGA_COLLISION_MIN, d_params.omega)));
#else
float rho, ux, uy, feq[NQ]; float rho, ux, uy, feq[NQ];
compute_rho_u(f, rho, ux, uy); compute_rho_u(f, rho, ux, uy);
#if USE_DDF_SHIFTING #if USE_DDF_SHIFTING
@@ -153,6 +196,7 @@ extern "C" __global__ void BlockStep(const fpxx* in, fpxx* out, unsigned int hal
compute_feq(rho, ux, uy, feq); compute_feq(rho, ux, uy, feq);
#endif #endif
collide_srt_no_force(f, feq, d_params.omega); collide_srt_no_force(f, feq, d_params.omega);
#endif
} }
} }
stream_pull_store(k, f, out + base); stream_pull_store(k, f, out + base);
@@ -5,7 +5,9 @@
// nu_t = (C_s * Delta)^2 * |S|, Delta = 1 (lattice unit) // nu_t = (C_s * Delta)^2 * |S|, Delta = 1 (lattice unit)
// omega_eff = 1 / (3*(nu + nu_t) + 0.5) // omega_eff = 1 / (3*(nu + nu_t) + 0.5)
// //
// |S| is estimated from non-equilibrium second-order moments using tau0. // |S| = sqrt(2 S_ij S_ij), with Delta = 1 in lattice units.
// The stress estimate uses self-consistent tau_eff; tau0 is molecular.
// Closed form uses full stress. Iteration uses deviatoric stress and a cap.
// ============================================================================ // ============================================================================
#ifndef CELERIS_OPERATORS_TURBULENCE_SMAG_CUH #ifndef CELERIS_OPERATORS_TURBULENCE_SMAG_CUH
@@ -65,12 +67,12 @@ __device__ __forceinline__ float compute_omega_smag(const float* __restrict__ f,
#if LES_CLOSED_FORM #if LES_CLOSED_FORM
// Closed-form Smagorinsky (no iteration): // Closed-form Smagorinsky (no iteration):
// ω = 2 / (τ₀ + √(τ₀² + 18·Cs²·√Q / ρ)) // ω = 2 / (τ₀ + √(τ₀² + 18·√2·Cs²·√Q / ρ))
// where Q = Πneq_ij · Πneq_ij (Frobenius norm squared) // where Q = Πneq_ij · Πneq_ij (Frobenius norm squared)
const float Q = pixx*pixx + piyy*piyy + 2.0f*pixy*pixy; const float Q = pixx*pixx + piyy*piyy + 2.0f*pixy*pixy;
const float sqrtQ = sqrtf(fmaxf(Q, 0.0f)); const float sqrtQ = sqrtf(fmaxf(Q, 0.0f));
const float smag_const_sq = LES_CS * LES_CS; const float smag_const_sq = LES_CS * LES_CS;
const float discriminant = tau0*tau0 + 18.0f * smag_const_sq * sqrtQ / rho_safe; const float discriminant = tau0*tau0 + 18.0f * sqrtf(2.0f) * smag_const_sq * sqrtQ / rho_safe;
const float tau_eff = 0.5f * (tau0 + sqrtf(fmaxf(discriminant, tau0*tau0))); const float tau_eff = 0.5f * (tau0 + sqrtf(fmaxf(discriminant, tau0*tau0)));
return clamp_omega(1.0f / fmaxf(tau_eff, 0.500001f)); return clamp_omega(1.0f / fmaxf(tau_eff, 0.500001f));
#else #else
@@ -140,7 +142,7 @@ __device__ __forceinline__ float compute_omega_smag(const float* __restrict__ f,
+ 2.0f*(pixy*pixy + pixz*pixz + piyz*piyz); + 2.0f*(pixy*pixy + pixz*pixz + piyz*piyz);
const float sqrtQ = sqrtf(fmaxf(Q, 0.0f)); const float sqrtQ = sqrtf(fmaxf(Q, 0.0f));
const float smag_const_sq = LES_CS * LES_CS; const float smag_const_sq = LES_CS * LES_CS;
const float discriminant = tau0*tau0 + 18.0f * smag_const_sq * sqrtQ / rho_safe; const float discriminant = tau0*tau0 + 18.0f * sqrtf(2.0f) * smag_const_sq * sqrtQ / rho_safe;
const float tau_eff = 0.5f * (tau0 + sqrtf(fmaxf(discriminant, tau0*tau0))); const float tau_eff = 0.5f * (tau0 + sqrtf(fmaxf(discriminant, tau0*tau0)));
return clamp_omega(1.0f / fmaxf(tau_eff, 0.500001f)); return clamp_omega(1.0f / fmaxf(tau_eff, 0.500001f));
#else #else
+12 -2
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@@ -11,6 +11,9 @@
#include "core/obs.cuh" #include "core/obs.cuh"
#include "operators/macro.cuh" #include "operators/macro.cuh"
#include "operators/collision_srt.cuh" #include "operators/collision_srt.cuh"
#if COLLISION_MODEL == 2
#include "operators/collision_mrt.cuh"
#endif
#include "streaming/pull_double_buffer.cuh" #include "streaming/pull_double_buffer.cuh"
#include "boundary/planar_velocity.cuh" #include "boundary/planar_velocity.cuh"
#include "boundary/curved_boundary.cuh" #include "boundary/curved_boundary.cuh"
@@ -19,8 +22,8 @@ extern "C" {
#include "step/curved_double.cu" #include "step/curved_double.cu"
} }
#if DIM != 2 || NQ != 9 || COLLISION_MODEL != 0 || STORE_PRECISION != 0 || USE_DDF_SHIFTING || USE_LES || STREAMING_MODEL != 0 #if DIM != 2 || NQ != 9 || (COLLISION_MODEL != 0 && COLLISION_MODEL != 2) || STORE_PRECISION != 0 || USE_DDF_SHIFTING || USE_LES || STREAMING_MODEL != 0
#error "Refinement requires unshifted FP32 D2Q9 SRT double buffers without LES" #error "Refinement requires unshifted FP32 D2Q9 SRT or MRT double buffers without LES"
#endif #endif
// Enabled only in the validation build; no diagnostic arrays in normal builds. // Enabled only in the validation build; no diagnostic arrays in normal builds.
@@ -33,10 +36,17 @@ __device__ unsigned int incoming_counts[NQ * TOTAL_CELLS];
#endif #endif
__device__ __forceinline__ void patch_collide(float* f, unsigned long k) { __device__ __forceinline__ void patch_collide(float* f, unsigned long k) {
#if COLLISION_MODEL == 2
float rho, ux, uy;
compute_rho_u(f, rho, ux, uy);
collide_mrt_no_force(f, rho, ux, uy,
fminf(OMEGA_COLLISION_MAX, fmaxf(OMEGA_COLLISION_MIN, d_params.omega)));
#else
float rho, ux, uy, feq[NQ]; float rho, ux, uy, feq[NQ];
compute_rho_u(f, rho, ux, uy); compute_rho_u(f, rho, ux, uy);
compute_feq(rho, ux, uy, feq); compute_feq(rho, ux, uy, feq);
collide_srt_no_force(f, feq, d_params.omega); collide_srt_no_force(f, feq, d_params.omega);
#endif
#ifdef CELERIS_REFINEMENT_AUDIT #ifdef CELERIS_REFINEMENT_AUDIT
++collision_counts[k]; ++collision_counts[k];
#endif #endif
@@ -54,12 +54,20 @@ extern "C" __global__ void BlockChannelStep(
f[7] = load_ddf(in + base, index_f(k, 8)); f[7] = load_ddf(in + base, index_f(k, 8));
} }
if (!wall && !outlet) { if (!wall && !outlet) {
#if COLLISION_MODEL == 2
// Match uniform MRT arithmetic (collide_dispatch, zero forcing).
float rho, ux, uy;
compute_rho_u(f, rho, ux, uy);
collide_mrt_no_force(f, rho, ux, uy,
fminf(OMEGA_COLLISION_MAX, fmaxf(OMEGA_COLLISION_MIN, d_params.omega)));
#else
// Match uniform SRT arithmetic, including its shifted equilibrium path. // Match uniform SRT arithmetic, including its shifted equilibrium path.
float rho, ux, uy, feq[NQ], forcing[NQ] = {}; float rho, ux, uy, feq[NQ], forcing[NQ] = {};
compute_rho_u(f, rho, ux, uy); compute_rho_u(f, rho, ux, uy);
compute_feq(rho, ux, uy, feq); compute_feq(rho, ux, uy, feq);
const float omega = fminf(OMEGA_COLLISION_MAX, fmaxf(OMEGA_COLLISION_MIN, d_params.omega)); const float omega = fminf(OMEGA_COLLISION_MAX, fmaxf(OMEGA_COLLISION_MIN, d_params.omega));
collide_srt(f, feq, forcing, omega); collide_srt(f, feq, forcing, omega);
#endif
} }
} }
stream_pull_store(k, f, out + base); stream_pull_store(k, f, out + base);
+15 -4
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@@ -7,16 +7,26 @@ import numpy as np
def summarize_exchange(rows, body_ids, aperture, *, body_id, level, h, def summarize_exchange(rows, body_ids, aperture, *, body_id, level, h,
time_end, window, reference_center): time_end, window, reference_center, duration=None):
"""Reduce FP64 interval integrals or convert FP32 last-substep raw rows. """Reduce FP64 interval integrals or convert FP32 last-substep raw rows.
dt_l=h_l under acoustic 2:1 refinement. Local momentum j -> base force dt_l=h_l under acoustic 2:1 refinement. Local momentum j -> base force
h*j -> impulse h*dt*j; torque adds one h; mass is h**2*dm. h*j -> impulse h*dt*j; torque adds one h; mass is h**2*dm.
window="window" reduces an FP64 observation-window ledger spanning
``duration`` (integer >= 1) base intervals; rates divide by that duration.
""" """
if window not in ("last_base_step", "last_substep"): if window not in ("last_base_step", "last_substep", "window"):
raise ValueError("unknown exchange window") raise ValueError("unknown exchange window")
if window == "window":
if isinstance(duration, bool) or not isinstance(duration, (int, np.integer)) or duration < 1:
raise ValueError("window duration must be an integer number of base intervals >= 1")
elif duration is not None:
raise ValueError("duration applies only to window='window'")
values = np.array(rows, dtype=np.float64, copy=True) values = np.array(rows, dtype=np.float64, copy=True)
duration = 1.0 if window == "last_base_step" else h if window == "window":
duration = float(duration)
else:
duration = 1.0 if window == "last_base_step" else h
if window == "last_substep": if window == "last_substep":
values *= np.array([h*h, h*h, h*h*h, h*h]) values *= np.array([h*h, h*h, h*h*h, h*h])
selected = np.asarray(body_ids) == body_id selected = np.asarray(body_ids) == body_id
@@ -31,6 +41,7 @@ def summarize_exchange(rows, body_ids, aperture, *, body_id, level, h,
return dict(wall=reduce(selected & ~aperture), aperture=reduce(selected & aperture), return dict(wall=reduce(selected & ~aperture), aperture=reduce(selected & aperture),
total=reduce(selected), body_id=int(body_id), level=int(level), total=reduce(selected), body_id=int(body_id), level=int(level),
time_start=time_end-duration, time_end=time_end, dt=h, time_start=time_end-duration, time_end=time_end, dt=h,
sample_count=round(1/h) if window == "last_base_step" else 1, sample_count=(round(duration/h) if window == "window"
else round(1/h) if window == "last_base_step" else 1),
window=window, units="base_lattice_per_unit_depth", window=window, units="base_lattice_per_unit_depth",
definition="raw_boundary_exchange", reference_center=tuple(reference_center), valid=True) definition="raw_boundary_exchange", reference_center=tuple(reference_center), valid=True)
+4 -4
View File
@@ -52,17 +52,17 @@ class FixedPatch2D:
def from_config(cls, cfg: LBMConfig, bounds) -> "FixedPatch2D": def from_config(cls, cfg: LBMConfig, bounds) -> "FixedPatch2D":
"""Prepare maps without changing cfg or allocating coarse-sized tables. """Prepare maps without changing cfg or allocating coarse-sized tables.
The initial backend contract is D2Q9/SRT/FP32/double_buffer, The backend contract is D2Q9/SRT or MRT/FP32/double_buffer,
without LES. Two coarse cells of margin keep all halo donors in bounds; without LES. Two coarse cells of margin keep all halo donors in bounds;
this does NOT certify that those donors are fluid or periodic. this does NOT certify that those donors are fluid or periodic.
""" """
checked = replace(cfg) checked = replace(cfg)
checked.validate() checked.validate()
if (not checked.is_d2q9 or checked.collision != "SRT" if (not checked.is_d2q9 or checked.collision not in ("SRT", "MRT")
or checked.streaming != "double_buffer" or checked.streaming != "double_buffer"
or checked.store_precision != "FP32" or checked.store_precision != "FP32"
or checked.les_enabled): or checked.les_enabled):
raise ValueError("FixedPatch2D requires D2Q9/SRT/FP32/double_buffer without LES") raise ValueError("FixedPatch2D requires D2Q9/SRT or MRT/FP32/double_buffer without LES")
bounds = tuple(bounds) bounds = tuple(bounds)
if len(bounds) != 4 or any(isinstance(v, (bool, np.bool_)) if len(bounds) != 4 or any(isinstance(v, (bool, np.bool_))
or not isinstance(v, Integral) for v in bounds): or not isinstance(v, Integral) for v in bounds):
@@ -451,7 +451,7 @@ def prepare_fine_boundary(cfg, patch, objects, *, wall_aware=False, jets=(),
checked = replace(cfg) checked = replace(cfg)
checked.validate() checked.validate()
if (patch.coarse_shape != (cfg.ny, cfg.nx) or not checked.is_d2q9 if (patch.coarse_shape != (cfg.ny, cfg.nx) or not checked.is_d2q9
or checked.collision != "SRT" or checked.streaming != "double_buffer" or checked.collision not in ("SRT", "MRT") or checked.streaming != "double_buffer"
or checked.store_precision != "FP32" or checked.les_enabled or checked.store_precision != "FP32" or checked.les_enabled
or patch.tau_coarse != 3*checked.viscosity+.5): or patch.tau_coarse != 3*checked.viscosity+.5):
raise ValueError("Fine boundary requires the matching fixed-patch configuration") raise ValueError("Fine boundary requires the matching fixed-patch configuration")
+93 -3
View File
@@ -22,7 +22,7 @@ from .block_stepper import MAX_GRID_DIM
from .hierarchy import build_hierarchy, is_rectangle from .hierarchy import build_hierarchy, is_rectangle
from .refinement import ACTIVE, HALO, FixedPatch2D, FixedPatchSet2D, prepare_fine_boundary from .refinement import ACTIVE, HALO, FixedPatch2D, FixedPatchSet2D, prepare_fine_boundary
from .refinement_tables import (blocked_base_tables, blocked_fine_tables, # noqa: F401 (re-export) from .refinement_tables import (blocked_base_tables, blocked_fine_tables, # noqa: F401 (re-export)
blocked_kind, _prepare_blocked_boundary, blocked_kind, projected_explosion_tables, _prepare_blocked_boundary,
BLOCKED_BOUNDARY_DEVICE_COLUMNS) BLOCKED_BOUNDARY_DEVICE_COLUMNS)
from .descriptors import SOLID from .descriptors import SOLID
from .raw_exchange import summarize_exchange from .raw_exchange import summarize_exchange
@@ -41,6 +41,8 @@ class _Pair:
n_ghosts: int n_ghosts: int
n_rows: int n_rows: int
parent_cells: int # parent block window cells (explode donor stride) parent_cells: int # parent block window cells (explode donor stride)
neighbors: object = None # projected-only owner-core cells; constant allocates neither
offsets: object = None
@dataclass @dataclass
@@ -172,6 +174,9 @@ class FixedPatchStepper:
base interval or last substep in base-lattice units per unit depth. This base interval or last substep in base-lattice units per unit depth. This
is boundary momentum reaction, not a validated nozzle/stress load. Dense is boundary momentum reaction, not a validated nozzle/stress load. Dense
body layouts are not supported by this new diagnostic in this candidate. body layouts are not supported by this new diagnostic in this candidate.
``observe_window_exchange=True`` (requires observe_raw_exchange) adds a second
per-link FP64 ledger accumulated by the same kernel between
start_exchange_window() and read_exchange_window(); disabled by default.
``jets`` (body.jets.Jet) use the same edge frame as ``fine_objects`` and ``jets`` (body.jets.Jet) use the same edge frame as ``fine_objects`` and
drive fine cut links selected at their true hits; ``set_jet_amplitude`` drive fine cut links selected at their true hits; ``set_jet_amplitude``
re-uploads the per-link velocity column only. re-uploads the per-link velocity column only.
@@ -203,6 +208,12 @@ class FixedPatchStepper:
halo -> BFL -> step four times per base step. Runtime child Jet changes halo -> BFL -> step four times per base step. Runtime child Jet changes
require ``set_jet_amplitude(index, amplitude, level=2)``. require ``set_jet_amplitude(index, amplitude, level=2)``.
``explosion="projected_linear"`` selects experimental transverse linear
reconstruction on each adjacent pair. Default "constant" is unchanged.
Projected mode requires periodic root, all-blocked SRT levels without
bodies/Jets or LES; this backend supplies no forcing. Geometry is generic,
but union/multilevel GPU and matched-physics qualification remain pending.
Level lists (any depth): ``refinements[l]`` gives level l+1 in level-l Level lists (any depth): ``refinements[l]`` gives level l+1 in level-l
integer cells (scalar window or rectangle list, see lbm.hierarchy); integer cells (scalar window or rectangle list, see lbm.hierarchy);
``level_blocks``/``level_objects``/``level_jets`` hold one entry per level, ``level_blocks``/``level_objects``/``level_jets`` hold one entry per level,
@@ -216,7 +227,7 @@ class FixedPatchStepper:
fine_block=None, base_block=None, jets=(), child=None, child_block=None, fine_block=None, base_block=None, jets=(), child=None, child_block=None,
child_objects=(), child_jets=(), child_rectangles_in_parent=None, child_objects=(), child_jets=(), child_rectangles_in_parent=None,
refinements=None, level_blocks=None, level_objects=None, level_jets=None, refinements=None, level_blocks=None, level_objects=None, level_jets=None,
observe_raw_exchange=False): observe_raw_exchange=False, observe_window_exchange=False, explosion="constant"):
if HALO != 4: if HALO != 4:
raise RuntimeError("refinement.cu requires a four-cell fine halo") raise RuntimeError("refinement.cu requires a four-cell fine halo")
if coarse_boundary not in ("periodic", "slot_reservoir", "channel"): if coarse_boundary not in ("periodic", "slot_reservoir", "channel"):
@@ -245,6 +256,15 @@ class FixedPatchStepper:
level_blocks = [None if b is None else tuple(b) for b in level_blocks] level_blocks = [None if b is None else tuple(b) for b in level_blocks]
_check_levels(refinements, level_blocks, level_objects, level_jets) _check_levels(refinements, level_blocks, level_objects, level_jets)
depth = len(refinements) + 1 depth = len(refinements) + 1
if explosion not in ("constant", "projected_linear"):
raise ValueError("explosion must be constant or projected_linear")
if explosion == "projected_linear" and (
coarse_boundary != "periodic" or any(b is None for b in level_blocks)
or any(level_objects) or any(level_jets)
or cfg.collision != "SRT" or cfg.les_enabled):
raise ValueError("projected explosion requires periodic all-blocked SRT levels "
"without bodies/Jets or LES")
self._explosion = explosion
self._ddf_shifting = bool(cfg.ddf_shifting) self._ddf_shifting = bool(cfg.ddf_shifting)
if self._ddf_shifting and any(b is None for b in level_blocks): if self._ddf_shifting and any(b is None for b in level_blocks):
raise ValueError("shifted populations require all-blocked levels; dense/mixed is unsupported") raise ValueError("shifted populations require all-blocked levels; dense/mixed is unsupported")
@@ -315,6 +335,13 @@ class FixedPatchStepper:
for b, layout in zip(self._boundary_hosts, self._layouts)): for b, layout in zip(self._boundary_hosts, self._layouts)):
raise ValueError("raw exchange currently requires blocked body levels") raise ValueError("raw exchange currently requires blocked body levels")
self._observe_raw_exchange = observe_raw_exchange self._observe_raw_exchange = observe_raw_exchange
if not isinstance(observe_window_exchange, bool):
raise ValueError("observe_window_exchange must be bool")
if observe_window_exchange and not observe_raw_exchange:
raise ValueError("observe_window_exchange requires observe_raw_exchange")
self._observe_window = observe_window_exchange
self._window_valid = False
self._window_start = None
self._exchange_valid = False self._exchange_valid = False
self._exchange_spacing = tuple(spacings) self._exchange_spacing = tuple(spacings)
self._exchange_centers = tuple(tuple(tuple(o.geometry.center) for o in objects) self._exchange_centers = tuple(tuple(tuple(o.geometry.center) for o in objects)
@@ -365,6 +392,8 @@ class FixedPatchStepper:
count = len(b.tables["cell"]) count = len(b.tables["cell"])
b.last_raw = self._allocate(count * 4 * 4) b.last_raw = self._allocate(count * 4 * 4)
b.interval_integral = self._allocate(count * 4 * 8) b.interval_integral = self._allocate(count * 4 * 8)
if self._observe_window:
b.window_integral = self._allocate(count * 4 * 8)
b.accumulate = level.module.get_function("BlockAccumulateExchange") b.accumulate = level.module.get_function("BlockAccumulateExchange")
b.kernel = level.module.get_function("BlockCurvedBoundary") b.kernel = level.module.get_function("BlockCurvedBoundary")
if self._level_boundaries[1] is not None: if self._level_boundaries[1] is not None:
@@ -467,6 +496,11 @@ class FixedPatchStepper:
self._upload(children), len(ghosts), len(targets), self._upload(children), len(ghosts), len(targets),
int(np.prod(pair.coarse_shape if parent.layout is None int(np.prod(pair.coarse_shape if parent.layout is None
else parent.layout.local_shape))) else parent.layout.local_shape)))
if self._explosion == "projected_linear":
neighbors, offsets = projected_explosion_tables(
pair, parent.layout, self.hierarchy.kinds[index])
result.explode = child.module.get_function("BlockExplodeProjected")
result.neighbors, result.offsets = self._upload(neighbors), self._upload(offsets)
if child.layout is not None: if child.layout is not None:
child.kind = self._upload(blocked_kind(child.layout, self.hierarchy.kinds[index + 1])) child.kind = self._upload(blocked_kind(child.layout, self.hierarchy.kinds[index + 1]))
if index == 0 and base is not None: if index == 0 and base is not None:
@@ -559,6 +593,7 @@ class FixedPatchStepper:
cuda.memset_d8(self._fine_curved.link_exchange_gpu, 0, self._fine_curved.count * 12) cuda.memset_d8(self._fine_curved.link_exchange_gpu, 0, self._fine_curved.count * 12)
self._step_count = 0 self._step_count = 0
self._exchange_valid = False self._exchange_valid = False
self._window_valid = False
self._status = "ready" self._status = "ready"
except BaseException: except BaseException:
self._status = "failed" self._status = "failed"
@@ -639,7 +674,8 @@ class FixedPatchStepper:
fine_block=fine_block, child_block=child_block, fine_block=fine_block, child_block=child_block,
child_rectangles_in_parent=new.child.bounds, child_rectangles_in_parent=new.child.bounds,
child_objects=child_objects, child_jets=jets, child_objects=child_objects, child_jets=jets,
observe_raw_exchange=self._observe_raw_exchange) observe_raw_exchange=self._observe_raw_exchange,
observe_window_exchange=self._observe_window, explosion=self._explosion)
try: try:
if self._ddf_shifting: if self._ddf_shifting:
candidate._initialize_raw(_StoredPopulations(transferred.g, transferred.shifted)) candidate._initialize_raw(_StoredPopulations(transferred.g, transferred.shifted))
@@ -732,6 +768,7 @@ class FixedPatchStepper:
pair, level = self._pairs[index - 1], self._levels[index] pair, level = self._pairs[index - 1], self._levels[index]
pair.explode(parent_buffer, level.current, pair.ghosts, pair.donors, np.uint32(pair.n_ghosts), pair.explode(parent_buffer, level.current, pair.ghosts, pair.donors, np.uint32(pair.n_ghosts),
np.uint64(pair.parent_cells), np.uint64(pair.parent_cells),
*((pair.neighbors, pair.offsets) if pair.neighbors is not None else ()),
grid=((pair.n_ghosts + self._block[0] - 1) // self._block[0], 1), **kw) grid=((pair.n_ghosts + self._block[0] - 1) // self._block[0], 1), **kw)
self._hop(index, level.current, level.spare, **kw) self._hop(index, level.current, level.spare, **kw)
self._hop(index, level.spare, level.current, **kw) self._hop(index, level.spare, level.current, **kw)
@@ -771,6 +808,10 @@ class FixedPatchStepper:
b.accumulate(b.last_raw, b.interval_integral, np.uint32(count), b.accumulate(b.last_raw, b.interval_integral, np.uint32(count),
np.float64(h), np.float64(h), np.float64(h), np.float64(h),
grid=((count + self._block[0] - 1) // self._block[0], 1), **kw) grid=((count + self._block[0] - 1) // self._block[0], 1), **kw)
if self._window_valid and b.window_integral is not None:
b.accumulate(b.last_raw, b.window_integral, np.uint32(count),
np.float64(h), np.float64(h),
grid=((count + self._block[0] - 1) // self._block[0], 1), **kw)
flags = np.uintp(0) if level.boundary is None else level.boundary.flags flags = np.uintp(0) if level.boundary is None else level.boundary.flags
level.kernel(src, dst, np.uint32(level.layout.halo), flags, level.kind, grid=level.grid, **kw) level.kernel(src, dst, np.uint32(level.layout.halo), flags, level.kind, grid=level.grid, **kw)
@@ -804,9 +845,57 @@ class FixedPatchStepper:
self._exchange_valid = self._observe_raw_exchange self._exchange_valid = self._observe_raw_exchange
self._status = "ready" self._status = "ready"
except BaseException: except BaseException:
self._window_valid = False
self._status = "failed" self._status = "failed"
raise raise
def start_exchange_window(self):
"""Zero the window ledgers and open a window at the current completed step count."""
with self._lock, self.ctx.activate():
self._require("ready")
if not self._observe_window:
raise RuntimeError("window exchange observation is disabled")
self._window_valid = False
try:
for b in self._level_boundaries:
if b is not None and b.window_integral is not None:
cuda.memset_d8(b.window_integral, 0, len(b.tables["cell"]) * 32)
except BaseException:
self._status = "failed"
raise
self._window_start = self._step_count
self._window_valid = True
def read_exchange_window(self, body_id, *, level=1):
"""Non-destructive read of [window start, current step count] in base-lattice units."""
with self._lock, self.ctx.activate():
self._require("ready")
if not self._observe_window:
raise RuntimeError("window exchange observation is disabled")
if not self._window_valid:
raise RuntimeError("no valid exchange window; call start_exchange_window()")
duration = self._step_count - self._window_start
if duration < 1:
raise RuntimeError("exchange window requires at least one completed base interval")
if (isinstance(level, bool) or not isinstance(level, Integral)
or not 0 <= level < len(self._levels)):
raise ValueError("level must name an existing level")
b = self._level_boundaries[level]
if (b is None or isinstance(body_id, bool) or not isinstance(body_id, Integral)
or not 0 <= body_id < len(b.host.objects)):
raise ValueError("body_id must name a body on this level")
rows = np.empty((len(b.tables["cell"]), 4), np.float64)
try:
cuda.memcpy_dtoh(rows, b.window_integral)
except BaseException:
self._status = "failed"
raise
return summarize_exchange(rows, b.tables["body_id"], b.tables["aperture"],
body_id=body_id, level=level, h=self._exchange_spacing[level],
time_end=self._step_count, window="window",
reference_center=self._exchange_centers[level][body_id],
duration=duration)
def read_raw_exchange(self, body_id, *, level=1, window="last_base_step"): def read_raw_exchange(self, body_id, *, level=1, window="last_base_step"):
"""Read raw boundary reaction about its geometric center in the root edge frame. """Read raw boundary reaction about its geometric center in the root edge frame.
@@ -885,6 +974,7 @@ class FixedPatchStepper:
if b is not None: if b is not None:
b.flags = b.device = b.kernel = None b.flags = b.device = b.kernel = None
b.last_raw = b.interval_integral = b.accumulate = None b.last_raw = b.interval_integral = b.accumulate = None
b.window_integral = None
self._levels.clear() self._levels.clear()
self._pairs = [] self._pairs = []
if getattr(self, "_fine_curved", None) is not None: if getattr(self, "_fine_curved", None) is not None:
+45
View File
@@ -66,6 +66,50 @@ def blocked_base_tables(patch, layout, order, wall_aware=False, *, composed_kind
blocked_kind(layout, dense_kind)) blocked_kind(layout, dense_kind))
def projected_explosion_tables(pair, parent_layout, composed_parent_kind):
"""Experimental transverse linear explosion, in the pair's existing row order.
Schornbaum & Rüde (2016), arXiv:1508.07982, Algorithm 2, following
Chen et al., doi:10.1016/j.physa.2005.09.036. Independently implemented
from the mathematics: centered gradients, perpendicular projection and
child offsets +/-1/4. The kernel applies the projection per population.
Only original explosion donors that are owned, uncovered ACTIVE cells
may supply gradients. Both axis neighbors must be legal; otherwise repeat
the center twice for zero slope. Owner-core addresses avoid stale halos.
The same rule applies to scalar windows, unions and every adjacent pair;
nested layouts retain their own per-axis (usually nonperiodic) topology.
"""
ny, nx = pair.coarse_shape
kind = np.asarray(composed_parent_kind)
if parent_layout.shape != pair.coarse_shape or kind.shape != pair.coarse_shape:
raise ValueError("projected explosion parent layout/kind has the wrong shape")
donor = pair.ghost_coarse.astype(np.intp)
legal = np.zeros(ny * nx, bool)
legal[donor] = True
legal &= (parent_layout.owned.ravel() & ~pair.covered.ravel()
& (kind.ravel() == ACTIVE))
if not legal[donor].all():
raise ValueError("projected explosion donors need owned uncovered parent ACTIVE cells")
y, x = np.divmod(donor, nx)
neighbors = np.repeat(donor[:, None], 4, axis=1)
for axis, (dx, dy) in enumerate(((1, 0), (0, 1))):
minus = ((y - dy) % ny) * nx + (x - dx) % nx
plus = ((y + dy) % ny) * nx + (x + dx) % nx
valid = legal[minus] & legal[plus]
if not parent_layout.periodic[axis]:
coordinate, extent = (x, nx) if axis == 0 else (y, ny)
valid &= (coordinate > 0) & (coordinate < extent - 1)
neighbors[valid, 2 * axis] = minus[valid]
neighbors[valid, 2 * axis + 1] = plus[valid]
fy, fx = np.divmod(pair.ghost_fine, pair.fine_shape[1])
ox, oy = pair.fine_origin
offsets = np.column_stack((ox + (fx + .5) / 2 - (x + .5),
oy + (fy + .5) / 2 - (y + .5)))
return (np.ascontiguousarray(parent_layout.owner.ravel()[neighbors], dtype=np.uint64),
np.ascontiguousarray(offsets, dtype=np.float32))
# Required device columns plus optional actuation; observation arms are uploaded # Required device columns plus optional actuation; observation arms are uploaded
# separately only when enabled. body_id/aperture remain host reduction metadata. # separately only when enabled. body_id/aperture remain host reduction metadata.
BLOCKED_BOUNDARY_DEVICE_COLUMNS = ("block", "cell", "dir", "q", "fallback", "surface_velocity") BLOCKED_BOUNDARY_DEVICE_COLUMNS = ("block", "cell", "dir", "q", "fallback", "surface_velocity")
@@ -85,6 +129,7 @@ class _BlockedBoundary:
last_raw: object = None last_raw: object = None
interval_integral: object = None interval_integral: object = None
accumulate: object = None accumulate: object = None
window_integral: object = None # optional observation-window FP64 ledger
def _prepare_blocked_boundary(boundary, layout, cfg, jets, *, _shifted_blocked=False): def _prepare_blocked_boundary(boundary, layout, cfg, jets, *, _shifted_blocked=False):
+8 -3
View File
@@ -65,9 +65,14 @@ def test_shifted_topology_add_remove_preserves_cache_and_finite_flow(streaming,p
assert np.max(macro['rho'][fluid]) < 1.5 assert np.max(macro['rho'][fluid]) < 1.5
@pytest.mark.parametrize('streaming',['double_buffer','esopull']) @pytest.mark.parametrize('collision,streaming', [
def test_checkpoint_exact_continuation_and_controls(streaming,tmp_path): pytest.param('SRT', 'double_buffer', id='double_buffer'),
with make_sim(nx=48,ny=24,streaming=streaming,shifted=True) as sim: pytest.param('SRT', 'esopull', id='esopull'),
pytest.param('TRT', 'double_buffer', id='trt-double_buffer'),
])
def test_checkpoint_exact_continuation_and_controls(collision,streaming,tmp_path):
# Same collision throughout save/load/continue; this is not a method-switch restart.
with make_sim(nx=48,ny=24,streaming=streaming,shifted=True,collision=collision) as sim:
sim.add_body('circle',center=(14,12),radius=3) sim.add_body('circle',center=(14,12),radius=3)
sim.add_body('force_region',center=(30,12),radius=2) sim.add_body('force_region',center=(30,12),radius=2)
sim.initialize() sim.initialize()
+52 -23
View File
@@ -41,45 +41,74 @@ class GuardTests(unittest.TestCase):
with self.assertRaisesRegex(RuntimeError, "velocity/profile"): with self.assertRaisesRegex(RuntimeError, "velocity/profile"):
decode_macros(invalid, w, cx, cy) decode_macros(invalid, w, cx, cy)
def test_baseline_pins(self): def test_current_corrected_pins(self):
self.assertEqual( self.assertEqual(
source_guard(ROOT, "baseline")["base_commit"], source_guard(ROOT, "corrected", "a135252")["base_commit"],
"cd3a657f9d3833e812c3cca173525f165b48710a", "a135252ae78b47b57d7e77d19001700b3bedac8b",
) )
def test_corrected_and_tamper_guard(self): def test_corrected_and_tamper_guard(self):
pins = json.loads((HERE / "data/les_flow/source_pins.json").read_text()) pins = json.loads((HERE / "data/les_flow/source_pins_a135252.json").read_text())
with TemporaryDirectory() as directory: with TemporaryDirectory() as directory:
root = Path(directory) root = Path(directory)
for name in pins["sources"]: for name in pins["sources"]:
dest = root / name dest = root / name
dest.parent.mkdir(parents=True, exist_ok=True) dest.parent.mkdir(parents=True, exist_ok=True)
shutil.copyfile(ROOT / name, dest) shutil.copyfile(ROOT / name, dest)
# Rebuild the reviewed candidate from actual pinned headers, not fixtures.
candidate = root / "header_candidate"
subprocess.run(
[
sys.executable,
str(HERE / "les/prepare.py"),
"--repo",
str(ROOT),
"--output-dir",
str(candidate),
],
check=True,
)
shutil.copyfile(candidate / "patched" / HEADER, root / HEADER)
with patch( with patch(
"run_uniform_les_flow.subprocess.check_output", "run_uniform_les_flow.subprocess.check_output",
return_value="isolated-fixture\n", return_value="isolated-fixture\n",
): ):
source_guard(root, "corrected") source_guard(root, "corrected", "a135252")
with self.assertRaisesRegex(RuntimeError, "Source pin mismatch"): with self.assertRaisesRegex(RuntimeError, "Source pin mismatch"):
source_guard(root, "baseline") source_guard(root, "baseline", "a135252")
target = root / "src/CelerisLab/lbm/kernels/step/one_step_double.cu" for name in ("kernels/step/one_step_double.cu", "kernels/blocks.cu",
target.write_bytes(target.read_bytes() + b"\n// tamper\n") "refinement_stepper.py", "refinement_tables.py"):
target = root / "src/CelerisLab/lbm" / name
original = target.read_bytes()
target.write_bytes(original + b"\n// tamper\n")
with self.assertRaisesRegex(RuntimeError, "Source pin mismatch"):
source_guard(root, "corrected", "a135252")
target.write_bytes(original)
def test_historical_default_and_manifest_unchanged(self):
historical = {
"historical": ("source_pins.json", "87ca033619da1fc02bee822bfc5681b518a92a155c3c3d1dbbe5265c96066b39"),
"dev8403956": ("source_pins_dev8403956.json", "58187908485f2af7c78677d53de98015878372444265ce9e667683b8ef5d410f"),
}
for experiment, (name, expected) in historical.items():
manifest = HERE / "data/les_flow" / name
self.assertEqual(hashlib.sha256(manifest.read_bytes()).hexdigest(), expected)
for variant in ("baseline", "corrected"):
with self.assertRaisesRegex(RuntimeError, "Source pin mismatch"): with self.assertRaisesRegex(RuntimeError, "Source pin mismatch"):
source_guard(root, "corrected") source_guard(ROOT, variant, experiment)
with self.assertRaisesRegex(RuntimeError, "Source pin mismatch"):
source_guard(ROOT, "corrected") # Omission still uses the historical profile.
def test_current_manifest_pins_actual_corrected_tree(self):
pins = json.loads((HERE / "data/les_flow/source_pins_a135252.json").read_text())
tracked = subprocess.check_output(["git", "-C", str(ROOT), "ls-files", "src"], text=True)
self.assertEqual(set(pins["sources"]), set(tracked.splitlines()))
for name, expected in pins["sources"].items():
self.assertEqual(hashlib.sha256((ROOT / name).read_bytes()).hexdigest(), expected)
self.assertEqual(pins["sources"][HEADER], pins["candidate_header_sha256"])
self.assertNotEqual(pins["sources"][HEADER], pins["baseline_header_sha256"])
with self.assertRaisesRegex(RuntimeError, "Source pin mismatch"):
source_guard(ROOT, "baseline", "a135252")
def test_named_baseline_accepts_only_reversed_header(self):
pins = json.loads((HERE / "data/les_flow/source_pins_a135252.json").read_text())
with TemporaryDirectory() as directory:
root = Path(directory)
for name in pins["sources"]:
dest = root / name
dest.parent.mkdir(parents=True, exist_ok=True)
shutil.copyfile(ROOT / name, dest)
subprocess.run(["git", "apply", "--reverse", str(HERE / "les/data/smagorinsky_normalization.patch")], cwd=root, check=True)
with patch("run_uniform_les_flow.subprocess.check_output", return_value="baseline-fixture\n"):
source_guard(root, "baseline", "a135252")
with self.assertRaisesRegex(RuntimeError, "Source pin mismatch"):
source_guard(root, "corrected", "a135252")
def test_gpu_requires_opt_in_before_import(self): def test_gpu_requires_opt_in_before_import(self):
with TemporaryDirectory() as directory: with TemporaryDirectory() as directory:
+394
View File
@@ -0,0 +1,394 @@
"""CPU stencil and actual closed-interface packet budgets; no CUDA claims."""
import numpy as np
import unittest
from pathlib import Path
from dataclasses import replace
import shutil
import subprocess
import tempfile
from CelerisLab.config import LBMConfig
from CelerisLab.lbm.blocks import BlockLayout2D
from CelerisLab.lbm.descriptors import D2Q9_EX, D2Q9_EY
from CelerisLab.lbm.refinement import FixedPatch2D, FixedPatchSet2D, ACTIVE, OUTER_GHOST
from CelerisLab.lbm.refinement_tables import projected_explosion_tables
from CelerisLab.lbm.hierarchy import build_hierarchy
from tests.unit.test_hierarchy import CFG, FOUR
E = np.array([D2Q9_EX, D2Q9_EY]).T
W = np.array([4/9] + [1/9]*4 + [1/36]*4)
def setup(union=False, bounds=(4, 4, 12, 12)):
cfg = LBMConfig(nx=16, ny=16, viscosity=.1)
p = (FixedPatchSet2D.from_config(cfg, [bounds]) if union else
FixedPatch2D.from_config(cfg, bounds))
layout = BlockLayout2D.build(16, 16, 4, 4, periodic=(True, True))
neighbors, offsets = projected_explosion_tables(p, layout, np.where(p.covered, OUTER_GHOST, ACTIVE))
inverse = np.full(layout.nblocks * np.prod(layout.local_shape), -1, dtype=int)
inverse[layout.owner.ravel()] = np.arange(256)
return p, inverse[neighbors], offsets
def reconstruct(c, p, neighbors, offsets, project=True):
# Independent NumPy evaluation of the documented stencil; neighbors have
# been decoded from actual blocked owner IDs, not recomputed geometry.
values = c.reshape(9, -1)[:, neighbors]
g = .5 * (values[:, :, 1::2] - values[:, :, ::2])
if project:
g[1:] -= (np.einsum('qra,qa->qr', g[1:], E[1:]) /
np.sum(E[1:]**2, axis=1)[:, None])[:, :, None] * E[1:, None, :]
out = c.reshape(9, -1)[:, p.ghost_coarse] + np.einsum('qra,ra->qr', g, offsets)
return out, g
def check_legal_footprint_mean_and_characteristic(union, bounds):
p, neighbors, offsets = setup(union, bounds)
assert set(neighbors.ravel()) <= set(p.ghost_coarse)
assert not p.covered.ravel()[neighbors].any()
assert (neighbors >= 0).all()
c = np.random.default_rng(72).normal(size=(9,16,16))
c[:, p.covered] = np.nan # poison every forbidden donor
out, g = reconstruct(c, p, neighbors, offsets)
assert np.isfinite(out).all()
np.testing.assert_allclose(np.einsum('qra,qa->qr', g, E), 0, atol=5e-16)
for d in np.unique(p.ghost_coarse):
rows = p.ghost_coarse == d
assert rows.sum() == 4
np.testing.assert_allclose(out[:, rows].mean(axis=1), c.reshape(9,-1)[:,d], atol=5e-16)
for q in range(1,9):
delta = offsets[rows, None, :] - offsets[None, rows, :]
# Parallel displacements have zero 2D cross product.
parallel = np.isclose(delta[...,0]*E[q,1]-delta[...,1]*E[q,0], 0)
diff = out[q, rows][:,None]-out[q, rows][None,:]
np.testing.assert_allclose(diff[parallel], 0, atol=5e-16)
const = np.broadcast_to(W[:,None,None], (9,16,16)).copy()
constant, _ = reconstruct(const,p,neighbors,offsets)
np.testing.assert_array_equal(constant, np.broadcast_to(W[:,None], constant.shape))
def collide(f, tau):
rho = f.sum(axis=0)
u = np.einsum('qa,q...->a...', E, f) / rho
cu = np.einsum('qa,a...->q...', E, u)
eq = W[:,None] * rho * (1 + 3*cu + 4.5*cu**2 - 1.5*np.sum(u*u,axis=0))
return f + (eq-f)/tau
def totals(c, f, p):
q = c[:,~p.covered].sum(axis=1)+.25*f[:,p.fine_kind==ACTIVE].sum(axis=1)
return np.r_[q.sum(), E.T@q]
def check_full_two_hop_closed_corner_budget(union, collision, bounds):
p, neighbors, offsets = setup(union,bounds)
rng=np.random.default_rng(17)
c=W[:,None,None]*(1+rng.normal(0,.002,(9,16,16)))
f=W[:,None,None]*(1+rng.normal(0,.002,(9,*p.fine_shape)))
start=totals(c,f,p)
# Count exactly the eight coarse diagonal links whose source is also
# uncovered, but whose midpoint lies on the closed rectangular interface.
q, k=np.divmod(p.coalesce_coarse.astype(np.int64),256)
y,x=np.divmod(k,16)
grazing=~p.covered[y-E[q,1],x-E[q,0]]
assert grazing.sum()==8
c[:,p.covered]=np.nan
for _ in range(8):
f.reshape(9,-1)[:,p.ghost_fine]=reconstruct(c,p,neighbors,offsets)[0]
for _ in range(2):
f=np.array([np.roll(f[q],(ey,ex),(0,1)) for q,(ex,ey) in enumerate(E)])
f[:,p.fine_kind==OUTER_GHOST]=np.nan
if collision:
f[:,p.fine_kind==ACTIVE]=collide(f[:,p.fine_kind==ACTIVE],p.tau_fine)
out=np.array([np.roll(c[q],(ey,ex),(0,1)) for q,(ex,ey) in enumerate(E)])
packets=f.reshape(-1)[p.coalesce_fine].mean(axis=1)
assert np.isfinite(packets[grazing]).all()
out.reshape(-1)[p.coalesce_coarse]=packets
if collision:out[:,~p.covered]=collide(out[:,~p.covered],p.tau_coarse)
out[:,p.covered]=np.nan
c=out
np.testing.assert_allclose(totals(c,f,p),start,rtol=0,atol=2e-12)
def check_projection_is_distinguished_by_characteristic_not_global_mass():
p,n,o=setup()
c=np.random.default_rng(8).normal(size=(9,16,16))
_,g=reconstruct(c,p,n,o,project=False)
assert np.max(abs(np.einsum('qra,qa->qr',g,E))) > .1
class ProjectedExplosionTests(unittest.TestCase):
def test_stencil(self):
for union in (False, True):
for bounds in ((4,4,12,12),(2,3,9,10),(2,2,3,3)):
with self.subTest(union=union,bounds=bounds):
check_legal_footprint_mean_and_characteristic(union,bounds)
def test_closed_interface(self):
for union in (False,True):
for collision in (False,True):
for bounds in ((4,4,12,12),(2,3,14,12),(2,2,3,3)):
with self.subTest(union=union,collision=collision,bounds=bounds):
check_full_two_hop_closed_corner_budget(union,collision,bounds)
def test_projection(self):
check_projection_is_distinguished_by_characteristic_not_global_mass()
def test_affine_and_shift_invariance(self):
p,n,o=setup()
y,x=np.indices((16,16))
c=np.array([.7+q*.01+x*.03+y*.05 for q in range(9)])
out,g=reconstruct(c,p,n,o)
available=n[:,::2]!=n[:,1::2]
gradient=np.array([.03,.05])*available
expected=np.broadcast_to(gradient,(9,*gradient.shape)).copy()
expected[1:]-=(np.einsum('qra,qa->qr',expected[1:],E[1:])/
np.sum(E[1:]**2,axis=1)[:,None])[:,:,None]*E[1:,None,:]
np.testing.assert_allclose(g,expected,atol=2e-16)
shifted,_=reconstruct(c-W[:,None,None],p,n,o)
np.testing.assert_allclose(out-W[:,None],shifted,atol=5e-16)
class ProjectedKernelTests(unittest.TestCase):
@unittest.skipUnless(shutil.which("g++"), "g++ is required for actual-kernel CPU arithmetic")
def test_actual_kernel_fp32_shifted_and_unshifted(self):
p, neighbors, offsets = setup(True)
parent = BlockLayout2D.build(16,16,4,4,periodic=(True,True))
child = p.fine_layout((8,4)) # deliberately unequal parent/child strides
ids, offsets = projected_explosion_tables(p,parent,np.where(p.covered,OUTER_GHOST,ACTIVE))
cells = int(np.prod(parent.local_shape))
targets = child.owner.ravel()[p.ghost_fine]
donors = parent.owner.ravel()[p.ghost_coarse]
source = (Path(__file__).resolve().parents[2] /
"src/CelerisLab/lbm/kernels/blocks.cu").read_text()
kernel = source.split('extern "C" __global__ void BlockExplodeProjected(',1)[1]
kernel = 'void BlockExplodeProjected(' + kernel.split('// Targets are receiver-local SOURCE slots',1)[0]
def array(name, values, kind):
v = np.asarray(values).ravel()
text = ','.join(str(int(x)) if kind=='uint64_t' else float(x).hex()+'f' for x in v)
return f"{kind} {name}[] = {{{text}}};\n"
for shifted in (False,True):
c=np.random.default_rng(11).normal(0,.001,(9,16,16))
if not shifted:c+=W[:,None,None]
c=c.astype(np.float32)
packed=np.full(parent.nblocks*9*cells,np.nan,np.float32)
for q in range(9):packed[parent.slot(parent.owner.ravel(),q)]=c[q].ravel()
# All halo/covered inputs are poisoned; kernel must use legal cores.
for q in range(9):packed[parent.slot(parent.owner.ravel()[p.covered.ravel()],q)]=np.nan
# Hex initializer needs a portable expression for poisoned NaNs.
data=array('coarse',packed,'float').replace('nanf','NAN')
code = '#include <cstdint>\n#include <cmath>\n#include <cstdio>\nusing fpxx=float;\n'
code += f'constexpr unsigned NQ=9, TOTAL_CELLS={int(np.prod(child.local_shape))};\n'
code += 'struct Id {unsigned x;}; Id blockIdx{0},blockDim{1},threadIdx{0};\n'
code += 'unsigned index_f(unsigned k,unsigned q){return q*TOTAL_CELLS+k;}\n'
code += 'int d_cx[]={0,1,-1,0,0,1,-1,1,-1},d_cy[]={0,0,0,1,-1,1,-1,-1,1};\n'+kernel
code += data+array('target',targets,'uint64_t')+array('donor',donors,'uint64_t')
code += array('neighbor',ids,'uint64_t')+array('offset',offsets,'float')
code += f'float fine[{child.nblocks*9*int(np.prod(child.local_shape))}]={{}};\n'
code += f'int main(){{for(unsigned r=0;r<{len(targets)};++r){{threadIdx.x=r;BlockExplodeProjected(coarse,fine,target,donor,{len(targets)},{cells},neighbor,offset);}}'
code += f'for(unsigned q=0;q<9;++q)for(unsigned r=0;r<{len(targets)};++r){{auto t=target[r];printf("%.9g\\n",fine[(t/TOTAL_CELLS)*9*TOTAL_CELLS+q*TOTAL_CELLS+t%TOTAL_CELLS]);}}}}'
with tempfile.TemporaryDirectory() as folder:
src=Path(folder)/'kernel.cpp'; binary=Path(folder)/'kernel'
src.write_text(code)
subprocess.run(['g++','-std=c++17','-O2',str(src),'-o',str(binary)],check=True,capture_output=True)
result=np.fromstring(subprocess.check_output([str(binary)],text=True),sep=' ').reshape(9,-1)
expected,_=reconstruct(c.astype(float),p,neighbors,offsets)
np.testing.assert_allclose(result,expected,atol=6e-8,rtol=2e-7)
UNIONS = [
[(8, 8, 24, 20)],
[(8, 8, 16, 20), (16, 8, 24, 20)], # abutting
[(8, 8, 18, 20), (14, 8, 24, 20)], # overlap
[(8, 8, 16, 20), (17, 8, 24, 20)], # gap 1
[(8, 8, 16, 20), (18, 8, 24, 20)], # gap 2
[(8, 8, 16, 20), (19, 8, 24, 20)], # gap 3
[(8, 8, 20, 14), (8, 14, 14, 22)], # L concavity
[(4, 4, 10, 10), (18, 16, 26, 26)], # separated
[(4, 4, 5, 7), (4, 5, 7, 7)], # known concave exit/re-entry path
]
def decode(layout, neighbors):
inverse = np.full(layout.hole, -1, dtype=int)
inverse[layout.owner[layout.owned]] = np.flatnonzero(layout.owned)
return inverse[neighbors]
def check_pair_stencil(pair, layout, kind):
ids, offsets = projected_explosion_tables(pair, layout, kind)
neighbors = decode(layout, ids)
legal = set(map(int, pair.ghost_coarse))
assert len(np.unique(pair.ghost_fine)) == len(pair.ghost_fine)
assert set(neighbors.ravel()) <= legal
assert layout.owned.ravel()[neighbors].all()
assert (kind.ravel()[neighbors] == ACTIVE).all()
assert not pair.covered.ravel()[neighbors].any()
ny, nx = pair.coarse_shape
for row, donor in enumerate(pair.ghost_coarse):
y, x = divmod(int(donor), nx)
for axis, (dx, dy) in enumerate(((1, 0), (0, 1))):
ends = [(x - dx, y - dy), (x + dx, y + dy)]
expected = []
for xx, yy in ends:
outside = not (0 <= xx < nx and 0 <= yy < ny)
if outside and not layout.periodic[axis]:
break
cell = (yy % ny) * nx + xx % nx
if cell not in legal:
break
expected.append(cell)
if len(expected) != 2:
expected = [int(donor)] * 2
np.testing.assert_array_equal(neighbors[row, 2*axis:2*axis+2], expected)
fy, fx = divmod(int(pair.ghost_fine[row]), pair.fine_shape[1])
expected = [pair.fine_origin[0]+(fx+.5)/2-(x+.5),
pair.fine_origin[1]+(fy+.5)/2-(y+.5)]
np.testing.assert_array_equal(offsets[row], expected)
assert set(offsets.ravel()) == {-.25, .25}
assert ids.dtype == np.uint64 and ids.flags.c_contiguous
assert offsets.dtype == np.float32 and offsets.flags.c_contiguous
return neighbors, offsets
class GenericProjectedPairs(unittest.TestCase):
def test_single_window_and_singleton_union_exact_stencils(self):
for bounds in ((4,4,12,12), (2,3,9,10), (2,2,3,3)):
a, an, ao = setup(False, bounds)
b, bn, bo = setup(True, bounds)
np.testing.assert_array_equal(a.ghost_coarse, b.ghost_coarse)
np.testing.assert_array_equal(an, bn)
np.testing.assert_array_equal(ao, bo)
# Coordinates differ between scalar and union arrays; physical rows don't.
ay, ax = np.divmod(a.ghost_fine, a.fine_shape[1])
by, bx = np.divmod(b.ghost_fine, b.fine_shape[1])
np.testing.assert_array_equal(ax + 2*a.fine_origin[0], bx)
np.testing.assert_array_equal(ay + 2*a.fine_origin[1], by)
def test_union_decomposition_permutation_and_topologies(self):
cfg = LBMConfig(nx=30, ny=30, viscosity=.1)
layout = BlockLayout2D.build(30,30,6,5,periodic=(True,True))
stencils = []
for rectangles in UNIONS:
pair = FixedPatchSet2D.from_config(cfg, rectangles)
kind = np.where(pair.covered, OUTER_GHOST, ACTIVE)
n, o = check_pair_stencil(pair, layout, kind)
other = FixedPatchSet2D.from_config(cfg, rectangles[::-1])
on, oo = projected_explosion_tables(other, layout, kind)
np.testing.assert_array_equal(n, decode(layout, on))
np.testing.assert_array_equal(o, oo)
stencils.append((pair.ghost_fine, pair.ghost_coarse, n, o))
c = np.random.default_rng(92).normal(size=(9,30,30))
c[:, pair.covered] = np.nan
values, gradients = reconstruct(c, pair, n, o)
self.assertTrue(np.isfinite(values).all())
np.testing.assert_allclose(np.einsum('qra,qa->qr', gradients, E),0,atol=1e-15)
# q0 keeps its full gradient; no division by zero or forced zero.
expected_q0 = .5*(c[0].ravel()[n[:,1::2]]-c[0].ravel()[n[:,::2]])
np.testing.assert_array_equal(gradients[0], expected_q0)
self.assertGreater(np.max(abs(gradients[0])), .1)
for donor in np.unique(pair.ghost_coarse):
rows = pair.ghost_coarse == donor
self.assertEqual(rows.sum(),4)
np.testing.assert_allclose(values[:,rows].mean(axis=1),c.reshape(9,-1)[:,donor],atol=1e-15)
for q in range(1,9):
delta = o[rows,None,:]-o[None,rows,:]
parallel = delta[...,0]*E[q,1] == delta[...,1]*E[q,0]
diff = values[q,rows][:,None]-values[q,rows][None,:]
np.testing.assert_allclose(diff[parallel],0,atol=1e-15)
for split in stencils[1:3]:
for expected, actual in zip(stencils[0],split):
np.testing.assert_array_equal(actual,expected)
def test_nested_scalar_origins_sparse_holes_and_unequal_strides(self):
cases = [(CFG, FOUR), (LBMConfig(nx=16,ny=16,viscosity=.02),
[(4,4,12,12),(8,8,16,16),(8,8,16,16)])]
for cfg, refs in cases:
hierarchy = build_hierarchy(cfg,refs)
for index,pair in enumerate(hierarchy.pairs):
if index == 0:
layout = BlockLayout2D.build(cfg.ny,cfg.nx,4,4,periodic=(True,True))
else:
prior = hierarchy.pairs[index-1]
layout = (prior.fine_layout((4,8)) if isinstance(prior,FixedPatchSet2D)
else BlockLayout2D.build(*prior.fine_shape,4,8,periodic=(False,False)))
kind = hierarchy.kinds[index]
n,o = check_pair_stencil(pair,layout,kind)
c = np.random.default_rng(index).normal(size=(9,*pair.coarse_shape))
c[:,~layout.owned | (kind != ACTIVE)] = np.nan
self.assertTrue(np.isfinite(reconstruct(c,pair,n,o)[0]).all())
if index and isinstance(pair,FixedPatchSet2D):
self.assertTrue((~layout.owned).any())
self.assertEqual(layout.periodic, (index == 0, index == 0))
def test_periodicity_is_per_axis_and_missing_pairs_repeat_center(self):
cfg=LBMConfig(nx=16,ny=16,viscosity=.1)
p=FixedPatch2D.from_config(cfg,(2,2,14,14))
kind=np.where(p.covered,OUTER_GHOST,ACTIVE)
results=[]
for periodic in ((False,False),(True,False),(False,True),(True,True)):
layout=BlockLayout2D.build(16,16,4,4,periodic=periodic)
n,_=check_pair_stencil(p,layout,kind)
results.append(n)
y,x=np.divmod(p.ghost_coarse,16)
for axis,coordinate in enumerate((x,y)):
edge=(coordinate==0)|(coordinate==15)
if not periodic[axis]:
np.testing.assert_array_equal(n[edge,2*axis:2*axis+2],
np.repeat(p.ghost_coarse[edge,None],2,axis=1))
self.assertTrue((results[0]!=results[1]).any())
self.assertTrue((results[0]!=results[2]).any())
self.assertTrue((results[1]!=results[3]).any())
def test_invalid_parent_donors_reject_before_owner_lookup(self):
p,_,_=setup()
layout=BlockLayout2D.build(16,16,4,4)
kind=np.where(p.covered,OUTER_GHOST,ACTIVE)
for nonactive in (1,2,255):
bad=kind.copy(); bad.ravel()[p.ghost_coarse[0]]=nonactive
with self.assertRaisesRegex(ValueError,'ACTIVE'):
projected_explosion_tables(p,layout,bad)
with self.assertRaisesRegex(ValueError,'shape'):
projected_explosion_tables(p,layout,kind[:1])
hole_layout=BlockLayout2D.build(16,16,4,4,origins=[(0,0)])
with self.assertRaisesRegex(ValueError,'owned'):
projected_explosion_tables(p,hole_layout,kind)
def test_generic_two_hop_mass_and_momentum_budget(self):
cfg=LBMConfig(nx=30,ny=30,viscosity=.1)
layout=BlockLayout2D.build(30,30,6,5)
grazing_counts=set()
for rectangles in UNIONS:
pair=FixedPatchSet2D.from_config(cfg,rectangles)
ids,o=projected_explosion_tables(pair,layout,np.where(pair.covered,OUTER_GHOST,ACTIVE))
n=decode(layout,ids)
q,k=np.divmod(pair.coalesce_coarse.astype(np.int64),900)
y,x=np.divmod(k,30)
grazing=~pair.covered[(y-E[q,1])%30,(x-E[q,0])%30]
grazing_counts.add(int(grazing.sum()))
self.assertTrue(grazing.any())
for collision in (False,True):
rng=np.random.default_rng(17)
c=W[:,None,None]*(1+rng.normal(0,.002,(9,30,30)))
f=W[:,None,None]*(1+rng.normal(0,.002,(9,*pair.fine_shape)))
start=totals(c,f,pair)
c[:,pair.covered]=np.nan
for _ in range(4):
f.reshape(9,-1)[:,pair.ghost_fine]=reconstruct(c,pair,n,o)[0]
for _ in range(2):
f=np.array([np.roll(f[q],(ey,ex),(0,1)) for q,(ex,ey) in enumerate(E)])
f[:,pair.fine_kind==OUTER_GHOST]=np.nan
if collision:
f[:,pair.fine_kind==ACTIVE]=collide(f[:,pair.fine_kind==ACTIVE],pair.tau_fine)
out=np.array([np.roll(c[q],(ey,ex),(0,1)) for q,(ex,ey) in enumerate(E)])
packets=f.reshape(-1)[pair.coalesce_fine].mean(axis=1)
self.assertTrue(np.isfinite(packets[grazing]).all())
out.reshape(-1)[pair.coalesce_coarse]=packets
if collision:
out[:,~pair.covered]=collide(out[:,~pair.covered],pair.tau_coarse)
out[:,pair.covered]=np.nan
c=out
np.testing.assert_allclose(totals(c,f,pair),start,rtol=0,atol=4e-12)
self.assertGreater(len(grazing_counts),1) # not a hard-coded eight-corner oracle
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"""Host-only checks for the opt-in CUDA gate; never imports or compiles CUDA."""
from copy import deepcopy
import importlib.util
from pathlib import Path
import unittest
from unittest.mock import patch
import numpy as np
from CelerisLab.config import LBMConfig
from CelerisLab.lbm.blocks import BlockLayout2D
from CelerisLab.lbm.hierarchy import build_hierarchy
from CelerisLab.lbm.refinement import ACTIVE, OUTER_GHOST, FixedPatch2D, FixedPatchSet2D
from CelerisLab.lbm.refinement_tables import projected_explosion_tables
from tests.unit.test_hierarchy import CFG, FOUR
from tests.unit.test_projected_explosion import decode, reconstruct, totals
PATH = Path(__file__).resolve().parents[1] / 'validation/multigrid/check_projected_pairs.py'
spec = importlib.util.spec_from_file_location('projected_pair_gate', PATH)
gate = importlib.util.module_from_spec(spec)
spec.loader.exec_module(gate)
class ProjectedGateOracle(unittest.TestCase):
def check_pair(self, pair, layout, kind):
ids, offsets = projected_explosion_tables(pair, layout, kind)
neighbors = decode(layout, ids)
coarse = np.random.default_rng(731).normal(size=(9, *pair.coarse_shape))
legal = np.zeros(pair.coarse_shape, bool)
legal.ravel()[pair.ghost_coarse] = True
coarse[:, ~legal] = np.nan
expected, _ = reconstruct(coarse, pair, neighbors, offsets)
# The coordinate oracle must not accidentally share production tables.
with patch('CelerisLab.lbm.refinement_tables.projected_explosion_tables',
side_effect=AssertionError('oracle used production stencil')):
actual = gate.independent_explosion(coarse, pair, layout, kind)
np.testing.assert_allclose(actual, expected, rtol=0, atol=2e-15)
center = coarse.reshape(9, -1)[:, pair.ghost_coarse]
self.assertTrue(np.isfinite(actual).all())
self.assertGreater(np.max(abs(actual[0] - center[0])), .01)
self.assertGreater(np.max(abs(actual[1:] - center[1:])), .01)
return coarse, neighbors, offsets, actual
def test_scalar_union_nested_sparse_and_unequal_strides(self):
def fine_layout(pair, block):
return (pair.fine_layout(block) if isinstance(pair, FixedPatchSet2D) else
BlockLayout2D.build(*pair.fine_shape, *block, periodic=(False,False)))
small = LBMConfig(nx=16, ny=16, viscosity=.02)
fixtures = [(small, [(4,4,12,12), (8,8,16,16), (8,8,16,16)]),
(CFG, FOUR), (small, [[(4,4,5,7), (4,5,7,7)]])]
for cfg, refs in fixtures:
hierarchy = build_hierarchy(cfg, refs)
for index, pair in enumerate(hierarchy.pairs):
block, child_block = ((4,4), (4,8)) if index % 2 == 0 else ((4,8), (4,4))
layout = (BlockLayout2D.build(cfg.ny, cfg.nx, *block) if index == 0
else fine_layout(hierarchy.pairs[index-1], block))
with self.subTest(refs=refs, pair=index):
self.assertNotEqual(np.prod(layout.local_shape),
np.prod(fine_layout(pair, child_block).local_shape))
if index and isinstance(pair, FixedPatchSet2D):
self.assertTrue((~layout.owned).any())
self.check_pair(pair, layout, hierarchy.kinds[index])
def test_axis_periodicity_and_mean_preserving_mutants(self):
pair = FixedPatch2D.from_config(LBMConfig(nx=16,ny=16,viscosity=.1), (2,2,14,14))
kind = np.where(pair.covered, OUTER_GHOST, ACTIVE)
outputs = []
for periodic in ((False,False), (True,False), (False,True), (True,True)):
layout = BlockLayout2D.build(16,16,4,4,periodic=periodic)
coarse, neighbors, offsets, actual = self.check_pair(pair, layout, kind)
outputs.append(actual)
donors, first, inverse = np.unique(pair.ghost_coarse, return_index=True, return_inverse=True)
wrong = neighbors[first[np.roll(np.arange(len(donors)), 1)]][inverse]
for bad_neighbors, bad_offsets in ((neighbors, -offsets), (wrong, offsets)):
mutant, _ = reconstruct(coarse, pair, bad_neighbors, bad_offsets)
self.assertGreater(np.max(abs(mutant - actual)), .01)
for donor in donors:
rows = pair.ghost_coarse == donor
self.assertEqual(rows.sum(), 4)
np.testing.assert_allclose(mutant[:,rows].mean(axis=1),
coarse.reshape(9,-1)[:,donor], rtol=0, atol=1e-15)
bad_kind = kind.copy(); bad_kind.ravel()[pair.ghost_coarse[0]] = OUTER_GHOST
with self.assertRaisesRegex(AssertionError, 'illegal center donor'):
gate.independent_explosion(coarse, pair, layout, bad_kind)
for i, j in ((0,1), (0,2), (1,3), (2,3)):
self.assertGreater(np.max(abs(outputs[i] - outputs[j])), .01)
def test_concave_replay_preserves_existing_fp64_budget(self):
cfg, refs, blocks = gate.cases()['concave']
hierarchy = build_hierarchy(cfg, refs); pair = hierarchy.pairs[0]
layout = BlockLayout2D.build(cfg.ny, cfg.nx, *blocks[0])
rng = np.random.default_rng(17)
values = tuple(gate.W[:,None,None] * (1 + rng.normal(0,.002,(9,*shape)))
for shape in (pair.coarse_shape, pair.fine_shape))
start = totals(*values, pair)
values[0][:,pair.covered] = np.nan
for _ in range(8):
values = gate.replay_two_hops(values, pair, layout, hierarchy.kinds[0])
np.testing.assert_allclose(totals(*values, pair), start, rtol=0, atol=4e-12)
self.assertEqual(gate.REPLAY_ATOL, 3e-6) # CUDA replay bound is separate.
class ProjectedGateReceipts(unittest.TestCase):
def test_digest_exact_finite_bits_and_nan_masks(self):
values = np.array([0., -0., np.nan, 1.], dtype=np.float32)
self.assertEqual(gate.digest(values), gate.digest(values.copy()))
payload = values.copy(); payload.view(np.uint32)[2] = 0x7fc00001
self.assertEqual(gate.digest(values), gate.digest(payload))
variants = [np.array([-0., -0., np.nan, 1.], np.float32),
np.array([0., np.nan, -0., 1.], np.float32),
np.array([0., -0., np.nan, np.nextafter(np.float32(1), np.float32(2))], np.float32),
values.reshape(2,2), values.astype(np.float64)]
for changed in variants:
self.assertNotEqual(gate.digest(values), gate.digest(changed))
with self.assertRaisesRegex(AssertionError, 'infinite'):
gate.digest(np.array([np.inf]))
def test_snapshot_negative_controls_and_exact_dev_options(self):
snapshot = [dict(step=0, levels=[dict(raw='raw',public='public',active=4)],
mass_momentum=[1.,0.,0.],observed_level_hops=[0,0])]
gate.compare_snapshots(snapshot, deepcopy(snapshot))
diagnostic = deepcopy(snapshot); diagnostic[0]['mass_momentum'][0] = 2.
gate.compare_snapshots(snapshot, diagnostic) # Diagnostics are not bitwise gate fields.
mutants = [[]]
for key, value in (('raw','changed'), ('public','changed'), ('active',3)):
changed = deepcopy(snapshot); changed[0]['levels'][0][key] = value
mutants.append(changed)
changed = deepcopy(snapshot); changed[0]['step'] = 1; mutants.append(changed)
changed = deepcopy(snapshot); changed[0]['observed_level_hops'] = [0,1]; mutants.append(changed)
for changed in mutants:
with self.assertRaises(AssertionError):
gate.compare_snapshots(snapshot, changed)
self.assertEqual(gate.default_options('omitted'), {})
self.assertEqual(gate.default_options('constant'), {'explosion':'constant'})
self.assertEqual(gate.default_options('projected_linear'), {'explosion':'projected_linear'})
def test_baseline_receipt_rejects_provenance_and_contract_mutants(self):
keys = [f'{name}:shifted={shifted}' for name in gate.cases() for shifted in (False,True)]
good = dict(completed=True,dry_run=False,mode='baseline',production_revision=gate.BASE,
source=dict(revision=gate.BASE,dirty=False),driver_sha256='driver',
stops=list(gate.STOPS),operator_tolerance=[6e-8,2e-7],
rest_tolerance=[3e-7,1e-6],replay_tolerance=[3e-6,0],default_snapshots=dict.fromkeys(keys, []),
actual_build_sidecars=[{'ptx_sha256':'captured'}])
self.assertIs(gate.baseline_receipt(good, 'driver', keys), good)
mutants = dict(completed=False,dry_run=True,mode='candidate',production_revision='wrong',
driver_sha256='wrong',stops=[0,1,2],operator_tolerance=[1e-6,2e-7],
rest_tolerance=[3e-7,1e-5],replay_tolerance=[3e-6,1e-7],actual_build_sidecars=[],default_snapshots={})
for field, value in mutants.items():
bad = deepcopy(good); bad[field] = value
with self.subTest(field=field), self.assertRaises(ValueError):
gate.baseline_receipt(bad, 'driver', keys)
for changes in (dict(revision='wrong'), dict(dirty=True), dict(dirty=None)):
bad = deepcopy(good); bad['source'].update(changes)
with self.assertRaises(ValueError):
gate.baseline_receipt(bad, 'driver', keys)
bad = deepcopy(good); bad['default_snapshots']['unexpected'] = []
with self.assertRaises(ValueError):
gate.baseline_receipt(bad, 'driver', keys)
if __name__ == '__main__':
unittest.main()
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"""Production host dispatch with CUDA doubles; no CUDA compilation or flow runs."""
from contextlib import nullcontext
from dataclasses import replace
from unittest.mock import Mock
import unittest
import numpy as np
from CelerisLab.config import LBMConfig
from tests.unit.test_hierarchy import CFG, FOUR
from tests.unit.test_refinement_three_level_multipatch import host_module
def backend(**options):
host = host_module()
calls, allocations, storage = [], [], {}
context = Mock(activate=nullcontext, sm_arch='sm_70')
host.cuda.mem_alloc.side_effect = lambda size: allocate(size)
def allocate(size):
pointer = Mock(name=f'buffer{len(allocations)}', size=size)
allocations.append(pointer)
return pointer
def load(_):
module = Mock()
module.get_global.return_value = (Mock(), 20)
module.get_function.side_effect = lambda name: Mock(
name=name, side_effect=lambda *a, **kw: calls.append((name, a, kw)))
return module
host.compiler.load_module.side_effect = load
host.cuda.memcpy_htod.side_effect = lambda ptr, a: storage.__setitem__(id(ptr), np.array(a, copy=True))
host.cuda.memcpy_dtoh.side_effect = lambda a, ptr: np.copyto(a, storage[id(ptr)])
cfg = options.pop('cfg', CFG)
refinements = options.pop('refinements', FOUR)
blocks = options.pop('level_blocks', [(4, 4)] * (len(refinements) + 1))
run = host.FixedPatchStepper(cfg, context=context, refinements=refinements,
level_blocks=blocks, **options)
run.initialize(*(np.full(level.shape, 1/9, np.float32) for level in run._levels))
return run, host, calls, allocations, storage
def trace(run, calls, allocations, storage):
"""Stable pointer identities expose allocations/arguments, not just kernel names."""
pointer = {id(value): index for index, value in enumerate(allocations)}
launches = [(name, tuple(('ptr', pointer[id(a)]) if id(a) in pointer else int(a)
for a in args), kw['grid'], kw['block'])
for name, args, kw in calls]
uploads = [(index, value.dtype.str, value.shape, value.tobytes())
for index, ptr in enumerate(allocations) if (value := storage.get(id(ptr))) is not None]
return [p.size for p in allocations], uploads, launches
class ProjectedPairDispatch(unittest.TestCase):
def test_omitted_and_constant_have_identical_allocations_uploads_and_launches(self):
results = []
for options in ({}, {'explosion': 'constant'}):
run, host, calls, allocations, storage = backend(**options)
self.assertEqual(run._explosion, 'constant')
self.assertTrue(all(p.neighbors is None and p.offsets is None for p in run._pairs))
run.step()
explosion = [args for name, args, _ in calls if name == 'BlockExplode']
self.assertEqual(len(explosion), 7)
self.assertTrue(all(len(args) == 6 for args in explosion))
self.assertFalse(any(name == 'BlockExplodeProjected' for name, _, _ in calls))
results.append(trace(run, calls, allocations, storage))
run.close()
self.assertEqual(*results)
def test_projected_adds_exactly_two_tables_per_adjacent_pair(self):
for depth in (2, 3, 4):
constant, _, _, ca, _ = backend(refinements=FOUR[:depth-1])
projected, _, calls, pa, storage = backend(
refinements=FOUR[:depth-1], explosion='projected_linear')
self.assertEqual(len(pa)-len(ca), 2*(depth-1))
for pair, geometry in zip(projected._pairs, projected.hierarchy.pairs):
self.assertEqual(storage[id(pair.neighbors)].shape, (len(geometry.ghost_fine), 4))
self.assertEqual(storage[id(pair.offsets)].shape, (len(geometry.ghost_fine), 2))
self.assertEqual(pair.neighbors.size, len(geometry.ghost_fine)*4*8)
self.assertEqual(pair.offsets.size, len(geometry.ghost_fine)*2*4)
projected.step()
explosions = [args for name, args, _ in calls if name == 'BlockExplodeProjected']
self.assertEqual(len(explosions), 2**(depth-1)-1)
self.assertTrue(all(len(args) == 8 for args in explosions))
self.assertFalse(any(name == 'BlockExplode' for name, _, _ in calls))
for args in explosions:
pair = next(p for p in projected._pairs if args[2] is p.ghosts)
self.assertIs(args[6], pair.neighbors)
self.assertIs(args[7], pair.offsets)
self.assertEqual(args[5], pair.parent_cells)
constant.close(); projected.close()
def test_three_and_four_level_schedule_has_fresh_midpoint_sources(self):
for depth in (3, 4):
for explosion in ('constant', 'projected_linear'):
run, host, calls, allocations, storage = backend(
refinements=FOUR[:depth-1], explosion=explosion)
before = len(allocations)
events = []
for index, pair in enumerate(run._pairs):
pair.explode.side_effect = lambda source, *a, index=index, **kw: events.append(('explode', index, source))
pair.coalesce.side_effect = lambda child, source, *a, index=index, **kw: events.append(('restrict', index, source))
for index, level in enumerate(run._levels):
level.kernel.side_effect = lambda source, *a, index=index, **kw: events.append(('step', index, source))
level.halo_copy.side_effect = lambda source, *a, index=index, **kw: events.append(('halo', index, source))
expected = []
def hop(index, source):
if index+1 < depth:
expected.append(('explode', index, source))
child = run._levels[index+1]
hop(index+1, child.current)
hop(index+1, child.spare)
expected.append(('halo', index, source))
if index+1 < depth:
expected.append(('restrict', index, source))
expected.append(('step', index, source))
hop(0, run._levels[0].current)
run.step()
self.assertEqual(events, expected)
self.assertEqual([level.kernel.call_count for level in run._levels], [2**i for i in range(depth)])
self.assertEqual(len(allocations), before)
self.assertEqual(run.step_count, 1)
for index in range(1, depth-1):
feeds = [source for name, pair, source in events if name == 'explode' and pair == index]
self.assertEqual(feeds, [run._levels[index].current, run._levels[index].spare] * (2**(index-1)))
run.close()
def test_scalar_windows_follow_the_same_pair_path(self):
run, _, _, _, _ = backend(cfg=LBMConfig(nx=16,ny=16,viscosity=.02),
refinements=[(4,4,12,12),(8,8,16,16),(8,8,16,16)],
level_blocks=[(4,4),(4,8),(8,4),(4,4)], explosion='projected_linear')
self.assertTrue(all(pair.neighbors is not None for pair in run._pairs))
self.assertEqual([pair.parent_cells for pair in run._pairs], [36,60,60])
run.step()
self.assertEqual([level.kernel.call_count for level in run._levels], [1,2,4,8])
run.close()
def test_physics_gate_precedes_context_and_allocations(self):
host = host_module()
context = Mock()
options = dict(refinements=FOUR[:1], level_blocks=[(4,4)]*2,
explosion='projected_linear', context=context)
for cfg, changes in [(CFG, {'explosion':'unknown'}),
(CFG, {'coarse_boundary':'slot_reservoir'}),
(CFG, {'coarse_boundary':'channel'}),
(CFG, {'level_blocks':[None,None], 'refinements':[(6,6,26,26)]}),
(CFG, {'level_objects':[(),(object(),)]}),
(CFG, {'level_jets':[(),(object(),)]}),
(replace(CFG,collision='MRT'), {}),
(replace(CFG,les_enabled=True), {})]:
with self.subTest(changes=changes, cfg=cfg), self.assertRaisesRegex(ValueError,'explosion'):
host.FixedPatchStepper(cfg, **dict(options, **changes))
context.activate.assert_not_called()
host.cuda.mem_alloc.assert_not_called()
# The legacy constant path still allows MRT and dense storage.
for options in ({'cfg':replace(CFG,collision='MRT')},
{'level_blocks':[None,None], 'refinements':[(6,6,26,26)]}):
run, _, _, _, _ = backend(**options)
run.close()
def test_remap_preserves_selector_tables_and_constant_default(self):
for explosion in ('constant','projected_linear'):
run, host, _, _, storage = backend(refinements=FOUR[:2], explosion=explosion)
run._step_count = 7
old = run.download()
clone = run.remap_child(FOUR[1])
self.assertEqual(clone._explosion, explosion)
self.assertEqual(clone.step_count, 7)
for pair in clone._pairs:
self.assertEqual(pair.neighbors is None, explosion == 'constant')
for expected, actual in zip(old, clone.download()):
np.testing.assert_array_equal(actual,expected)
clone.step()
self.assertEqual((run.step_count,clone.step_count), (7,8))
clone.close(); run.close()
def test_changed_remap_geometry_keeps_projected_in_both_representations(self):
changed = [(22,22,42,42), (72,68,76,76)]
for shifted in (False, True):
run, _, _, _, _ = backend(cfg=replace(CFG,ddf_shifting=shifted),
refinements=FOUR[:2], explosion='projected_linear')
run._step_count = 3
before = run.download()
clone = run.remap_child(changed)
self.assertEqual(clone._explosion, 'projected_linear')
self.assertEqual(clone.hierarchy.pairs[1].bounds, tuple(changed))
self.assertNotEqual(clone._pairs[1].n_ghosts, run._pairs[1].n_ghosts)
for old, new in zip(run._pairs, clone._pairs):
self.assertIsNot(old.neighbors, new.neighbors)
self.assertIsNotNone(new.neighbors)
for expected, actual in zip(before, run.download()):
np.testing.assert_array_equal(actual, expected)
clone.step()
self.assertEqual((run.step_count, clone.step_count), (3, 4))
clone.close(); run.close()
+45
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@@ -0,0 +1,45 @@
"""Host reduction contract for the optional observation-window exchange ledger."""
import unittest
import numpy as np
from CelerisLab.lbm.raw_exchange import summarize_exchange
def reduce(rows, window, duration=None, h=.5, time_end=10):
return summarize_exchange(rows, np.array([0, 0, 1]), np.array([False, True, False]),
body_id=0, level=1, h=h, time_end=time_end, window=window,
reference_center=(0., 0.), duration=duration)
class ExchangeWindowReduction(unittest.TestCase):
def test_window_duration_scaling(self):
rows = np.array([[1., 2., 3., 4.], [.5, -1., 0., 1.], [9., 9., 9., 9.]])
out = reduce(rows, "window", duration=4)
np.testing.assert_array_equal(out["total"]["impulse"], [1.5, 1.])
np.testing.assert_array_equal(out["total"]["force"], [1.5 / 4, 1. / 4])
self.assertEqual(out["total"]["torque"], 3. / 4)
self.assertEqual(out["total"]["mass_rate"], 5. / 4)
np.testing.assert_array_equal(out["aperture"]["impulse"], [.5, -1.])
self.assertEqual((out["time_start"], out["time_end"]), (6., 10))
self.assertEqual(out["sample_count"], 8) # duration / h fine substeps
self.assertEqual(out["window"], "window")
def test_existing_windows_unchanged(self):
rows = np.array([[1., 2., 3., 4.], [0., 0., 0., 0.], [0., 0., 0., 0.]])
base = reduce(rows, "last_base_step")
self.assertEqual((base["time_start"], base["sample_count"]), (9., 2))
np.testing.assert_array_equal(base["total"]["force"], [1., 2.])
sub = reduce(rows, "last_substep")
self.assertEqual(sub["sample_count"], 1)
def test_duration_validation(self):
rows = np.zeros((3, 4))
for bad in (None, 0, -1, 1.5, True):
with self.subTest(duration=bad), self.assertRaises(ValueError):
reduce(rows, "window", duration=bad)
with self.assertRaises(ValueError):
reduce(rows, "last_base_step", duration=2)
if __name__ == "__main__": unittest.main()
+176 -8
View File
@@ -13,7 +13,15 @@ h, periodic = r.helpers(r.DEFAULT_SOURCE)
def test_source_pin(): def test_source_pin():
assert r.verify_source(r.DEFAULT_SOURCE)["commit"].startswith("cd3a657") historical = json.loads((r.HERE / "data/refined_dfg/source_manifest.json").read_text())
assert historical["commit"].startswith("cd3a657")
mrt_history = json.loads((r.HERE / "data/refined_dfg/source_manifest_mrt.json").read_text())
assert mrt_history["commit"].startswith("3ea131e")
assert r.verify_source(r.DEFAULT_SOURCE, "MRT", "window")["commit"].startswith("a233c90")
with unittest.TestCase().assertRaisesRegex(RuntimeError, "Source mismatch"):
r.verify_source(r.DEFAULT_SOURCE, "MRT")
with unittest.TestCase().assertRaisesRegex(RuntimeError, "Source mismatch"):
r.verify_source(r.DEFAULT_SOURCE, "SRT")
def test_matched_units_and_planes(): def test_matched_units_and_planes():
@@ -135,16 +143,20 @@ def test_axis_specific_sampling_phase():
def test_full_requires_completed_pilot(): def test_full_requires_completed_pilot():
with unittest.TestCase().assertRaisesRegex(ValueError, "pilot-results"): with unittest.TestCase().assertRaisesRegex(ValueError, "pilot-results"):
r.verify_pilot(None, r.verify_source(r.DEFAULT_SOURCE)) r.verify_pilot(None, r.verify_source(r.DEFAULT_SOURCE, "MRT", "window"))
def pilot_fixture(path): def pilot_fixture(path, observation_mode="window"):
"""Synthetic contract fixture only; never a physical result or run receipt.""" """Synthetic contract fixture only; never a physical result or run receipt."""
manifest = r.verify_source(r.DEFAULT_SOURCE) manifest = (r.verify_source(r.DEFAULT_SOURCE, "MRT", "window")
if observation_mode == "window" else
json.loads((r.HERE / "data/refined_dfg/source_manifest_mrt.json").read_text()))
(path / "plan.json").write_text( (path / "plan.json").write_text(
json.dumps( json.dumps(
dict( dict(
source_manifest=manifest, source_manifest=manifest,
collision="MRT",
observation_mode=observation_mode,
bounds_root_edge=list(r.BOUNDS), bounds_root_edge=list(r.BOUNDS),
runner_sha256=r.runner_hash(), runner_sha256=r.runner_hash(),
) )
@@ -177,6 +189,8 @@ def pilot_fixture(path):
json.dumps( json.dumps(
dict( dict(
case=case, case=case,
collision="MRT",
observation_mode=observation_mode,
mode="pilot", mode="pilot",
status="pilot_complete", status="pilot_complete",
healthy=True, healthy=True,
@@ -192,6 +206,8 @@ def pilot_fixture(path):
json.dumps( json.dumps(
dict( dict(
case=case, case=case,
collision="MRT",
observation_mode=observation_mode,
mode="pilot", mode="pilot",
step=interval, step=interval,
runner_sha256=r.runner_hash(), runner_sha256=r.runner_hash(),
@@ -208,7 +224,7 @@ def test_pilot_validation_and_calibration():
with TemporaryDirectory() as tmp: with TemporaryDirectory() as tmp:
path = Path(tmp) path = Path(tmp)
manifest = pilot_fixture(path) manifest = pilot_fixture(path)
assert r.verify_pilot(path, manifest) == 3606.0 assert r.verify_pilot(path, manifest, "MRT", "window") == 3606.0
def test_reject_malformed_pilot_receipts(): def test_reject_malformed_pilot_receipts():
@@ -238,7 +254,7 @@ def test_reject_malformed_pilot_receipts():
mutate(bad) mutate(bad)
receipt.write_text(json.dumps(bad)) receipt.write_text(json.dumps(bad))
with unittest.TestCase().assertRaises(ValueError): with unittest.TestCase().assertRaises(ValueError):
r.verify_pilot(path, manifest) r.verify_pilot(path, manifest, "MRT", "window")
# Exact reviewer regression: previously accepted NaN endpoint. # Exact reviewer regression: previously accepted NaN endpoint.
receipt.write_text( receipt.write_text(
json.dumps( json.dumps(
@@ -250,11 +266,11 @@ def test_reject_malformed_pilot_receipts():
) )
) )
with unittest.TestCase().assertRaises(ValueError): with unittest.TestCase().assertRaises(ValueError):
r.verify_pilot(path, manifest) r.verify_pilot(path, manifest, "MRT", "window")
receipt.write_text(json.dumps(valid)) receipt.write_text(json.dumps(valid))
(path / "uniform/ready.json").write_text("{}") (path / "uniform/ready.json").write_text("{}")
with unittest.TestCase().assertRaises(ValueError): with unittest.TestCase().assertRaises(ValueError):
r.verify_pilot(path, manifest) r.verify_pilot(path, manifest, "MRT", "window")
def test_strict_finite_json_and_deadline(): def test_strict_finite_json_and_deadline():
@@ -283,6 +299,158 @@ def test_pressure_probes_actual_body_mask():
assert h.pressure_probes(np.ones(pair.fine_shape), fluid, p)["dp"] == 0.0 assert h.pressure_probes(np.ones(pair.fine_shape), fluid, p)["dp"] == 0.0
def test_matched_mrt_selection():
for diameter in (40, 80):
srt, sbody, sp = r.config(h, diameter)
mrt, mbody, mp = r.config(h, diameter, "MRT")
assert mrt["method"]["collision"] == "MRT"
mrt["method"]["collision"] = "SRT"
assert mrt == srt and mbody == sbody and mp == sp
srt_plan, mrt_plan = r.plan(h), r.plan(h, "MRT")
for key in ("root", "uniform", "bounds_root_edge", "finest_dx_m", "finest_dt_s"):
assert srt_plan[key] == mrt_plan[key]
assert "q2/6/8" in mrt_plan["outlet"] and "all nine" in srt_plan["outlet"]
cfg, pair, _, host = r.host_geometry(r.DEFAULT_SOURCE, h, "MRT")
assert cfg.collision == "MRT" and pair.fine_shape == (240, 568)
assert len(host.boundary_cells) > 0
def test_reject_collision_receipts():
from tempfile import TemporaryDirectory
for rel in ("plan.json", "uniform/summary.json", "refined/summary.json",
"uniform/ready.json", "refined/ready.json"):
for invalid in ("SRT", None):
with TemporaryDirectory() as tmp:
path = Path(tmp)
manifest = pilot_fixture(path)
receipt = path / rel
record = json.loads(receipt.read_text())
if invalid is None:
record.pop("collision")
else:
record["collision"] = invalid
receipt.write_text(json.dumps(record))
with unittest.TestCase().assertRaises(ValueError):
r.verify_pilot(path, manifest, "MRT", "window")
def test_record_actual_checkout_separately():
from source_provenance import checkout_provenance
actual = checkout_provenance(r.DEFAULT_SOURCE)
assert len(actual["checkout_revision"]) == 40
assert isinstance(actual["checkout_dirty"], bool)
assert r.verify_source(r.DEFAULT_SOURCE, "MRT", "window")["production_origin_commit"].startswith("d930")
def test_window_plan_preserves_physics():
for collision in ("SRT", "MRT"):
baseline = r.plan(h, collision)
window = r.plan(h, collision, "window")
assert baseline.pop("observation_mode") == "last_base_step"
assert window.pop("observation_mode") == "window"
assert baseline == window
assert r.verify_source(r.DEFAULT_SOURCE, collision, "window")["observation_mode"] == "window"
with unittest.TestCase().assertRaises(ValueError):
r.verify_source(r.DEFAULT_SOURCE, "MRT", "unknown")
def test_reject_observation_mode_receipts():
from tempfile import TemporaryDirectory
for mode, other in (("window", "last_base_step"), ("last_base_step", "window")):
with TemporaryDirectory() as tmp:
path = Path(tmp)
manifest = pilot_fixture(path, mode)
assert r.verify_pilot(path, manifest, "MRT", mode) == 3606.0
with unittest.TestCase().assertRaises(ValueError):
r.verify_pilot(path, manifest, "MRT", other)
for rel in ("plan.json", "uniform/summary.json", "refined/summary.json",
"uniform/ready.json", "refined/ready.json"):
for invalid in (other, None):
with TemporaryDirectory() as tmp:
path = Path(tmp)
manifest = pilot_fixture(path, mode)
receipt = path / rel
record = json.loads(receipt.read_text())
if invalid is None:
record.pop("observation_mode")
else:
record["observation_mode"] = invalid
receipt.write_text(json.dumps(record))
with unittest.TestCase().assertRaises(ValueError):
r.verify_pilot(path, manifest, "MRT", mode)
class ExchangeFixture:
"""Synthetic interval ledger for orchestration tests, not a solver or GPU result."""
def __init__(self):
self.step_count = 11
self.events = []
self.begin = None
self.override = {}
def start_exchange_window(self):
self.begin = self.step_count
self.events.append(("start", self.step_count))
def step(self, n):
self.events.append(("step", n))
self.step_count += n
def result(self, start, window):
from CelerisLab.lbm.raw_exchange import summarize_exchange
total = sum(range(start + 1, self.step_count + 1))
result = summarize_exchange([[total, -2*total, 0., 0.]], [0], [False],
body_id=0, level=1, h=.5, time_end=self.step_count, window=window,
reference_center=(80.5, 81.),
**({"duration": self.step_count-start} if window == "window" else {}))
result.update(self.override)
return result
def read_exchange_window(self, body_id, *, level):
assert body_id == 0 and level == 1
self.events.append(("read_window", self.step_count))
return self.result(self.begin, "window")
def read_raw_exchange(self, body_id, *, level, window):
assert body_id == 0 and level == 1 and window == "last_base_step"
self.events.append(("read_raw", self.step_count))
return self.result(self.step_count-1, window)
def test_window_interval_impulse_sampling_and_units():
base, window = ExchangeFixture(), ExchangeFixture()
for n in (80, 2000, 3): # Pilot/dense, early full, and final partial interval.
begin = base.step_count
a = r.advance_refined_interval(base, n, float("inf"), "last_base_step")
w = r.advance_refined_interval(window, n, float("inf"), "window")
np.testing.assert_array_equal(w, a)
expected = sum(range(begin+1, begin+n+1))
np.testing.assert_array_equal(w, [expected, -2*expected])
den = .5 * r.SPEED**2 * 40
np.testing.assert_array_equal(w/n/den, a/n/den)
assert window.step_count == base.step_count == begin+n
assert window.events[-3:] == [("start", begin), ("step", n), ("read_window", begin+n)]
assert (begin+n/2)*r.SPEED/40 == (window.step_count-n/2)*r.SPEED/40
assert not any(event[0] == "read_raw" for event in window.events)
def test_window_contract_rejection():
for key, value in (("units", "local"), ("window", "last_base_step"),
("sample_count", 2), ("time_start", 0), ("time_end", 0), ("dt", 1.)):
backend = ExchangeFixture()
backend.override[key] = value
with unittest.TestCase().assertRaisesRegex(RuntimeError, "window force"):
r.advance_refined_interval(backend, 80, float("inf"), "window")
backend = ExchangeFixture()
with unittest.TestCase().assertRaises(TimeoutError):
r.advance_refined_interval(backend, 80, 0, "window")
assert not backend.events
if __name__ == "__main__": if __name__ == "__main__":
suite = unittest.TestSuite( suite = unittest.TestSuite(
unittest.FunctionTestCase(fn) unittest.FunctionTestCase(fn)
+1 -1
View File
@@ -142,7 +142,7 @@ class FixedPatchTests(unittest.TestCase):
FixedPatch2D.from_config(LBMConfig(nx=nx, ny=ny, viscosity=.1), bounds) FixedPatch2D.from_config(LBMConfig(nx=nx, ny=ny, viscosity=.1), bounds)
def test_unsupported_backend_and_fine_relaxation_rejected(self): def test_unsupported_backend_and_fine_relaxation_rejected(self):
for kwargs in ({"collision": "TRT"}, {"collision": "MRT"}, {"streaming": "esopull"}, for kwargs in ({"collision": "TRT"}, {"streaming": "esopull"},
{"les_enabled": True}, {"les_enabled": True},
{"store_precision": "FP16S"}, {"lattice_model": "D3Q19"}, {"store_precision": "FP16S"}, {"lattice_model": "D3Q19"},
{"data_type": "FP64"}, {"omega_min": 1.0}): {"data_type": "FP64"}, {"omega_min": 1.0}):
+44
View File
@@ -0,0 +1,44 @@
"""Host guards and source contract for MRT reuse in refined/blocked stepping (no CUDA)."""
from pathlib import Path
import unittest
from CelerisLab.config import LBMConfig
from CelerisLab.lbm.refinement import FixedPatch2D
KERNELS = Path(__file__).resolve().parents[2] / "src/CelerisLab/lbm/kernels"
BOUNDS = (8, 6, 16, 14)
class RefinementMRTHost(unittest.TestCase):
def test_patch_accepts_implemented_models(self):
for collision in ("SRT", "MRT"):
with self.subTest(collision=collision):
FixedPatch2D.from_config(LBMConfig(nx=24, ny=20, viscosity=.1, collision=collision), BOUNDS)
def test_patch_rejects_unimplemented(self):
for options in (dict(collision="TRT"), dict(collision="MRT", les_enabled=True)):
with self.subTest(options=options), self.assertRaises(ValueError):
FixedPatch2D.from_config(LBMConfig(nx=24, ny=20, viscosity=.1, **options), BOUNDS)
def test_srt_statements_and_guards_preserved(self):
"""MRT is an additive compile-time branch; SRT statements and other guards remain."""
blocks = (KERNELS / "blocks.cu").read_text()
channel = (KERNELS / "step/block_channel.cu").read_text()
refinement = (KERNELS / "refinement.cu").read_text()
for text in ("compute_feq_from_momentum(drho, jx, jy, ux, uy, feq);",
"compute_feq(rho, ux, uy, feq);",
"collide_srt_no_force(f, feq, d_params.omega);"):
self.assertIn(text, blocks)
self.assertIn("collide_srt(f, feq, forcing, omega);", channel)
self.assertIn("collide_srt_no_force(f, feq, d_params.omega);", refinement)
for source in (blocks, refinement):
self.assertIn("(COLLISION_MODEL != 0 && COLLISION_MODEL != 2)", source)
self.assertIn("USE_LES", source)
self.assertIn("STORE_PRECISION != 0", source)
self.assertIn('#if COLLISION_MODEL == 2\n#include "operators/collision_mrt.cuh"\n#endif', source)
self.assertIn("USE_DDF_SHIFTING ||", refinement) # dense/mixed shifted stays rejected
for source in (blocks, channel, refinement):
self.assertEqual(source.count("collide_mrt_no_force("), 1)
if __name__ == "__main__": unittest.main()
@@ -0,0 +1,99 @@
"""Direct-current-header regression; historical candidate manifests stay frozen."""
import importlib.util
from pathlib import Path
import shutil
import sys
from tempfile import TemporaryDirectory
import unittest
ROOT = Path(__file__).resolve().parents[2]
HELPERS = ROOT / "tests/validation/les"
sys.path.insert(0, str(HELPERS))
spec = importlib.util.spec_from_file_location(
"smagorinsky_oracle", HELPERS / "test_candidate.py"
)
oracle = importlib.util.module_from_spec(spec)
spec.loader.exec_module(oracle)
HEADER = Path("src/CelerisLab/lbm/kernels/operators/turbulence_smag.cuh")
DESCRIPTORS = Path("src/CelerisLab/lbm/kernels/core/descriptors.cuh")
class SmagorinskyNormalization(unittest.TestCase):
def test_current_header_matches_independent_tensor_oracle(self):
with TemporaryDirectory() as directory:
build_dir = Path(directory)
for dim in (2, 3):
for cs in (0.0, 0.16):
# Compile directly against this checkout, not saved candidate headers.
closed = oracle.build(
ROOT.parent, ROOT.name, dim, cs, 1, 3, build_dir
)
converged = oracle.build(
ROOT.parent, ROOT.name, dim, cs, 0, 200, build_dir
)
for rho in (0.7, 1.0, 1.3):
for tau0 in (0.56, 0.8):
for kind, magnitude in (
("equilibrium", 0.0),
("shear", -0.02),
("shear", 0.02),
("extension", -0.02),
("extension", 0.02),
):
stress = oracle.tensor(
dim, kind, magnitude * rho, 0, dim - 1
)
f, eq = oracle.state(dim, rho, stress)
expected = 1 / oracle.standard_tau(
tau0, cs, oracle.norm(stress), rho
)
with self.subTest(
dim=dim,
cs=cs,
rho=rho,
tau=tau0,
kind=kind,
sign=magnitude,
):
self.assertAlmostEqual(
closed(f, eq, rho, tau0), expected, delta=3e-6
)
self.assertAlmostEqual(
converged(f, eq, rho, tau0),
expected,
delta=3e-6,
)
if cs == 0:
f, eq = oracle.state(
dim, 1.0, oracle.tensor(dim, "equilibrium", 0.0)
)
self.assertAlmostEqual(
closed(f, eq, 1.0, 0.50001), 1.99, delta=3e-6
)
self.assertAlmostEqual(
closed(f, eq, 1.0, 200.0), 0.01, delta=3e-6
)
def test_removing_sqrt_two_is_detected(self):
with TemporaryDirectory() as directory:
root = Path(directory)
for relative in (HEADER, DESCRIPTORS):
target = root / "old_convention" / relative
target.parent.mkdir(parents=True, exist_ok=True)
shutil.copyfile(ROOT / relative, target)
target = root / "old_convention" / HEADER
text = target.read_text()
factor = "18.0f * sqrtf(2.0f) * smag_const_sq"
self.assertEqual(text.count(factor), 2)
target.write_text(text.replace(factor, "18.0f * smag_const_sq"))
for dim in (2, 3):
old = oracle.build(root, "old_convention", dim, 0.16, 1, 3, root)
stress = oracle.tensor(dim, "shear", 0.02)
f, eq = oracle.state(dim, 1.0, stress)
expected = 1 / oracle.standard_tau(0.8, 0.16, oracle.norm(stress), 1.0)
self.assertGreater(abs(old(f, eq, 1.0, 0.8) - expected), 1e-3)
if __name__ == "__main__":
unittest.main()
+86
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@@ -0,0 +1,86 @@
"""CPU contract of the measurement-only refined DFG timing harness (no CUDA)."""
from pathlib import Path
import sys
import unittest
import numpy as np
sys.path.insert(0, str(Path(__file__).resolve().parents[1] / "validation"))
import time_refined_dfg as t # noqa: E402
class TimingHarnessContract(unittest.TestCase):
def test_equal_simulated_duration(self):
s = t.schedule(2000, 200)
self.assertEqual(s["refined"], (200, 2000))
self.assertEqual(s["uniform"], (400, 4000)) # one refined base step = two D80 steps
self.assertAlmostEqual(s["tstar_window"], 2000 * .01 / 40)
for bad in ((0, 1), (1, -1)):
with self.assertRaises(ValueError):
t.schedule(*bad)
def test_timing_only_labels(self):
for name in ("B", "C", "E'"):
self.assertFalse(t.VARIANTS[name]["force_history_valid"])
self.assertTrue(t.VARIANTS[name]["timing_only"])
for name in ("A", "E"):
self.assertFalse(t.VARIANTS[name]["force_history_valid"]) # reads discarded
self.assertTrue(t.VARIANTS[name]["force_reads"])
self.assertIn("runner-like", t.VARIANTS[name]["force_note"])
self.assertEqual({v["case"] for v in t.VARIANTS.values()}, {"refined", "uniform"})
self.assertIn("final base interval", t.VARIANTS["C"]["force_note"])
self.assertIn("whole-window", t.VARIANTS["E'"]["force_note"])
def test_deadline(self):
import time
with self.assertRaises(TimeoutError):
t.check_deadline(time.monotonic() - 1)
t.check_deadline(time.monotonic() + 60)
def test_parity_detects_bits_and_nan_masks(self):
a = np.array([[1., np.nan], [2., 3.]], np.float32)
self.assertIsNone(t.same_state([a], [a.copy()]))
b = a.copy(); b[1, 1] = np.nextafter(np.float32(3), np.float32(4))
self.assertIn("bits", t.same_state([a], [b]))
c = a.copy(); c[0, 0] = np.nan
self.assertIn("NaN", t.same_state([a], [c]))
self.assertIn("level count", t.same_state([a], [a, a]))
inf = a.copy(); inf[1, 0] = np.inf
self.assertIn("infinite", t.same_state([inf], [inf.copy()])) # matching inf still fails
self.assertIn("infinite", t.same_state([a], [inf]))
def test_flat_uniform_ddf(self):
fluid = np.array([[True, False, True], [True, True, False]])
flat = np.ones(9 * fluid.size, np.float32) # Simulation.get_ddf() layout
self.assertTrue(t.uniform_populations_finite(flat, fluid))
flat[1 * fluid.size + 1] = np.nan # q=1, solid cell 1: ignored
self.assertTrue(t.uniform_populations_finite(flat, fluid))
flat[4 * fluid.size + 0] = np.nan # q=4, fluid cell 0: detected
self.assertFalse(t.uniform_populations_finite(flat, fluid))
self.assertTrue(t.uniform_populations_finite(np.ones((9,) + fluid.shape), fluid))
with self.assertRaises(RuntimeError):
t.uniform_populations_finite(np.ones(9 * fluid.size + 1), fluid)
def test_physical_health_limits(self):
ok = (np.array([1., 1.01]), np.array([.01, .02]), np.array([0., .01]))
health = t.physical_health([ok])
self.assertAlmostEqual(health["rho_max"], 1.01)
for bad in ((np.array([1., np.nan]),) + ok[1:],
(np.array([.4, 1.]),) + ok[1:],
(ok[0], np.array([.2, 0.]), ok[2]),
(np.array([]), np.array([]), np.array([]))):
with self.assertRaises(RuntimeError):
t.physical_health([bad])
def test_summary_reports_differences_without_claims(self):
rows = [dict(variant=v, seconds=s) for v, s in
(("A", 3.), ("A", 5.), ("B", 2.), ("C", 1.), ("E", 2.), ("E'", 1.5))]
s = t.summarize(rows, .5)
self.assertEqual(s["A"]["median_seconds"], 4.)
self.assertEqual(s["A_minus_B_seconds"], 2.)
self.assertEqual(s["B_minus_C_seconds"], 1.)
self.assertEqual(s["A_over_E"], 2.)
self.assertIn("not exact causal", s["interpretation"])
if __name__ == "__main__": unittest.main()
+38
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@@ -0,0 +1,38 @@
"""CPU contract of the A-versus-window timing harness (no CUDA)."""
from pathlib import Path
import sys
import unittest
import numpy as np
sys.path.insert(0, str(Path(__file__).resolve().parents[1] / "validation"))
import time_window_dfg as w # noqa: E402
class WindowTimingContract(unittest.TestCase):
def test_interval_and_variants(self):
self.assertEqual(w.INTERVAL, 80)
self.assertEqual(w.VARIANTS, ("A", "W", "W1"))
def test_components(self):
obs = dict(total=dict(impulse=np.array([1., 2.]), angular_impulse=3., mass_into_fluid=4.))
np.testing.assert_array_equal(w.components(obs), [1., 2., 3., 4.])
def test_interval_comparison(self):
ref = np.array([[1., -1., 0., 0.]])
scale = np.array([[10., 10., 1., 1.]])
self.assertEqual(w.compare_intervals(ref, scale, ref.copy()), 0.)
near = ref + np.array([[5e-9, 0., 0., 0.]])
self.assertLessEqual(w.compare_intervals(ref, scale, near), 1.)
far = ref + np.array([[1e-7, 0., 0., 0.]])
self.assertGreater(w.compare_intervals(ref, scale, far), 1.)
zero = np.zeros((1, 4))
self.assertGreater(w.compare_intervals(zero, zero, zero + 1e-12), 1.) # floor, no div-by-0
def test_candidate_identity_records_files(self):
identity = w.candidate_identity(Path(__file__).resolve().parents[2])
self.assertIn("checkout_revision", identity)
self.assertEqual(set(identity["sha256"]), set(w.CANDIDATE_FILES))
if __name__ == "__main__": unittest.main()
@@ -0,0 +1,110 @@
{
"base_commit": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"production_origin_commit": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_experiment": "Explicit a135252 uniform SRT LES regression. Sources pin the committed corrected tree; baseline is a synthetic isolated reverse-header control, not the committed a135252 source. Historical profiles and receipts remain unchanged.",
"sources": {
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"src/CelerisLab/lbm/kernels/config/config_obs.h": "c11e2249359145b5c4cbaaf0487506fa77c1f4b82c7c169ddc574aa0babcd727",
"src/CelerisLab/lbm/kernels/config/config_physics.h": "8ac0990b168e1058588676cc05c80df8634cfd671dbc92a89246c3c372d83a4e",
"src/CelerisLab/lbm/kernels/core/descriptors.cuh": "8440bc14857da9007982650f828a23608eec9f7cc4bf772e8c8dc1239cb45356",
"src/CelerisLab/lbm/kernels/core/flags.cuh": "0025705f24710330d9d9195f713879bfb650a85a3449baef0e196b831af104ab",
"src/CelerisLab/lbm/kernels/core/layout.cuh": "1fbd820021c89ac3efcde24145996cb0147769e607e498e61f308ed3e0b13706",
"src/CelerisLab/lbm/kernels/core/obs.cuh": "b742b77c9f61e1f020fe9922c3838ae9d855e17b381154958b58f10a22938922",
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@@ -1,6 +1,7 @@
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@@ -63,12 +64,12 @@
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} }
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}
}
@@ -0,0 +1,425 @@
"""Bounded exact-source CUDA plumbing gate; never a flow-accuracy certificate.
Run this driver externally against exact dev with --mode baseline first, then
against the experimental source with --mode candidate --baseline <receipt>.
Only scalar receipts/hashes and actual compiler sidecars are retained. Whole-step
mass/momentum are diagnostics: no verified FP32 conservation bound is claimed.
"""
import argparse
from contextlib import contextmanager
from dataclasses import replace
import hashlib
import json
import os
import shutil
from pathlib import Path
import subprocess
import sys
import numpy as np
BASE = 'ed9d8c937d446b854d6963bd92d718bb4fb98b96'
PRODUCTION = 'a135252ae78b47b57d7e77d19001700b3bedac8b'
STOPS = (0, 1, 2, 8)
OPERATOR_ATOL, OPERATOR_RTOL = 6e-8, 2e-7
REST_ATOL, REST_RTOL = 3e-7, 1e-6
REPLAY_ATOL = 3e-6
E = np.array([(0,0),(1,0),(-1,0),(0,1),(0,-1),(1,1),(-1,-1),(1,-1),(-1,1)])
W = np.array([4/9]+[1/9]*4+[1/36]*4)
def digest(array):
"""All finite bits (including signed zero) and exact NaN mask; no NaN payloads."""
array = np.asarray(array)
if np.isinf(array).any():
raise AssertionError('infinite population')
finite = np.isfinite(array)
h = hashlib.sha256()
h.update(str((array.shape, array.dtype.str)).encode())
h.update(np.ascontiguousarray(finite).tobytes())
h.update(np.ascontiguousarray(array[finite]).tobytes())
return h.hexdigest()
def independent_explosion(coarse, pair, layout, kind):
"""Coordinate oracle; never reads the production neighbor/offset tables."""
ny, nx = pair.coarse_shape
legal = np.zeros((ny,nx), bool)
legal.ravel()[pair.ghost_coarse] = True
legal &= layout.owned & ~pair.covered & (kind == 0)
if not legal.ravel()[pair.ghost_coarse].all():
raise AssertionError('illegal center donor')
out = np.empty((9,len(pair.ghost_fine)))
flat = np.asarray(coarse, np.float64).reshape(9,-1)
for row, (target, donor) in enumerate(zip(pair.ghost_fine,pair.ghost_coarse)):
y,x = divmod(int(donor),nx)
gradient = np.zeros((9,2))
for axis, (dx,dy) in enumerate(((1,0),(0,1))):
ends = [(x-dx,y-dy),(x+dx,y+dy)]
if not layout.periodic[axis] and any(not (0<=xx<nx and 0<=yy<ny) for xx,yy in ends):
continue
ends = [(xx%nx,yy%ny) for xx,yy in ends]
if all(legal[yy,xx] for xx,yy in ends):
(xm,ym),(xp,yp) = ends
gradient[:,axis] = (flat[:,yp*nx+xp]-flat[:,ym*nx+xm])/2
for q in range(1,9):
gradient[q] -= E[q]*np.dot(E[q],gradient[q])/np.dot(E[q],E[q])
fy,fx = divmod(int(target),pair.fine_shape[1])
offset = np.array([pair.fine_origin[0]+(fx+.5)/2-(x+.5),
pair.fine_origin[1]+(fy+.5)/2-(y+.5)])
out[:,row] = flat[:,int(donor)] + gradient@offset
return out
def default_options(selector):
# Exact dev has no explosion keyword. Baseline and omitted paths pass none.
return {} if selector == 'omitted' else {'explosion':selector}
def snapshot(run, raw):
from CelerisLab.lbm.refinement import ACTIVE, OUTER_GHOST
stored, public = raw(run), run.download()
hashes, totals = [], np.zeros(3)
for level,(values,visible,kind) in enumerate(zip(stored,public,run.hierarchy.kinds)):
active = kind == ACTIVE
if not np.isfinite(visible[:,active]).all() or not np.isnan(visible[:,~active]).all():
raise AssertionError('public ACTIVE/invalid mask mismatch')
if not np.isnan(values[:,kind==OUTER_GHOST]).all():
raise AssertionError('OUTER owner core is not poisoned')
population = visible[:,active].sum(axis=1,dtype=np.float64)*(.25**level)
totals += np.r_[population.sum(), E.T@population]
hashes.append(dict(raw=digest(values), public=digest(visible), active=int(active.sum())))
if not np.isfinite(totals).all():
raise AssertionError('nonfinite mass/momentum diagnostic')
return dict(step=run.step_count, levels=hashes, mass_momentum=totals.tolist())
def initialize(run, rest=False):
arrays, origin, spacing = [], np.zeros(2), 1.
for index,level in enumerate(run._levels):
if index:
origin += spacing*np.asarray(run.hierarchy.pairs[index-1].fine_origin)
spacing /= 2
y,x = np.indices(level.shape[1:],dtype=np.float64)
x,y = origin[0]+spacing*(x+.5),origin[1]+spacing*(y+.5)
q = np.arange(9)[:,None,None]
values = np.broadcast_to(W[:,None,None],level.shape).copy()
if not rest:
# q-distinct smooth non-equilibrium G; same physical frame on all levels.
values += 1e-4*np.sin(.17*x+.23*y+q)
arrays.append(values)
run.initialize(*arrays)
def operator_case(run, index):
import pycuda.driver as cuda
parent,child = run._levels[index:index+2]
geometry,pair = run.hierarchy.pairs[index],run._pairs[index]
c = np.random.default_rng(19+index).normal(0,.001,(9,*geometry.coarse_shape))
if not run._ddf_shifting:
c += W[:,None,None]
c = c.astype(np.float32)
legal = np.zeros(geometry.coarse_shape,bool)
legal.ravel()[geometry.ghost_coarse] = True
c[:,~legal] = np.nan
packed = parent.layout.to_blocked(c)
output = np.full(child.layout.blocked_shape,np.nan,np.float32)
cuda.memcpy_htod(parent.current,packed)
cuda.memcpy_htod(child.current,output)
calls, hop = [],run._hop
try:
run._hop = lambda *a,**kw: calls.append(a)
run._advance(index+1,parent.current,block=run._block,stream=run._stream)
run._stream.synchronize()
finally:
run._hop = hop
if calls != [(index+1,child.current,child.spare),(index+1,child.spare,child.current)]:
raise AssertionError('explosion changed two-hop launch contract')
cuda.memcpy_dtoh(output,child.current)
target = child.layout.owner.ravel()[geometry.ghost_fine]
slots = np.array([child.layout.slot(target,q) for q in range(9)])
actual = output.ravel()[slots]
expected = independent_explosion(c,geometry,parent.layout,run.hierarchy.kinds[index])
constant = c.reshape(9,-1)[:,geometry.ghost_coarse]
if not np.isfinite(actual).all() or np.max(abs(expected-constant)) <= 1e-5:
raise AssertionError('operator must exercise finite nonzero projected slopes')
np.testing.assert_allclose(actual,expected,atol=OPERATOR_ATOL,rtol=OPERATOR_RTOL)
untouched = np.ones(output.size,bool); untouched[slots.ravel()] = False
if not np.isnan(output.ravel()[untouched]).all():
raise AssertionError('explosion wrote outside its targets')
return dict(pair=index,rows=len(target),parent_stride=pair.parent_cells,
child_stride=int(np.prod(child.layout.local_shape)),
max_error_by_q=np.max(abs(actual-expected),axis=1).tolist(),
nonzero_projection=True,poisoned_nondonors=True,untouched_preserved=True)
def replay_two_hops(values, pair, layout, kind):
"""Existing FP64 two-hop algebra, using the independent coordinate oracle."""
from tests.unit.test_projected_explosion import collide
coarse,fine = (a.copy() for a in values)
fine.reshape(9,-1)[:,pair.ghost_fine] = independent_explosion(coarse,pair,layout,kind)
for _ in range(2):
fine = np.array([np.roll(fine[q],(ey,ex),(0,1)) for q,(ex,ey) in enumerate(E)])
fine[:,pair.fine_kind==2] = np.nan
active = pair.fine_kind==0
fine[:,active] = collide(fine[:,active],pair.tau_fine)
out = np.array([np.roll(coarse[q],(ey,ex),(0,1)) for q,(ex,ey) in enumerate(E)])
out.reshape(-1)[pair.coalesce_coarse] = fine.reshape(-1)[pair.coalesce_fine].mean(axis=1)
out[:,~pair.covered] = collide(out[:,~pair.covered],pair.tau_coarse)
out[:,pair.covered] = np.nan
return out,fine
def run_case(ctx, case, shifted, selector, raw, projected=False, replay=False):
from CelerisLab.lbm.refinement_stepper import FixedPatchStepper
cfg,refs,blocks = case
cfg = replace(cfg,velocity=0,ddf_shifting=shifted)
with FixedPatchStepper(cfg,context=ctx,refinements=refs,level_blocks=blocks,
**default_options(selector)) as run:
operator = [operator_case(run,i) for i in range(len(run._pairs))] if projected else []
counts = [0]*len(run._levels)
for index,level in enumerate(run._levels):
def counted(*a, index=index, kernel=level.kernel, **kw):
counts[index] += 1
return kernel(*a,**kw)
level.kernel = counted
def check_counts(stop):
if counts != [stop*2**index for index in range(len(counts))]:
raise AssertionError('actual level hop counts differ from acoustic schedule')
rest = []
if projected:
initialize(run,rest=True)
for stop in STOPS:
run.step(stop-run.step_count)
check_counts(stop)
snapshot(run,raw) # actual public and raw invalid masks at every stop
maximum = 0.
for values,kind in zip(run.download(),run.hierarchy.kinds):
active = values[:,kind==0]
np.testing.assert_allclose(active,np.broadcast_to(W[:,None],active.shape),
atol=REST_ATOL,rtol=REST_RTOL)
maximum = max(maximum,float(np.max(abs(active-W[:,None]))))
rest.append(dict(step=stop,max_absolute_error=maximum))
counts[:] = [0]*len(counts)
initialize(run)
reference = tuple(a.astype(np.float64) for a in run.download()) if replay else None
snapshots,replay_errors,previous = [],[],0
for stop in STOPS:
run.step(stop-run.step_count)
if replay:
for _ in range(stop-previous):
reference = replay_two_hops(reference,run.hierarchy.pairs[0],
run._levels[0].layout,run.hierarchy.kinds[0])
errors = []
for actual,expected,kind in zip(run.download(),reference,run.hierarchy.kinds):
np.testing.assert_allclose(actual[:,kind==0],expected[:,kind==0],
atol=REPLAY_ATOL,rtol=0)
errors.append(np.max(abs(actual[:,kind==0]-expected[:,kind==0]),axis=1).tolist())
replay_errors.append(dict(step=stop,max_error_by_level_q=errors))
check_counts(stop)
snapshots.append(dict(snapshot(run,raw),observed_level_hops=counts.copy())); previous = stop
change = (np.array(snapshots[-1]['mass_momentum'])-
np.array(snapshots[0]['mass_momentum'])).tolist()
return dict(operator=operator,snapshots=snapshots,rest_fixed_point=rest,
replay_max_errors=replay_errors,mass_momentum_change_diagnostic=change,
conservation_status='diagnostic_only_no_FP32_bound')
def compare_snapshots(actual,expected):
if len(actual) != len(expected):
raise AssertionError('snapshot count differs')
for got,want in zip(actual,expected):
if (got['step'] != want['step'] or got['levels'] != want['levels']
or got.get('observed_level_hops') != want.get('observed_level_hops')):
raise AssertionError('owner bits, public values or masks differ')
def cases():
from CelerisLab.config import LBMConfig
from tests.unit.test_hierarchy import CFG, FOUR
scalar = (LBMConfig(nx=16,ny=16,viscosity=.02),
[(4,4,12,12),(8,8,16,16),(8,8,16,16)],
[(4,4),(4,8),(6,4),(4,6)])
four = (CFG,FOUR,[(6,8),(8,6),(12,8),(16,12)])
concave = (LBMConfig(nx=30,ny=30,viscosity=.1),
[[(4,4,5,7),(4,5,7,7)]],[(6,5),(4,6)])
return dict(scalar=scalar,four=four,concave=concave)
def baseline_receipt(receipt, driver_hash, keys):
if (receipt.get('completed') is not True or receipt.get('dry_run') is not False
or receipt.get('mode') != 'baseline' or receipt.get('production_revision') != BASE
or receipt.get('source',{}).get('revision') != BASE
or receipt.get('source',{}).get('dirty') is not False
or receipt.get('driver_sha256') != driver_hash
or receipt.get('stops') != list(STOPS)
or receipt.get('operator_tolerance') != [OPERATOR_ATOL,OPERATOR_RTOL]
or receipt.get('rest_tolerance') != [REST_ATOL,REST_RTOL]
or receipt.get('replay_tolerance') != [REPLAY_ATOL,0]
or set(receipt.get('default_snapshots',{})) != set(keys)
or not receipt.get('actual_build_sidecars')):
raise ValueError('baseline receipt does not match the frozen exact-dev gate')
return receipt
def remap_case(ctx, shifted, raw):
from CelerisLab.lbm.refinement_stepper import FixedPatchStepper
cfg,refs,blocks = cases()['four']
with FixedPatchStepper(replace(cfg,velocity=0,ddf_shifting=shifted),context=ctx,
refinements=refs[:2],level_blocks=blocks[:3],explosion='projected_linear') as run:
initialize(run); run.step(1)
before = snapshot(run,raw)
with run.remap_child([(22,22,42,42),(72,68,76,76)]) as clone:
if clone._explosion != 'projected_linear' or any(p.neighbors is None for p in clone._pairs):
raise AssertionError('remap lost projected selection')
if clone.step_count != 1: raise AssertionError('remap lost synchronized count')
initial = snapshot(clone,raw)
clone.step(1)
after = snapshot(clone,raw)
if clone.step_count != 2: raise AssertionError('remap did not continue count')
compare_snapshots([snapshot(run,raw)],[before])
return dict(shifted=shifted,source_unchanged=True,initial=initial,continued=after)
@contextmanager
def capture_builds(report, save, baseline=None):
from CelerisLab.cuda import compiler_v2 as compiler
original = compiler.load_module
def load(path):
path = Path(path)
metadata = json.loads(Path(str(path)+'.json').read_text())
if metadata['ptx_sha256'] != hashlib.sha256(path.read_bytes()).hexdigest():
raise AssertionError('actual PTX and build sidecar disagree')
if baseline and (metadata['arch'],metadata['flags']) not in [
(m['arch'],m['flags']) for m in baseline['actual_build_sidecars']]:
raise AssertionError('baseline build architecture or flags differ')
report['actual_build_sidecars'].append(metadata)
save() # capture AMR metadata before production cleanup removes scratch
return original(str(path))
compiler.load_module = load
try:
yield
finally:
compiler.load_module = original
def preflight(repo, revision, mode):
git = lambda *a: subprocess.check_output(['git','-C',str(repo),*a],text=True).strip()
if git('rev-parse','HEAD') != revision or git('status','--porcelain'):
raise ValueError('requires the exact expected clean checkout')
source = BASE if mode == 'baseline' else PRODUCTION
if mode == 'baseline' and revision != BASE:
raise ValueError('baseline must be exact ed9d8c9')
if subprocess.call(['git','-C',str(repo),'diff','--quiet',source,'--','src']):
raise ValueError('production source differs from the frozen source revision')
return source
def main():
parser = argparse.ArgumentParser(description=__doc__)
parser.add_argument('--repo',type=Path,required=True)
parser.add_argument('--expected-revision',required=True)
parser.add_argument('--mode',choices=('baseline','candidate'),required=True)
parser.add_argument('--baseline',type=Path)
parser.add_argument('--output',type=Path,required=True)
parser.add_argument('--run-gpu',action='store_true')
parser.add_argument('--dry-run',action='store_true')
args = parser.parse_args()
if args.output.exists(): parser.error('output already exists')
selected = os.environ.get('CUDA_VISIBLE_DEVICES','')
if not args.dry_run and (not args.run_gpu or not selected or ',' in selected or selected=='-1'):
parser.error('--run-gpu and exactly one explicit CUDA_VISIBLE_DEVICES are required')
repo = args.repo.resolve()
source = preflight(repo,args.expected_revision,args.mode)
baseline = None
if args.mode == 'candidate':
if args.baseline is None: parser.error('candidate requires --baseline receipt')
baseline = json.loads(args.baseline.read_text())
sys.path[:0] = [str(repo/'src'),str(repo),str(repo/'tests/validation/multigrid'),
str(repo/'tests/validation/taylor_green')]
import CelerisLab
if Path(CelerisLab.__file__).resolve() != repo/'src/CelerisLab/__init__.py':
raise RuntimeError('wrong imported checkout')
from run_case import provenance
driver_hash = hashlib.sha256(Path(__file__).read_bytes()).hexdigest()
keys = [f'{name}:shifted={shifted}' for name in cases() for shifted in (False,True)]
if baseline is not None: baseline_receipt(baseline,driver_hash,keys)
report = dict(mode=args.mode,production_revision=source,source=provenance(repo),
driver_sha256=driver_hash,
device_selection=selected,completed=False,dry_run=args.dry_run,
operator_tolerance=[OPERATOR_ATOL,OPERATOR_RTOL],
rest_tolerance=[REST_ATOL,REST_RTOL],replay_tolerance=[REPLAY_ATOL,0],stops=STOPS,
conservation_status='diagnostic_only_no_FP32_bound',
actual_build_sidecars=[],default_snapshots={},default_equivalence=[],
projected_operator=[],union_multilevel_smoke=[],changed_remap=[])
args.output.parent.mkdir(parents=True,exist_ok=True)
def save():
text = json.dumps(report,indent=2,allow_nan=False)+'\n'
if len(text.encode()) > 8*1024*1024: raise RuntimeError('receipt exceeds 8 MiB cap')
temporary = args.output.with_suffix(args.output.suffix+'.tmp')
temporary.write_text(text); os.replace(temporary,args.output)
save()
if args.dry_run:
print('Source preflight only; no CUDA imports or execution.'); return
try:
from CelerisLab.cuda.context import CudaContext
from test_refinement_blocked_base import raw
with CudaContext(0) as ctx, capture_builds(report,save,baseline):
import pycuda.driver as cuda
report['device'] = dict(name=ctx.device.name(),pci_bus_id=ctx.device.pci_bus_id(),
capability=list(ctx.device.compute_capability()),
driver=cuda.get_driver_version(),runtime=list(cuda.get_version()))
nvcc = shutil.which('nvcc') or '/usr/local/cuda/bin/nvcc'
report['nvcc_version'] = subprocess.check_output([nvcc,'--version'],text=True).strip()
if baseline and (report['device'] != baseline.get('device')
or report['nvcc_version'] != baseline.get('nvcc_version')
or selected != baseline.get('device_selection')):
raise ValueError('baseline GPU/device selection or toolchain differs')
for name,case in cases().items():
for shifted in (False,True):
key = f'{name}:shifted={shifted}'
report['active_case'] = f'default:{key}'
result = run_case(ctx,case,shifted,'omitted',raw)
report['default_snapshots'][key] = result['snapshots']
if baseline:
compare_snapshots(result['snapshots'],baseline['default_snapshots'][key])
explicit = run_case(ctx,case,shifted,'constant',raw)
compare_snapshots(explicit['snapshots'],result['snapshots'])
report['default_equivalence'].append(dict(case=key,passed=True))
save()
if baseline:
for name,case in cases().items():
for shifted in (False,True):
report['active_case'] = f'projected:{name}:shifted={shifted}'
result = run_case(ctx,case,shifted,'projected_linear',raw,True,name=='concave')
cfg,refs,blocks = case
if name == 'four':
variant_refs = [list(reversed(rects)) for rects in refs]
elif name == 'concave':
variant_refs = [[(4,5,7,7),(4,4,5,5)]] # same union, disjoint decomposition
else:
variant_refs = refs
variant = (cfg,variant_refs,[(2,2)]*len(blocks))
alternate = run_case(ctx,variant,shifted,'projected_linear',raw,True)
compare_snapshots(alternate['snapshots'],result['snapshots'])
report['projected_operator'].append(dict(case=name,shifted=shifted,rows=result['operator']))
report['union_multilevel_smoke'].append(dict(case=name,shifted=shifted,result=result,
alternate_bits_identical=True))
save()
for shifted in (False,True):
report['active_case'] = f'changed-remap:shifted={shifted}'
report['changed_remap'].append(remap_case(ctx,shifted,raw)); save()
expected_builds = {(s['arch'],tuple(s['flags'])) for s in baseline['actual_build_sidecars']}
actual_builds = {(s['arch'],tuple(s['flags'])) for s in report['actual_build_sidecars']}
if actual_builds != expected_builds:
raise AssertionError('baseline build architecture or compiler flags differ')
report['completed'] = True
save()
except Exception as error:
report['error'] = f'{type(error).__name__}: {error}'
save(); raise
print(json.dumps(dict(completed=True,mode=args.mode,receipt=str(args.output))))
if __name__ == '__main__':
main()
@@ -0,0 +1,260 @@
"""Optional observation-window exchange ledger: host contract (mocked driver) and GPU gate.
Run CPU and GPU classes in separate processes; GPU callers select the device.
ExchangeWindowGPU uses the SRT/unshifted Jet fixture; ExchangeWindowShiftedMRTGPU covers a
shifted MRT, all-blocked, stationary-body case without Jets (no shifted-MRT Jet claim).
GPU tolerance (conservative engineering tolerance, not a universal proof): the window ledger
sums h*dt*raw per link over fine substeps, while the reference sums per-base interval ledgers
over links and then over base steps. Both are FP64 reorderings of the same FP32-exact substep
contributions, so the scale is the sum of the ACTUAL absolute substep contributions (read from
last_raw after every fine hop), not of per-base totals that could hide substep cancellation:
|window - reference| <= 4 * m * eps * sum|substep terms| + 1e-300, m = links * substeps.
"""
from contextlib import ExitStack
import unittest
from unittest.mock import patch
import numpy as np
import pycuda.driver as cuda
from CelerisLab.lbm.refinement_stepper import FixedPatchStepper
from test_refinement_blocked_base import mocked_backend
from test_refinement_blocked_fine import BOUNDS, circle, config
EPS = np.finfo(np.float64).eps
def build(m, window=True, raw=True):
return FixedPatchStepper(config("periodic"), BOUNDS, context=m["context"], base_block=(3, 4),
fine_block=(16, 20), fine_objects=[circle()],
observe_raw_exchange=raw, observe_window_exchange=window)
def same_bits(test, a, b):
"""Identical NaN masks, no infinities, identical finite FP32 bits (incl. signed zero)."""
a, b = np.asarray(a), np.asarray(b)
test.assertEqual(a.dtype, b.dtype)
test.assertFalse(np.isinf(a).any() or np.isinf(b).any())
np.testing.assert_array_equal(np.isnan(a), np.isnan(b))
finite = np.isfinite(a)
np.testing.assert_array_equal(a[finite].view(np.uint32), b[finite].view(np.uint32))
def accumulations(m):
return [c for c in m["calls"] if c[0] == "BlockAccumulateExchange"]
class ExchangeWindowCPU(unittest.TestCase):
def test_constructor_validation(self):
with mocked_backend() as m:
with self.assertRaisesRegex(ValueError, "requires observe_raw_exchange"):
build(m, window=True, raw=False)
with self.assertRaisesRegex(ValueError, "must be bool"):
build(m, window=1)
def test_state_machine_and_launches(self):
with mocked_backend() as m, ExitStack() as stack:
stack.enter_context(patch.object(cuda, "memset_d8"))
stack.enter_context(patch.object(cuda, "memset_d8_async"))
stack.enter_context(patch.object(cuda, "memcpy_dtoh",
side_effect=lambda out, src: out.fill(0)))
backend = build(m)
b = backend._level_boundaries[1]
self.assertIsNotNone(b.window_integral)
with self.assertRaises(RuntimeError):
backend.start_exchange_window() # not initialized
arrays = [np.full(level.shape, 1 / 9, np.float32) for level in backend._levels]
backend.initialize(*arrays)
with self.assertRaisesRegex(RuntimeError, "no valid exchange window"):
backend.read_exchange_window(0)
backend.step(1)
self.assertEqual(len(accumulations(m)), 2) # closed window: interval ledger only
backend.start_exchange_window()
with self.assertRaisesRegex(RuntimeError, "at least one completed"):
backend.read_exchange_window(0)
m["calls"].clear()
backend.step(2)
calls = accumulations(m)
self.assertEqual(len(calls), 8) # two fine hops x two ledgers x two base steps
self.assertEqual({id(c[1][1]) for c in calls},
{id(b.interval_integral), id(b.window_integral)})
out = backend.read_exchange_window(0)
self.assertEqual((out["time_start"], out["time_end"], out["sample_count"]), (1., 3, 4))
self.assertEqual(backend.read_exchange_window(0)["time_end"], 3) # non-destructive
backend.initialize(*arrays) # invalidates
with self.assertRaisesRegex(RuntimeError, "no valid exchange window"):
backend.read_exchange_window(0)
backend.start_exchange_window()
with patch.object(backend, "_hop", side_effect=RuntimeError("injected")):
with self.assertRaises(RuntimeError):
backend.step(1)
self.assertFalse(backend._window_valid)
with self.assertRaises(RuntimeError):
backend.read_exchange_window(0) # failed status
def test_disabled_default_has_no_window_cost(self):
with mocked_backend() as m, ExitStack() as stack:
stack.enter_context(patch.object(cuda, "memset_d8_async"))
backend = build(m, window=False)
self.assertIsNone(backend._level_boundaries[1].window_integral)
backend.initialize(*[np.full(l.shape, 1 / 9, np.float32) for l in backend._levels])
backend.step(1)
self.assertEqual(len(accumulations(m)), 2)
with self.assertRaisesRegex(RuntimeError, "disabled"):
backend.start_exchange_window()
class ExchangeWindowGPU(unittest.TestCase):
def test_window_matches_summed_base_reads_and_populations_unchanged(self):
from test_raw_exchange_gpu import BOUNDS as RB, CFG, circle as rc, jet, state
from CelerisLab.cuda.context import CudaContext
with CudaContext(0) as ctx:
kw = dict(context=ctx, fine_block=(16, 20), fine_objects=[rc()], jets=[jet()],
observe_raw_exchange=True)
with FixedPatchStepper(CFG, RB, observe_window_exchange=True, **kw) as windowed, \
FixedPatchStepper(CFG, RB, **kw) as plain:
arrays = [state(level.shape) for level in windowed._levels]
windowed.initialize(*arrays)
plain.initialize(*arrays)
windowed.step(2)
plain.step(2)
windowed.start_exchange_window()
b = windowed._level_boundaries[1]
count = len(b.tables["cell"])
factors = np.array([.25, .25, .125, .25]) # h*dt, h*h*dt, h*h for level-1 h=.5
scale = np.zeros(4)
substeps = 0
kernel = windowed._levels[1].kernel
def audited(src, dst, *args, **kw):
nonlocal scale, substeps
windowed._stream.synchronize() # BFL and both accumulations are complete
raw = np.empty((count, 4), np.float32)
cuda.memcpy_dtoh(raw, b.last_raw)
scale = scale + (np.abs(raw.astype(np.float64)) * factors).sum(axis=0)
substeps += 1
kernel(src, dst, *args, **kw)
windowed._levels[1].kernel = audited
keys = ("impulse", "angular_impulse", "mass_into_fluid")
summed = {part: [0., 0., 0., 0.] for part in ("total", "wall", "aperture")}
steps = 0
for speed in (0., .002, .002, -.001, 0., 0.): # amplitude updates stay in-window
windowed.set_jet_amplitude(0, speed)
plain.set_jet_amplitude(0, speed)
windowed.step(1)
plain.step(1)
steps += 1
obs = windowed.read_raw_exchange(0)
for part in summed:
o = obs[part]
summed[part] = [summed[part][0] + o["impulse"][0], summed[part][1] + o["impulse"][1],
summed[part][2] + o["angular_impulse"],
summed[part][3] + o["mass_into_fluid"]]
for a, e in zip(windowed._download_raw().values, plain._download_raw().values):
same_bits(self, a, e)
out = windowed.read_exchange_window(0)
self.assertEqual((out["time_end"] - out["time_start"], out["sample_count"]),
(steps, 2 * steps))
self.assertEqual(substeps, 2 * steps)
bound = 4 * (count * substeps) * EPS * scale + 1e-300
for part in summed:
o = out[part]
got = np.array([o["impulse"][0], o["impulse"][1], o["angular_impulse"],
o["mass_into_fluid"]])
diff = np.abs(got - np.array(summed[part]))
self.assertTrue((diff <= bound).all(), f"{part}: {diff} > {bound}")
np.testing.assert_array_equal(o["force"], o["impulse"] / steps)
again = windowed.read_exchange_window(0)
np.testing.assert_array_equal(again["total"]["impulse"], out["total"]["impulse"])
windowed.initialize(*arrays)
with self.assertRaises(RuntimeError):
windowed.read_exchange_window(0)
def audit_substeps(stepper, b, count, record):
"""Wrap the level-1 step kernel: after BFL and accumulation, add |substep terms| to record."""
factors = np.array([.25, .25, .125, .25])
kernel = stepper._levels[1].kernel
def audited(src, dst, *args, **kw):
stepper._stream.synchronize()
raw = np.empty((count, 4), np.float32)
cuda.memcpy_dtoh(raw, b.last_raw)
record["scale"] = record["scale"] + (np.abs(raw.astype(np.float64)) * factors).sum(axis=0)
record["substeps"] += 1
kernel(src, dst, *args, **kw)
stepper._levels[1].kernel = audited
def components(obs):
o = obs["total"]
return np.array([o["impulse"][0], o["impulse"][1], o["angular_impulse"], o["mass_into_fluid"]])
class ExchangeWindowShiftedMRTGPU(unittest.TestCase):
"""Shifted MRT, all-blocked, stationary body, NO Jet (scoped separately from SRT/Jet)."""
def test_window_step0_reset_and_split_step(self):
from test_raw_exchange_gpu import BOUNDS as RB, circle as rc, state
from CelerisLab.config import LBMConfig
from CelerisLab.cuda.context import CudaContext
cfg = LBMConfig(nx=32, ny=24, viscosity=.1, collision="MRT", ddf_shifting=True)
with CudaContext(0) as ctx:
kw = dict(context=ctx, base_block=(12, 8), fine_block=(16, 20), fine_objects=[rc()],
observe_raw_exchange=True)
with FixedPatchStepper(cfg, RB, observe_window_exchange=True, **kw) as windowed, \
FixedPatchStepper(cfg, RB, observe_window_exchange=True, **kw) as split, \
FixedPatchStepper(cfg, RB, **kw) as plain:
arrays = [state(level.shape) for level in windowed._levels]
for run in (windowed, split, plain):
run.initialize(*arrays)
run.step(2)
if run is not plain:
run.start_exchange_window()
b = windowed._level_boundaries[1]
count = len(b.tables["cell"])
record = dict(scale=np.zeros(4), substeps=0)
audit_substeps(windowed, b, count, record)
steps, summed = 5, np.zeros(4)
for _ in range(steps):
windowed.step(1)
plain.step(1)
summed += components(windowed.read_raw_exchange(0))
for a, e in zip(windowed._download_raw().values, plain._download_raw().values):
same_bits(self, a, e)
split.step(steps) # one call: same ledger arithmetic as five step(1) calls
for a, e in zip(windowed._download_raw().values, split._download_raw().values):
same_bits(self, a, e)
rows = [np.empty((count, 4), np.float64) for _ in range(2)]
cuda.memcpy_dtoh(rows[0], b.window_integral)
cuda.memcpy_dtoh(rows[1], split._level_boundaries[1].window_integral)
np.testing.assert_array_equal(rows[0].view(np.uint64), rows[1].view(np.uint64))
out = windowed.read_exchange_window(0)
self.assertEqual(record["substeps"], 2 * steps)
self.assertEqual((out["time_end"] - out["time_start"], out["sample_count"]),
(steps, 2 * steps))
bound = 4 * (count * record["substeps"]) * EPS * record["scale"] + 1e-300
diff = np.abs(components(out) - summed)
self.assertTrue((diff <= bound).all(), f"{diff} > {bound}")
np.testing.assert_array_equal(split.read_exchange_window(0)["total"]["impulse"],
out["total"]["impulse"])
windowed.step(0) # no interval: window and its duration unchanged
again = windowed.read_exchange_window(0)
self.assertEqual(again["time_end"], out["time_end"])
np.testing.assert_array_equal(again["total"]["impulse"], out["total"]["impulse"])
windowed.start_exchange_window() # reset after a window
with self.assertRaisesRegex(RuntimeError, "at least one completed"):
windowed.read_exchange_window(0)
record.update(scale=np.zeros(4), substeps=0)
windowed.step(1)
single = components(windowed.read_raw_exchange(0))
reset = windowed.read_exchange_window(0)
self.assertEqual(reset["time_end"] - reset["time_start"], 1)
bound = 4 * (count * record["substeps"]) * EPS * record["scale"] + 1e-300
self.assertTrue((np.abs(components(reset) - single) <= bound).all())
if __name__ == "__main__": unittest.main()
@@ -7,6 +7,7 @@ At most eight coarse steps per case. No files, plots or flow arrays are saved.
import hashlib import hashlib
import importlib.util import importlib.util
from contextlib import nullcontext from contextlib import nullcontext
from dataclasses import replace
from pathlib import Path from pathlib import Path
import resource import resource
import sys import sys
@@ -21,7 +22,7 @@ import CelerisLab
from CelerisLab.config import LBMConfig from CelerisLab.config import LBMConfig
from CelerisLab.cuda import compiler_v2 as compiler from CelerisLab.cuda import compiler_v2 as compiler
from CelerisLab.cuda.context import CudaContext from CelerisLab.cuda.context import CudaContext
from CelerisLab.lbm.refinement_stepper import PeriodicPatchStepper from CelerisLab.lbm.refinement_stepper import FixedPatchStepper, PeriodicPatchStepper
ROOT = Path(__file__).resolve().parents[3] ROOT = Path(__file__).resolve().parents[3]
POP_ATOL = 3e-6 POP_ATOL = 3e-6
@@ -60,6 +61,69 @@ def global_array(module, name, shape):
class CoupledGPU(unittest.TestCase): class CoupledGPU(unittest.TestCase):
def test_actual_tg_rates_one_interval(self):
"""Algebraic rate/phase check, not a new physical Taylor--Green benchmark.
The N64/Re100 TG rates are exercised on the existing small patch with
a nonequilibrium state. One interval checks g=C(f), including the
shifted blocked path; no accuracy gate or production source changes.
"""
self.assertEqual(Path(CelerisLab.__file__).resolve(), ROOT / "src/CelerisLab/__init__.py")
self.assertEqual(Path(compiler._KERNEL_DIR).resolve(), ROOT / "src/CelerisLab/lbm/kernels")
spec = replace(ref.make_spec(collision="srt"),
tau_coarse=.5576, tau_fine=.6152)
maps = ref.build_maps(spec)
state = ref.make_state(spec, velocity=(.03, -.02))
rng = np.random.default_rng(1)
state = ref.State(*(a * (1 + 1e-3 * rng.standard_normal(a.shape))
for a in (state.coarse_f, state.fine_f)))
initial = postcollision(state, spec, maps)
next_state, _ = ref.advance_coarse_once(spec, maps, state)
expected = postcollision(next_state, spec, maps)
arrivals = (next_state.coarse_f, next_state.fine_f)
cases = (("dense_unshifted", False, {}),
("blocked_shifted", True,
dict(base_block=(4, 4), fine_block=(6, 6))))
with CudaContext(0) as context:
for label, shifted, storage in cases:
with self.subTest(storage=label):
cfg = LBMConfig(nx=16, ny=16, viscosity=.0192,
ddf_shifting=shifted)
with FixedPatchStepper(cfg, (4, 4, 12, 12), context=context,
**storage) as backend:
self.assertAlmostEqual(backend.patch.tau_coarse, spec.tau_coarse)
self.assertAlmostEqual(backend.patch.tau_fine, spec.tau_fine)
self.assertEqual(tuple(level.shape for level in backend._levels),
((9, 16, 16), (9, 24, 24)))
# Physical FP64 g is encoded by initialize before FP32 rounding.
backend.initialize(*initial)
before = totals(backend.download(), maps)
backend.step(1)
actual = backend.download()
self.assertEqual(backend.step_count, 1)
backend.patch.check_synchronization(
1, next_state.tick, phase="postcollision_g")
for got, want, arrival in zip(actual, expected, arrivals):
np.testing.assert_array_equal(np.isnan(got), np.isnan(want))
np.testing.assert_allclose(got, want, rtol=0, atol=POP_ATOL,
equal_nan=True)
# A raw arrival-f comparison must fail on BOTH levels.
# Equilibrium-only data would make this control vacuous.
with self.assertRaises(AssertionError):
np.testing.assert_allclose(got, arrival, rtol=0,
atol=POP_ATOL, equal_nan=True)
np.testing.assert_allclose(totals(actual, maps), before,
rtol=0, atol=MOMENT_ATOL)
np.testing.assert_allclose(totals(actual, maps),
totals(expected, maps),
rtol=0, atol=MOMENT_ATOL)
error = max(float(np.nanmax(np.abs(a - e)))
for a, e in zip(actual, expected))
print(f"actual-TG-rate algebraic check: {label} steps=1 "
f"tau=.5576/.6152 max_population={error:.9g}; "
"wrong-phase controls PASS", flush=True)
def test_cleanup_attempts_every_allocation(self): def test_cleanup_attempts_every_allocation(self):
backend = PeriodicPatchStepper.__new__(PeriodicPatchStepper) backend = PeriodicPatchStepper.__new__(PeriodicPatchStepper)
backend.ctx = Mock(activate=nullcontext) backend.ctx = Mock(activate=nullcontext)
@@ -0,0 +1,95 @@
"""MRT reuse GPU gates. Caller owns GPU admission (CUDA_VISIBLE_DEVICES).
Run: python -m unittest discover -s tests/validation/multigrid -p test_refinement_mrt_gpu.py
Parity compares the blocked MRT channel root with uniform MRT OneStep: the existing
pressure-NEQ outlet branch differs by collision model, so SRT is never the reference.
AMR checks are finite-evolution/split-invariance smoke tests, not benchmark validation.
"""
from dataclasses import replace
import unittest
import numpy as np
from CelerisLab.config import LBMConfig
from CelerisLab.cuda.context import CudaContext
from CelerisLab.lbm.population_storage import _encode_physical
from CelerisLab.lbm.refinement_stepper import FixedPatchStepper
from test_channel_root_gpu import run_root, state
from test_refinement_blocked_base import raw, exact
class RefinementMRTGPU(unittest.TestCase):
def test_uniform_matched_mrt_root(self):
with CudaContext(0) as context:
for shifted in (False, True):
for profile in ("uniform", "parabolic"):
cfg = LBMConfig(nx=24, ny=20, viscosity=.1, velocity=.025, collision="MRT",
ddf_shifting=shifted, inlet_profile=profile)
initial = _encode_physical(state(cfg.ny, cfg.nx), shifted)
expected = run_root(cfg, context, initial)
self.assertTrue(np.isfinite(expected).all())
for block in ((20, 24), (5, 6), (4, 1)):
np.testing.assert_array_equal(run_root(cfg, context, initial, block), expected)
def test_amr_mrt_smoke(self):
from CelerisLab.body.geometry.circle import CircleGeometry
from CelerisLab.body.objects import SimObject
center = (24., 16.)
body = SimObject(0, geometry=CircleGeometry(*center, 2.15), center=center, radius=2.15)
with CudaContext(0) as context:
for boundary in ("periodic", "channel"):
for shifted in (False, True):
cfg = LBMConfig(nx=48, ny=32, viscosity=.1, velocity=.015 if boundary == "channel" else 0.,
collision="MRT", ddf_shifting=shifted)
reference = None
for block in ((32, 48), (8, 8), (4, 1)):
with FixedPatchStepper(cfg, (8, 6, 40, 26), context=context, coarse_boundary=boundary,
base_block=block, fine_block=(8, 8), fine_objects=(body,)) as backend:
backend.initialize(*[state(*level.shape[1:]) for level in backend._levels])
backend.step(8)
raw = backend._download_raw()
for a, mask in zip(raw.values, backend._state):
self.assertTrue(np.isfinite(a[:, mask]).all())
if reference is None: reference = raw.values
else:
for a, b in zip(reference, raw.values): np.testing.assert_array_equal(a, b)
def test_dense_versus_blocked_mrt_two_level(self):
"""Unshifted MRT: all-dense PatchCoarseStep/PatchFineStep vs mixed/all-blocked storage."""
from test_refinement_blocked_base import BASE_BLOCKS, FINE_BLOCK
from test_refinement_blocked_fine import NX, NY, BOUNDS
import test_refinement_blocked_fine as fixture
cfg = LBMConfig(nx=NX, ny=NY, viscosity=.1, collision="MRT")
with CudaContext(0) as context:
results = {}
layouts = ((None, None), *((base, FINE_BLOCK) for base in (None, *BASE_BLOCKS)))
for base_block, fine_block in layouts:
with FixedPatchStepper(cfg, BOUNDS, context=context, fine_block=fine_block,
base_block=base_block) as backend:
backend.initialize(*[fixture.state(*level.shape[1:], seed) for seed, level in enumerate(backend._levels)])
backend.step(4)
results[base_block, fine_block] = raw(backend)
for layout in layouts[1:]:
for level, (a, b) in enumerate(zip(results[layout], results[None, None])):
exact(self, a, b, f"layout={layout} level={level}")
def test_shifted_all_blocked_three_level_mrt_smoke(self):
"""Per-level shear rate omega_l = 1/(3*2**l*nu + 1/2); finite ACTIVE leaves."""
cfg = LBMConfig(nx=16, ny=16, viscosity=.1, collision="MRT", ddf_shifting=True)
kw = dict(fine_block=(4, 4), base_block=(4, 4), child=(8, 8, 16, 16), child_block=(4, 4))
with CudaContext(0) as context:
with FixedPatchStepper(cfg, (4, 4, 12, 12), context=context, **kw) as backend:
self.assertEqual(len(backend._level_cfgs), 3)
for level, level_cfg in enumerate(backend._level_cfgs):
checked = replace(level_cfg)
checked.validate() # omega is derived only by validate()
self.assertEqual(checked.collision, "MRT")
self.assertTrue(checked.ddf_shifting)
self.assertTrue(np.isclose(checked.omega, 1 / (3 * 2**level * .1 + .5), rtol=1e-14))
backend.initialize(*[state(*level.shape[1:]) for level in backend._levels])
backend.step(4)
values = backend._download_raw().values
for a, mask in zip(values, backend._state):
self.assertTrue(np.isfinite(a[:, mask]).all())
if __name__ == "__main__": unittest.main()
+107 -34
View File
@@ -1,4 +1,4 @@
"""Frozen matched SRT DFG comparison. GPU execution requires explicit root admission.""" """Frozen matched SRT/MRT DFG comparison. GPU execution requires explicit root admission."""
import argparse import argparse
import csv import csv
@@ -39,20 +39,22 @@ def helpers(source):
return h, periodic return h, periodic
def config(h, diameter): def config(h, diameter, collision="SRT"):
cfg, body, p = h.make_config(diameter, SPEED, "SRT", "neq_extrap", "zou_he_local") cfg, body, p = h.make_config(diameter, SPEED, collision, "neq_extrap", "zou_he_local")
cfg["method"]["outlet"]["srt_neq_damp"] = 0.5 cfg["method"]["outlet"]["srt_neq_damp"] = 0.5
return cfg, body, p return cfg, body, p
def plan(h): def plan(h, collision="SRT", observation_mode="last_base_step"):
_, _, c = config(h, 40) _, _, c = config(h, 40, collision)
_, _, f = config(h, 80) _, _, f = config(h, 80, collision)
x0, y0, x1, y1 = BOUNDS x0, y0, x1, y1 = BOUNDS
fine_active = 4 * (x1 - x0) * (y1 - y0) fine_active = 4 * (x1 - x0) * (y1 - y0)
coarse_uncovered = c["nx"] * c["ny"] - fine_active // 4 coarse_uncovered = c["nx"] * c["ny"] - fine_active // 4
return dict( return dict(
status="prepared_not_run", status="prepared_not_run",
collision=collision,
observation_mode=observation_mode,
root_gpu_gates_required=True, root_gpu_gates_required=True,
root=c, root=c,
uniform=f, uniform=f,
@@ -82,7 +84,11 @@ def plan(h):
/ (2 * f["nx"] * f["ny"]), / (2 * f["nx"] * f["ny"]),
cost_caveat="Geometry-only estimates include ghosts/solids; exclude block halos, transfers, observation and launch overhead. Not measured speedup.", cost_caveat="Geometry-only estimates include ghosts/solids; exclude block halos, transfers, observation and launch overhead. Not measured speedup.",
sampling_offset="For origin (38,22), fine physical x=(j+75.5)*dx80 versus uniform i*dx80: half-fine-cell x offset. Fine physical y=(k+42.5)*dx80 equals uniform (l-.5)*dx80 at l=k+43: y samples align. Body, wall and source planes coincide.", sampling_offset="For origin (38,22), fine physical x=(j+75.5)*dx80 versus uniform i*dx80: half-fine-cell x offset. Fine physical y=(k+42.5)*dx80 equals uniform (l-.5)*dx80 at l=k+43: y samples align. Body, wall and source planes coincide.",
outlet="SRT pressure NEQ, all nine fneq damped by .5, no backflow clamp; noncanonical DFG outlet", outlet=(
"SRT pressure NEQ, all nine fneq damped by .5, no backflow clamp; noncanonical DFG outlet"
if collision == "SRT" else
"MRT pressure NEQ, unknowns q2/6/8 extrapolated; no backflow clamp; noncanonical DFG outlet"
),
modes={"pilot_tstar": 5.0, "full_tstar": 300.0}, modes={"pilot_tstar": 5.0, "full_tstar": 300.0},
observation_dense_tstar=0.02, observation_dense_tstar=0.02,
) )
@@ -120,7 +126,7 @@ def initial_state(shape, origin, spacing, height=164.0, speed=SPEED, root=False)
return w * (1 + 3 * cu + 4.5 * cu * cu - 1.5 * velocity * velocity) return w * (1 + 3 * cu + 4.5 * cu * cu - 1.5 * velocity * velocity)
def host_geometry(source, h): def host_geometry(source, h, collision="SRT"):
"""Production donor/transfer and complete cut-link checks, without CUDA.""" """Production donor/transfer and complete cut-link checks, without CUDA."""
from CelerisLab.config import load_lbm_config from CelerisLab.config import load_lbm_config
from CelerisLab.lbm.refinement import FixedPatch2D, prepare_fine_boundary from CelerisLab.lbm.refinement import FixedPatch2D, prepare_fine_boundary
@@ -133,7 +139,7 @@ def host_geometry(source, h):
from CelerisLab.body.geometry.circle import CircleGeometry from CelerisLab.body.geometry.circle import CircleGeometry
from CelerisLab.body.objects import SimObject from CelerisLab.body.objects import SimObject
cfgdict, _, _ = config(h, 40) cfgdict, _, _ = config(h, 40, collision)
with TemporaryDirectory() as tmp: with TemporaryDirectory() as tmp:
p = Path(tmp) / "cfg.json" p = Path(tmp) / "cfg.json"
p.write_text(json.dumps(cfgdict)) p.write_text(json.dumps(cfgdict))
@@ -151,14 +157,60 @@ def host_geometry(source, h):
return cfg, pair, body, host return cfg, pair, body, host
def verify_source(source): def verify_source(source, collision="SRT", observation_mode="last_base_step"):
expected = json.loads((HERE / "data/refined_dfg/source_manifest.json").read_text()) if collision not in ("SRT", "MRT"):
raise ValueError("Matched collision must be SRT or MRT")
if observation_mode not in ("last_base_step", "window"):
raise ValueError("Unknown refined observation mode")
name = ("source_manifest_window.json" if observation_mode == "window" else
"source_manifest.json" if collision == "SRT" else "source_manifest_mrt.json")
expected = json.loads((HERE / "data/refined_dfg" / name).read_text())
for name, digest in expected["sha256"].items(): for name, digest in expected["sha256"].items():
if hashlib.sha256((source / name).read_bytes()).hexdigest() != digest: if hashlib.sha256((source / name).read_bytes()).hexdigest() != digest:
raise RuntimeError("Source mismatch: " + name) raise RuntimeError("Source mismatch: " + name)
return expected return expected
def advance_refined_interval(backend, n, deadline, observation_mode):
"""Return the same root-unit interval impulse, never an already averaged force."""
impulse = np.zeros(2)
if observation_mode == "window":
begin = backend.step_count
check_deadline(deadline)
backend.start_exchange_window()
backend.step(n)
exchange = backend.read_exchange_window(0, level=1)
if (
exchange["units"] != "base_lattice_per_unit_depth"
or exchange["window"] != "window"
or exchange["sample_count"] != 2 * n
or exchange["time_start"] != begin
or exchange["time_end"] != begin + n
or exchange["dt"] != 0.5
):
raise RuntimeError("Unexpected window force observation contract")
impulse += exchange["total"]["impulse"]
check_deadline(deadline)
return impulse
if observation_mode != "last_base_step":
raise ValueError("Unknown refined observation mode")
for _ in range(n):
check_deadline(deadline)
backend.step(1)
exchange = backend.read_raw_exchange(
0, level=1, window="last_base_step"
)
if (
exchange["units"] != "base_lattice_per_unit_depth"
or exchange["sample_count"] != 2
or exchange["time_end"] - exchange["time_start"] != 1
):
raise RuntimeError("Unexpected force observation contract")
impulse += exchange["total"]["impulse"]
check_deadline(deadline)
return impulse
def run_case(a, h, periodic, case): def run_case(a, h, periodic, case):
from CelerisLab.simulation import Simulation from CelerisLab.simulation import Simulation
from CelerisLab.cuda.context import CudaContext from CelerisLab.cuda.context import CudaContext
@@ -167,7 +219,7 @@ def run_case(a, h, periodic, case):
from contextlib import ExitStack from contextlib import ExitStack
refined = case == "refined" refined = case == "refined"
cfgdict, bodydict, p = config(h, 40 if refined else 80) cfgdict, bodydict, p = config(h, 40 if refined else 80, a.collision)
cap = 5.0 if a.mode == "pilot" else 300.0 cap = 5.0 if a.mode == "pilot" else 300.0
max_steps = math.ceil(cap * p["diameter"] / SPEED) max_steps = math.ceil(cap * p["diameter"] / SPEED)
rows = [] rows = []
@@ -179,7 +231,7 @@ def run_case(a, h, periodic, case):
dest.mkdir() dest.mkdir()
with ExitStack() as stack: with ExitStack() as stack:
if refined: if refined:
cfg, pair, body, host = host_geometry(a.source, h) cfg, pair, body, host = host_geometry(a.source, h, a.collision)
context = stack.enter_context(CudaContext(0)) context = stack.enter_context(CudaContext(0))
backend = stack.enter_context( backend = stack.enter_context(
FixedPatchStepper( FixedPatchStepper(
@@ -191,6 +243,7 @@ def run_case(a, h, periodic, case):
fine_block=FINE_BLOCK, fine_block=FINE_BLOCK,
fine_objects=(body,), fine_objects=(body,),
observe_raw_exchange=True, observe_raw_exchange=True,
**({"observe_window_exchange": True} if a.observation_mode == "window" else {}),
) )
) )
from CelerisLab.lbm.channel import channel_masks from CelerisLab.lbm.channel import channel_masks
@@ -240,20 +293,9 @@ def run_case(a, h, periodic, case):
impulse = np.zeros(2) impulse = np.zeros(2)
tick = time.monotonic() tick = time.monotonic()
if refined: if refined:
for _ in range(n): impulse = advance_refined_interval(
check_deadline(a.deadline) backend, n, a.deadline, a.observation_mode
backend.step(1) )
exchange = backend.read_raw_exchange(
0, level=1, window="last_base_step"
)
if (
exchange["units"] != "base_lattice_per_unit_depth"
or exchange["sample_count"] != 2
or exchange["time_end"] - exchange["time_start"] != 1
):
raise RuntimeError("Unexpected force observation contract")
impulse += exchange["total"]["impulse"]
check_deadline(a.deadline)
else: else:
done = 0 done = 0
while done < n: while done < n:
@@ -336,6 +378,9 @@ def run_case(a, h, periodic, case):
if len(rows) == 1: if len(rows) == 1:
ready = dict( ready = dict(
case=case, case=case,
collision=a.collision,
observation_mode=a.observation_mode,
**a.provenance,
mode=a.mode, mode=a.mode,
step=begin, step=begin,
tstar=row["tstar"], tstar=row["tstar"],
@@ -348,6 +393,9 @@ def run_case(a, h, periodic, case):
print("READY " + json.dumps(ready, allow_nan=False), flush=True) print("READY " + json.dumps(ready, allow_nan=False), flush=True)
result = dict( result = dict(
case=case, case=case,
collision=a.collision,
observation_mode=a.observation_mode,
**a.provenance,
mode=a.mode, mode=a.mode,
history=rows, history=rows,
healthy=bool(healthy), healthy=bool(healthy),
@@ -416,12 +464,16 @@ def check_deadline(deadline):
) )
def verify_pilot(path, manifest): def verify_pilot(path, manifest, collision="SRT", observation_mode="last_base_step"):
if path is None: if path is None:
raise ValueError( raise ValueError(
"Full comparison requires --pilot-results from a completed matched pilot" "Full comparison requires --pilot-results from a completed matched pilot"
) )
previous = read_finite_json(path / "plan.json") previous = read_finite_json(path / "plan.json")
if previous.get("observation_mode") != observation_mode:
raise ValueError("Pilot observation mode differs")
if previous.get("collision") != collision:
raise ValueError("Pilot collision differs")
if previous["source_manifest"] != manifest or previous["bounds_root_edge"] != list( if previous["source_manifest"] != manifest or previous["bounds_root_edge"] != list(
BOUNDS BOUNDS
): ):
@@ -432,7 +484,9 @@ def verify_pilot(path, manifest):
for case, diameter in (("uniform", 80), ("refined", 40)): for case, diameter in (("uniform", 80), ("refined", 40)):
summary = read_finite_json(path / case / "summary.json") summary = read_finite_json(path / case / "summary.json")
if ( if (
summary.get("case") != case summary.get("observation_mode") != observation_mode
or summary.get("collision") != collision
or summary.get("case") != case
or summary.get("mode") != "pilot" or summary.get("mode") != "pilot"
or summary.get("status") != "pilot_complete" or summary.get("status") != "pilot_complete"
or summary.get("healthy") is not True or summary.get("healthy") is not True
@@ -483,7 +537,9 @@ def verify_pilot(path, manifest):
raise ValueError("Unhealthy pilot observations") raise ValueError("Unhealthy pilot observations")
ready = read_finite_json(path / case / "ready.json") ready = read_finite_json(path / case / "ready.json")
if ( if (
ready.get("case") != case ready.get("observation_mode") != observation_mode
or ready.get("collision") != collision
or ready.get("case") != case
or ready.get("mode") != "pilot" or ready.get("mode") != "pilot"
or ready.get("step") != interval or ready.get("step") != interval
or ready.get("runner_sha256") != runner_hash() or ready.get("runner_sha256") != runner_hash()
@@ -507,6 +563,9 @@ def verify_pilot(path, manifest):
def main(): def main():
parser = argparse.ArgumentParser(description=__doc__) parser = argparse.ArgumentParser(description=__doc__)
parser.add_argument("--exchange-window", action="store_true",
help="Opt in to refined window-ledger observations on the pinned candidate")
parser.add_argument("--collision", choices=["SRT", "MRT"], default="SRT")
parser.add_argument("--source", type=Path, default=DEFAULT_SOURCE) parser.add_argument("--source", type=Path, default=DEFAULT_SOURCE)
parser.add_argument("--output", type=Path, required=True) parser.add_argument("--output", type=Path, required=True)
parser.add_argument("--mode", choices=["plan", "pilot", "full"], default="plan") parser.add_argument("--mode", choices=["plan", "pilot", "full"], default="plan")
@@ -519,9 +578,16 @@ def main():
) )
a = parser.parse_args() a = parser.parse_args()
a.source = a.source.resolve() a.source = a.source.resolve()
manifest = verify_source(a.source) a.observation_mode = "window" if a.exchange_window else "last_base_step"
manifest = verify_source(a.source, a.collision, a.observation_mode)
h, periodic = helpers(a.source) h, periodic = helpers(a.source)
calibration = verify_pilot(a.pilot_results, manifest) if a.mode == "full" else None from source_provenance import checkout_provenance
a.provenance = checkout_provenance(a.source)
calibration = (
verify_pilot(a.pilot_results, manifest, a.collision, a.observation_mode)
if a.mode == "full" else None
)
if a.mode != "plan" and ( if a.mode != "plan" and (
a.max_wall_seconds is None a.max_wall_seconds is None
or not math.isfinite(a.max_wall_seconds) or not math.isfinite(a.max_wall_seconds)
@@ -536,16 +602,17 @@ def main():
if a.output.exists() and any(a.output.iterdir()): if a.output.exists() and any(a.output.iterdir()):
raise ValueError("Output must be empty/new") raise ValueError("Output must be empty/new")
a.output.mkdir(parents=True, exist_ok=True) a.output.mkdir(parents=True, exist_ok=True)
specification = plan(h) specification = plan(h, a.collision, a.observation_mode)
specification.update( specification.update(
source_manifest=manifest, source_manifest=manifest,
**a.provenance,
gates=periodic.GATES, gates=periodic.GATES,
reference_gates=periodic.REFERENCE_GATES, reference_gates=periodic.REFERENCE_GATES,
runner_sha256=runner_hash(), runner_sha256=runner_hash(),
wall_time_budget_seconds=budget, wall_time_budget_seconds=budget,
full_pilot_calibration_seconds=calibration, full_pilot_calibration_seconds=calibration,
) )
host_geometry(a.source, h) host_geometry(a.source, h, a.collision)
(a.output / "plan.json").write_text(json.dumps(specification, indent=2)) (a.output / "plan.json").write_text(json.dumps(specification, indent=2))
if a.mode == "plan": if a.mode == "plan":
return 0 return 0
@@ -561,6 +628,9 @@ def main():
except TimeoutError as exc: except TimeoutError as exc:
failure = dict( failure = dict(
status="wall_time_limit", status="wall_time_limit",
collision=a.collision,
observation_mode=a.observation_mode,
**a.provenance,
case=case, case=case,
matched_case_pass=False, matched_case_pass=False,
error=str(exc), error=str(exc),
@@ -574,6 +644,9 @@ def main():
if not result["healthy"]: if not result["healthy"]:
break break
comparison = dict( comparison = dict(
collision=a.collision,
observation_mode=a.observation_mode,
**a.provenance,
status="pilot_only" if a.mode == "pilot" else "incomplete", status="pilot_only" if a.mode == "pilot" else "incomplete",
matched_case_pass=False, matched_case_pass=False,
) )
+26 -9
View File
@@ -59,17 +59,24 @@ def decode_macros(data, w, cx, cy):
return profile, *metrics return profile, *metrics
def source_guard(root, variant): EXPERIMENTS = {
manifest = json.loads((HERE / "data/les_flow/source_pins.json").read_text()) "historical": "source_pins.json",
"dev8403956": "source_pins_dev8403956.json",
"a135252": "source_pins_a135252.json",
}
def source_guard(root, variant, experiment="historical"):
manifest_path = HERE / "data/les_flow" / EXPERIMENTS[experiment]
manifest = json.loads(manifest_path.read_text())
for name, sha in manifest["sources"].items(): for name, sha in manifest["sources"].items():
expected = ( expected = sha
manifest["candidate_header_sha256"] if name == HEADER:
if name == HEADER and variant == "corrected" expected = (manifest["candidate_header_sha256"] if variant == "corrected"
else sha else manifest.get("baseline_header_sha256", sha))
)
if hashlib.sha256((root / name).read_bytes()).hexdigest() != expected: if hashlib.sha256((root / name).read_bytes()).hexdigest() != expected:
raise RuntimeError("Source pin mismatch: " + name) raise RuntimeError("Source pin mismatch: " + name)
return dict( identity = dict(
base_commit=manifest["base_commit"], base_commit=manifest["base_commit"],
production_origin_commit=manifest["production_origin_commit"], production_origin_commit=manifest["production_origin_commit"],
source_experiment=manifest["source_experiment"], source_experiment=manifest["source_experiment"],
@@ -80,12 +87,22 @@ def source_guard(root, variant):
header_sha256=hashlib.sha256((root / HEADER).read_bytes()).hexdigest(), header_sha256=hashlib.sha256((root / HEADER).read_bytes()).hexdigest(),
variant=variant, variant=variant,
) )
if experiment != "historical":
identity.update(
experiment=experiment,
source_manifest_sha256=hashlib.sha256(manifest_path.read_bytes()).hexdigest(),
)
return identity
def main(): def main():
ap = argparse.ArgumentParser(description=__doc__) ap = argparse.ArgumentParser(description=__doc__)
ap.add_argument("--root", type=Path, required=True) ap.add_argument("--root", type=Path, required=True)
ap.add_argument("--variant", choices=["baseline", "corrected"], required=True) ap.add_argument("--variant", choices=["baseline", "corrected"], required=True)
ap.add_argument(
"--experiment", choices=tuple(EXPERIMENTS), default="historical",
help="Explicit source contract; historical pins remain the default",
)
ap.add_argument("--output", type=Path, required=True) ap.add_argument("--output", type=Path, required=True)
ap.add_argument( ap.add_argument(
"--device", type=int, default=0, help="Logical device in CUDA_VISIBLE_DEVICES" "--device", type=int, default=0, help="Logical device in CUDA_VISIBLE_DEVICES"
@@ -100,7 +117,7 @@ def main():
ap.error("Output exists; choose a new evidence path") ap.error("Output exists; choose a new evidence path")
args.output.parent.mkdir(parents=True, exist_ok=True) args.output.parent.mkdir(parents=True, exist_ok=True)
root = args.root.resolve() root = args.root.resolve()
pins = source_guard(root, args.variant) pins = source_guard(root, args.variant, args.experiment)
# Refuse installed-package shadowing; import only after explicit GPU opt-in. # Refuse installed-package shadowing; import only after explicit GPU opt-in.
sys.path.insert(0, str(root / "src")) sys.path.insert(0, str(root / "src"))
import CelerisLab import CelerisLab
@@ -0,0 +1,208 @@
"""New-source four-case repeat of 11901a7; frozen oracle and gates are unchanged."""
import argparse
import json
import math
from pathlib import Path
from assess import BASELINE_FACTOR, FLOORS
from oracle import LIMITS, TIMES, U, rectangles
from run_case import (INITIALIZATION, sample_steps, NUMERICAL_REVISION, SOURCE_SHA256,
BUILD_CAPTURE_SHA256, REFERENCE_HARNESS)
# Host-generated snapshots of a135252 at the frozen two local configurations.
# These describe expected inputs; actual sidecars are captured before cleanup.
BUILD_SOURCES = {
128: "803177416b7599ab89cc5afd35cf4a28a673b2f4bb8e8a6a1abc0b6d77610873",
256: "17ec5e60f87b840d3d13b8778bc8a3aecf485469c5a061af46c5cc19b73396cf",
}
CASES = ((100, 128, 1, "constant"), (100, 256, 1, "constant"),
(100, 128, 2, "constant"), (100, 128, 2, "projected_linear"))
NUMERICS = dict(lattice_model="D2Q9", collision="SRT", store_precision="FP32",
ddf_shifting=True, streaming="double_buffer", les_enabled=False,
boundary="periodic", block_shape=[8, 8],
sample_phase="postcollision G at root synchronization")
def finite(value):
return isinstance(value, (int, float)) and not isinstance(value, bool) and math.isfinite(value)
def finite_tree(value):
if isinstance(value, dict):
return all(finite_tree(v) for v in value.values())
if isinstance(value, list):
return all(finite_tree(v) for v in value)
return not isinstance(value, float) or math.isfinite(value)
def at_steps(rows, steps, n):
return len(rows) == len(steps) and all(
type(r.get("step")) is int and r["step"] == step and finite(r.get("tstar"))
and abs(r["tstar"] - step * U / n) <= 3e-17
for r, step in zip(rows, steps)
)
def maximum(rows, metric):
values = [r.get(metric) for r in rows]
return max(values) if values and all(finite(v) and v >= 0 for v in values) else None
def valid_builds(record, n, depth):
builds = record.get("actual_build_sidecars", [])
if not isinstance(builds, list) or len(builds) != depth:
return False
for level, build in enumerate(builds):
if not isinstance(build, dict):
return False
size = n * 2**level
cfg = build.get("config", {})
expected = dict(nx=10, ny=10, nz=1, lattice_model="D2Q9", collision="SRT",
store_precision="FP32", streaming="double_buffer", ddf_shifting=True,
les_enabled=False, velocity=0.0, viscosity=U*size/100, rho=1.0,
omega=1/(.5+3*U*size/100), threads_per_block=256)
ptx = build.get("ptx_sha256", "")
if (build.get("source_sha256") != BUILD_SOURCES[size]
or build.get("arch") != "sm_70" or build.get("flags") != ["--use_fast_math"]
or build.get("n_objects") != 0 or not isinstance(cfg, dict)
or any(cfg.get(k) != value for k, value in expected.items())
or not isinstance(ptx, str) or len(ptx) != 64
or any(c not in "0123456789abcdef" for c in ptx)):
return False
return True
def assess(records, expected_revision=None):
indexed, duplicates = {}, []
for record in records:
key = tuple(record.get(k) for k in ("re_L", "n", "depth", "explosion"))
if key in indexed:
duplicates.append(str(key))
else:
indexed[key] = record
missing = [str(k) for k in CASES if k not in indexed]
checks = dict(complete_matrix=not missing, no_extra_cases=set(indexed) <= set(CASES),
no_duplicate_cases=not duplicates, finite_receipts=finite_tree(records))
sources = [r.get("source", {}) for r in records]
checks["same_source_and_harness"] = bool(sources) and len({
json.dumps(s, sort_keys=True) for s in sources}) == 1
checks["clean_a135252_numerical_source"] = bool(sources) and all(
s.get("dirty") is False and s.get("source_tree_sha256") == SOURCE_SHA256
and bool(s.get("revision")) and bool(s.get("harness_sha256"))
and s.get("build_capture_sha256") == BUILD_CAPTURE_SHA256
and (expected_revision is None or s.get("revision") == expected_revision) for s in sources)
runtimes = [r.get("runtime_identity") for r in records]
checks["same_recorded_runtime"] = bool(runtimes) and all(
isinstance(v, dict) and all(v.get(k) for k in
("device", "nvcc_path", "nvcc_version", "python", "numpy", "pycuda"))
and isinstance(v["device"], dict) and v["device"].get("capability") == [7, 0]
and all(v["device"].get(k) for k in ("name", "pci_bus_id", "driver", "runtime"))
for v in runtimes
) and len({json.dumps(v, sort_keys=True) for v in runtimes}) == 1
devices = [r.get("cuda_visible_devices") for r in records]
checks["same_explicit_device"] = bool(devices) and all(
isinstance(d, str) and d and "," not in d and d != "-1" for d in devices
) and len(set(devices)) == 1
enabled = [r.get("early_pressure", {}).get("enabled") for r in records]
checks["same_early_sampling"] = bool(enabled) and all(type(v) is bool for v in enabled) and len(set(enabled)) == 1
shared_valid = all(checks.values())
complete, case_valid, early = {}, {}, []
for key in CASES:
if key not in indexed:
continue
r = indexed[key]
_, n, depth, scheme = key
label = f"{n}/{depth}/{scheme}"
rows = r.get("rows", [])
main_steps, early_steps = sample_steps(n, True)
complete[key] = r.get("completed") is True and at_steps(rows, main_steps, n)
checks[label + " complete_times"] = complete[key]
checks[label + " scales"] = (
r.get("U") == U and finite(r.get("viscosity"))
and abs(r["viscosity"] - U * n / 100) < 1e-15
and r.get("tau_by_level") == [0.5 + 3 * U * n / 100 * 2**l for l in range(depth)]
and r.get("mach") == U * math.sqrt(3)
)
checks[label + " actual_builds"] = valid_builds(r, n, depth)
checks[label + " reference"] = (r.get("numerical_revision") == NUMERICAL_REVISION
and r.get("reference_harness") == REFERENCE_HARNESS)
checks[label + " numerics"] = r.get("numerics") == NUMERICS and r.get("initialization") == INITIALIZATION
runtime = r.get("runtime_source", {})
package = Path(runtime.get("checkout", "")) / "src/CelerisLab"
checks[label + " runtime_source"] = bool(runtime.get("checkout")) and all(
runtime.get(k) == str(package / tail) for k, tail in
(("module", "__init__.py"), ("compiler", "cuda/compiler_v2.py"), ("kernel_root", "lbm/kernels")))
expected_patch = [] if depth == 1 else rectangles(n, depth)
checks[label + " patch"] = json.dumps(r.get("refinements")) == json.dumps(expected_patch)
cells = [n*n] if depth == 1 else [8704, 30720]
hops = [16*n * 2**l for l in range(depth)]
work = r.get("workload", {})
checks[label + " workload"] = (
work.get("active_cells_by_level") == cells and work.get("level_hops") == hops
and work.get("root_intervals") == 16*n
and work.get("active_collision_updates_by_level") == [c*h for c, h in zip(cells, hops)]
and work.get("active_collision_updates") == sum(c*h for c, h in zip(cells, hops))
)
checks[label + " absolute"] = bool(rows) and all(
finite(row.get(metric)) and 0 <= row[metric] <= limit
for row in rows for metric, limit in LIMITS.items())
trace = r.get("early_pressure", {})
trace_rows = trace.get("rows", [])
peak = maximum(trace_rows, "pressure_l2")
trace_complete = at_steps(trace_rows, early_steps, n) and peak is not None
checks[label + " early_trace"] = (
trace_complete and trace.get("sampled_max_pressure_l2") == peak
and len(rows) >= 2 and all(trace_rows[i]["pressure_l2"] == rows[j].get("pressure_l2")
for i, j in ((0, 0), (-1, 1)))
if trace.get("enabled") is True else
trace.get("enabled") is False and trace_rows == [] and trace.get("sampled_max_pressure_l2") is None
)
early.append(dict(n=n, depth=depth, explosion=scheme, enabled=trace.get("enabled"),
samples=len(trace_rows), complete=trace_complete,
sampled_max_pressure_l2=peak))
case_valid[key] = all(value for name, value in checks.items() if name.startswith(label + " "))
def worst(key, metric):
return maximum(indexed[key]["rows"][1:], metric) if complete.get(key) else None
comparisons, scheme_results = [], {}
for scheme in ("constant", "projected_linear"):
key = (100, 128, 2, scheme)
for metric, floor in FLOORS.items():
amr, coarse, fine = (worst(k, metric) for k in (key, CASES[0], CASES[1]))
budget = None if coarse is None else max(BASELINE_FACTOR * coarse, floor)
budget = budget if finite(budget) else None
ratio = None if amr is None or fine is None else amr / max(fine, 1e-30)
passed = amr is not None and budget is not None and amr <= budget
checks[f"baseline {scheme}/{metric}"] = passed
comparisons.append(dict(explosion=scheme, metric=metric, amr=amr,
uniform128=coarse, baseline_budget=budget, passed=passed,
uniform256=fine, amr_to_uniform256=ratio if finite(ratio) else None))
baseline_passed = all(checks[f"baseline {scheme}/{metric}"] for metric in FLOORS)
valid = shared_valid and all(case_valid.get(k, False) for k in (CASES[0], CASES[1], key))
scheme_results[scheme] = dict(passed=valid and baseline_passed,
valid_case_and_controls=valid, baseline_passed=baseline_passed)
return dict(passed=all(checks.values()), missing=missing, duplicates=duplicates, checks=checks,
comparisons=comparisons, scheme_results=scheme_results, early_pressure=early,
numerical_revision=NUMERICAL_REVISION, source_tree_sha256=SOURCE_SHA256,
reference_harness=REFERENCE_HARNESS, expected_revision=expected_revision,
floors=FLOORS, baseline_factor=BASELINE_FACTOR,
main_statistic="maximum of four post-initial samples at t*=.12,.24,.36,.48",
early_statistic="sampled pressure maximum only, t*=k*.001875, k=0..64; not an all-step or continuous maximum",
finest_control="uniform256 and AMR/ uniform256 ratios are descriptive, not acceptance gates",
scope="2D periodic Re100 smooth-decay diagnostic; no new algorithm, convergence-order or general AMR qualification")
if __name__ == "__main__":
p = argparse.ArgumentParser(description=__doc__)
p.add_argument("files", type=Path, nargs="+")
p.add_argument("--output", type=Path, required=True)
p.add_argument("--expected-revision", required=True)
args = p.parse_args()
if args.output.exists():
p.error("Output already exists; choose a new path to retain prior evidence")
result = assess([json.loads(path.read_text()) for path in args.files], args.expected_revision)
args.output.write_text(json.dumps(result, indent=2, allow_nan=False) + "\n")
print(json.dumps(result, indent=2, allow_nan=False))
raise SystemExit(0 if result["passed"] else 1)
+134 -21
View File
@@ -1,9 +1,10 @@
"""One bounded GPU case. No production edits, plots, checkpoints or field dumps.""" """One bounded GPU case, with explicit opt-in experimental explosion."""
import argparse import argparse
import hashlib import hashlib
import json import json
import os import os
import shutil
from pathlib import Path from pathlib import Path
import subprocess import subprocess
import sys import sys
@@ -12,6 +13,35 @@ import time
import numpy as np import numpy as np
from oracle import U, TIMES, LIMITS, initial, metrics, rectangles from oracle import U, TIMES, LIMITS, initial, metrics, rectangles
NUMERICAL_REVISION = "a135252ae78b47b57d7e77d19001700b3bedac8b"
SOURCE_SHA256 = "a5dbfd804befce868067d79a23e5fd47dce7f505b3f9b1bb2145fb57cb5f2178"
BUILD_CAPTURE_SHA256 = "3dbaa6547cb0a4cb1541054f3b64ad8b6e18cc70527ac6166e56b944e9bd464a"
REFERENCE_HARNESS = "11901a7f77557a901e017a171eeae1758d584fa5"
INITIALIZATION = "physical FP64 equilibrium G at actual cell centers; rho=1+3p"
def sample_steps(n, early_pressure=False):
"""Root synchronization steps; early ladder matches the 707afe6 diagnostic."""
main = [round(tstar * n / U) for tstar in TIMES]
early = list(range(0, 4 * n + 1, n // 16)) if early_pressure else []
return main, early
def runtime_source(repo):
"""Fail before CUDA if Python or the compiler snapshot comes from another tree."""
import CelerisLab
from CelerisLab.cuda import compiler_v2
paths = dict(module=Path(CelerisLab.__file__).resolve(),
compiler=Path(compiler_v2.__file__).resolve(),
kernel_root=Path(compiler_v2.kernel_path("blocks.cu")).resolve().parent)
package = repo / "src/CelerisLab"
expected = dict(module=package / "__init__.py", compiler=package / "cuda/compiler_v2.py",
kernel_root=package / "lbm/kernels")
if paths != expected:
raise RuntimeError("Wrong imported source or CUDA source/include root")
return dict(checkout=str(repo), **{key: str(path) for key, path in paths.items()})
def provenance(repo): def provenance(repo):
git = lambda *a: subprocess.check_output( git = lambda *a: subprocess.check_output(
@@ -34,6 +64,46 @@ def provenance(repo):
) )
def verify_source(repo, revision):
"""Exact clean harness commit, fixed production tree, and reviewed capture helper."""
import oracle
from tests.validation.multigrid import check_projected_pairs as gate
harness = repo / "tests/validation/taylor_green"
if (Path(__file__).resolve() != harness / "run_case.py"
or Path(oracle.__file__).resolve() != harness / "oracle.py"):
raise RuntimeError("Wrong runner or oracle checkout")
helper = repo / "tests/validation/multigrid/check_projected_pairs.py"
if (Path(gate.__file__).resolve() != helper
or hashlib.sha256(helper.read_bytes()).hexdigest() != BUILD_CAPTURE_SHA256):
raise RuntimeError("Wrong build-capture helper")
if gate.preflight(repo, revision, "candidate") != NUMERICAL_REVISION:
raise RuntimeError("Wrong production revision")
result = provenance(repo)
if result["source_tree_sha256"] != SOURCE_SHA256:
raise RuntimeError("Wrong numerical source fingerprint")
result["build_capture_sha256"] = BUILD_CAPTURE_SHA256
return result
def build_capture(report, save):
from tests.validation.multigrid.check_projected_pairs import capture_builds
return capture_builds(report, save)
def runtime_identity(ctx):
import pycuda
import pycuda.driver as cuda
nvcc = shutil.which("nvcc") or "/usr/local/cuda/bin/nvcc"
return dict(device=dict(name=ctx.device.name(), pci_bus_id=ctx.device.pci_bus_id(),
capability=list(ctx.device.compute_capability()),
driver=cuda.get_driver_version(), runtime=list(cuda.get_version())),
nvcc_path=str(Path(nvcc).resolve()),
nvcc_version=subprocess.check_output([nvcc, "--version"], text=True).strip(),
python=sys.version, numpy=np.__version__, pycuda=pycuda.VERSION_TEXT)
def config(n, re): def config(n, re):
from CelerisLab.config import LBMConfig from CelerisLab.config import LBMConfig
@@ -71,19 +141,31 @@ def workload(masks, base_steps):
def main(): def main():
p = argparse.ArgumentParser(description=__doc__) p = argparse.ArgumentParser(description=__doc__)
p.add_argument("--repo", type=Path, required=True) p.add_argument("--repo", type=Path, required=True)
p.add_argument("--expected-revision", required=True)
p.add_argument("--run-gpu", action="store_true")
p.add_argument("--dry-run", action="store_true")
p.add_argument("--re", type=int, choices=[100, 1000], required=True) p.add_argument("--re", type=int, choices=[100, 1000], required=True)
p.add_argument("--n", type=int, choices=[32, 64, 128, 256], required=True) p.add_argument("--n", type=int, choices=[32, 64, 128, 256], required=True)
p.add_argument("--depth", type=int, choices=[1, 2, 3], required=True) p.add_argument("--depth", type=int, choices=[1, 2, 3], required=True)
p.add_argument("--output", type=Path, required=True) p.add_argument("--output", type=Path, required=True)
p.add_argument("--explosion", choices=["constant", "projected_linear"], default="constant")
p.add_argument("--early-pressure", action="store_true",
help="also save 65 scalar pressure samples at t*=k*.001875, k=0..64")
args = p.parse_args() args = p.parse_args()
if not os.environ.get("CUDA_VISIBLE_DEVICES"): if args.output.exists():
p.error("Explicit physical CUDA_VISIBLE_DEVICES selection required") p.error("Output already exists; choose a new path to retain prior evidence")
if args.explosion != "constant" and args.depth != 2:
p.error("projected_linear requires depth 2")
selected = os.environ.get("CUDA_VISIBLE_DEVICES", "")
if not args.dry_run and (not args.run_gpu or not selected or "," in selected or selected == "-1"):
p.error("--run-gpu and exactly one explicit CUDA_VISIBLE_DEVICES are required")
repo = args.repo.resolve() repo = args.repo.resolve()
sys.path.insert(0, str(repo / "src")) sys.path[:0] = [str(repo / "src"), str(repo)]
import CelerisLab source = verify_source(repo, args.expected_revision)
runtime = runtime_source(repo)
if Path(CelerisLab.__file__).resolve() != repo / "src/CelerisLab/__init__.py": if args.dry_run:
raise RuntimeError("Wrong imported source checkout") print(json.dumps(dict(source=source, runtime_source=runtime, dry_run=True)))
return 0
from CelerisLab.cuda.context import CudaContext from CelerisLab.cuda.context import CudaContext
from CelerisLab.lbm.blocks import BlockLayout2D from CelerisLab.lbm.blocks import BlockLayout2D
from CelerisLab.lbm.block_stepper import PeriodicBlockStepper from CelerisLab.lbm.block_stepper import PeriodicBlockStepper
@@ -96,9 +178,17 @@ def main():
h = build_hierarchy(cfg, refinements) h = build_hierarchy(cfg, refinements)
np.testing.assert_array_equal(leaf_partition(h), np.ones((args.n, args.n))) np.testing.assert_array_equal(leaf_partition(h), np.ones((args.n, args.n)))
masks = [k == ACTIVE for k in h.kinds] masks = [k == ACTIVE for k in h.kinds]
main_steps, early_steps = sample_steps(args.n, args.early_pressure)
report = dict( report = dict(
schema=1, schema=1,
source=provenance(repo), source=source,
numerical_revision=NUMERICAL_REVISION,
reference_harness=REFERENCE_HARNESS,
actual_build_sidecars=[],
runtime_identity=None,
runtime_source=runtime,
historical_baseline_revision="9805383f9c50d867e8555471baf5dbda8333a652",
explosion=args.explosion,
n=args.n, n=args.n,
re_L=args.re, re_L=args.re,
depth=args.depth, depth=args.depth,
@@ -107,21 +197,35 @@ def main():
mach=U * np.sqrt(3), mach=U * np.sqrt(3),
viscosity=cfg.viscosity, viscosity=cfg.viscosity,
tau_by_level=[0.5 + 3 * c.viscosity for c in h.configs], tau_by_level=[0.5 + 3 * c.viscosity for c in h.configs],
initialization="physical FP64 equilibrium G at actual cell centers; rho=1+3p", initialization=INITIALIZATION,
cuda_visible_devices=os.environ["CUDA_VISIBLE_DEVICES"], numerics=dict(lattice_model=cfg.lattice_model, collision=cfg.collision,
store_precision=cfg.store_precision, ddf_shifting=cfg.ddf_shifting,
streaming=cfg.streaming, les_enabled=cfg.les_enabled,
boundary="periodic", block_shape=[8, 8],
sample_phase="postcollision G at root synchronization"),
cuda_visible_devices=selected,
device_id=0, device_id=0,
limits=LIMITS, limits=LIMITS,
workload=workload(masks, round(TIMES[-1] * args.n / U)), workload=workload(masks, round(TIMES[-1] * args.n / U)),
rows=[], rows=[],
early_pressure=dict(enabled=args.early_pressure, rows=[],
sampled_max_pressure_l2=None),
completed=False, completed=False,
) )
args.output.parent.mkdir(parents=True, exist_ok=True) args.output.parent.mkdir(parents=True, exist_ok=True)
save = lambda: args.output.write_text( def save():
json.dumps(report, indent=2, allow_nan=False) + "\n" temporary = args.output.with_suffix(args.output.suffix + ".tmp")
) text = json.dumps(report, indent=2, allow_nan=False) + "\n"
if len(text.encode()) > 1024 * 1024:
raise RuntimeError("Scalar receipt exceeds 1 MiB cap")
temporary.write_text(text)
temporary.replace(args.output)
save() save()
started = time.monotonic() started = time.monotonic()
with CudaContext(0) as ctx: with CudaContext(0) as ctx, build_capture(report, save):
report["runtime_identity"] = runtime_identity(ctx)
save()
if args.depth == 1: if args.depth == 1:
layout = BlockLayout2D.build(args.n, args.n, 8, 8, periodic=(True, True)) layout = BlockLayout2D.build(args.n, args.n, 8, 8, periodic=(True, True))
run = PeriodicBlockStepper(cfg, layout, context=ctx) run = PeriodicBlockStepper(cfg, layout, context=ctx)
@@ -132,6 +236,7 @@ def main():
coarse_boundary="periodic", coarse_boundary="periodic",
refinements=refinements, refinements=refinements,
level_blocks=[(8, 8)] * args.depth, level_blocks=[(8, 8)] * args.depth,
explosion=args.explosion,
) )
with run: with run:
run.initialize( run.initialize(
@@ -141,24 +246,30 @@ def main():
] ]
) )
initial_mass = None initial_mass = None
for tstar in TIMES: for step in sorted(set(main_steps + early_steps)):
step = round(tstar * args.n / U)
run.step(step - run.step_count) run.step(step - run.step_count)
arrays = (run.download(),) if args.depth == 1 else run.download() arrays = (run.download(),) if args.depth == 1 else run.download()
row = metrics(arrays, masks, step, args.n, cfg.viscosity, initial_mass) row = metrics(arrays, masks, step, args.n, cfg.viscosity, initial_mass)
if not all(np.isfinite(value) for value in row.values()):
raise FloatingPointError("nonfinite sample diagnostics")
row["step"] = step row["step"] = step
if initial_mass is None: if initial_mass is None:
initial_mass = row["mass"] initial_mass = row["mass"]
report["rows"].append(row) if step in main_steps:
report["rows"].append(row)
if step in early_steps:
trace = report["early_pressure"]
trace["rows"].append({key: row[key] for key in ("step", "tstar", "pressure_l2")})
trace["sampled_max_pressure_l2"] = max(r["pressure_l2"] for r in trace["rows"])
save() save()
print( print(
json.dumps( json.dumps(
dict( dict(
event="PROGRESS", event="PROGRESS" if step in main_steps else "EARLY_PRESSURE",
n=args.n, n=args.n,
re_L=args.re, re_L=args.re,
depth=args.depth, depth=args.depth,
**row, **(row if step in main_steps else report["early_pressure"]["rows"][-1]),
) )
), ),
flush=True, flush=True,
@@ -168,7 +279,9 @@ def main():
# This is the first measured trajectory step, not discarded warmup. # This is the first measured trajectory step, not discarded warmup.
run.step(1) run.step(1)
probe = (run.download(),) if args.depth == 1 else run.download() probe = (run.download(),) if args.depth == 1 else run.download()
metrics(probe, masks, 1, args.n, cfg.viscosity, initial_mass) probe_metrics = metrics(probe, masks, 1, args.n, cfg.viscosity, initial_mass)
if not all(np.isfinite(value) for value in probe_metrics.values()):
raise FloatingPointError("nonfinite READY diagnostics")
report["ready_after_step"] = 1 report["ready_after_step"] = 1
save() save()
print( print(
@@ -0,0 +1,434 @@
"""Host geometry, receipt-corruption tests and mocked scheduling; no CUDA/flow."""
from contextlib import nullcontext, redirect_stdout
from copy import deepcopy
from dataclasses import asdict, replace
import hashlib
import io
import json
from pathlib import Path
import subprocess
import sys
import tempfile
from types import SimpleNamespace
import unittest
from unittest.mock import patch
import numpy as np
import run_case
from assess_projected_pairs import (BUILD_SOURCES, CASES, NUMERICS, NUMERICAL_REVISION,
SOURCE_SHA256, assess)
from oracle import LIMITS, TIMES, U, rectangles
REPO = Path(__file__).resolve().parents[3]
OLD_REVISION = "519473a61c7b319183aa54e55b9f097499dde0bf"
MOCK_REVISION = "f" * 40
RUNTIME = dict(device=dict(name="host mock", pci_bus_id="mock", capability=[7, 0],
driver=12040, runtime=[12, 4, 0]), nvcc_path="/mock/nvcc",
nvcc_version="mock nvcc", python="mock Python", numpy=np.__version__, pycuda="mock")
def source():
return dict(revision=MOCK_REVISION, dirty=False, source_tree_sha256=SOURCE_SHA256,
harness_sha256={"run_case.py": "a" * 64},
build_capture_sha256=run_case.BUILD_CAPTURE_SHA256)
def build_metadata(size):
cfg = replace(run_case.config(size, 100), nx=10, ny=10)
cfg.validate()
return dict(source_sha256=BUILD_SOURCES[size], config=asdict(cfg), n_objects=0,
arch="sm_70", flags=["--use_fast_math"], ptx_sha256="b" * 64)
def records(early=False):
from CelerisLab.lbm.hierarchy import build_hierarchy
from CelerisLab.lbm.refinement import ACTIVE
out = []
for re, n, depth, scheme in CASES:
cfg = run_case.config(n, re)
refinements = [] if depth == 1 else rectangles(n, depth)
h = build_hierarchy(cfg, refinements)
main_steps, early_steps = run_case.sample_steps(n, early)
out.append(dict(
re_L=re, n=n, depth=depth, explosion=scheme, U=U, mach=float(U*np.sqrt(3)),
viscosity=cfg.viscosity, tau_by_level=[0.5+3*c.viscosity for c in h.configs],
refinements=refinements, numerics=NUMERICS.copy(), initialization=run_case.INITIALIZATION,
source=source(), numerical_revision=NUMERICAL_REVISION,
reference_harness=run_case.REFERENCE_HARNESS,
actual_build_sidecars=[build_metadata(n * 2**level) for level in range(depth)],
runtime_identity=deepcopy(RUNTIME), cuda_visible_devices="0",
runtime_source=run_case.runtime_source(REPO), completed=True,
workload=run_case.workload([k == ACTIVE for k in h.kinds], 16*n),
rows=[dict(step=s, tstar=s*U/n, **{k: 0.0 for k in LIMITS}) for s in main_steps],
early_pressure=dict(enabled=early, rows=[
dict(step=s, tstar=s*U/n, pressure_l2=.01 if s not in main_steps else 0.0) for s in early_steps],
sampled_max_pressure_l2=.01 if early else None)))
return out
class ProjectedPairsTests(unittest.TestCase):
def test_exact_geometry_work_and_samples(self):
from CelerisLab.lbm.hierarchy import build_hierarchy, leaf_partition
data = records(True)
self.assertEqual(sum(r["workload"]["active_collision_updates"] for r in data), 589299712)
for r in data:
n, depth = r["n"], r["depth"]
h = build_hierarchy(run_case.config(n, 100), r["refinements"])
np.testing.assert_array_equal(leaf_partition(h), np.ones((n, n)))
main, early = run_case.sample_steps(n, True)
self.assertEqual(main, [0, 4*n, 8*n, 12*n, 16*n])
self.assertEqual(early, [k*(n//16) for k in range(65)])
np.testing.assert_allclose(np.array(early)*U/n, np.arange(65)*.001875, rtol=0, atol=3e-17)
if depth == 2:
self.assertEqual(r["refinements"], [[(16, 16, 112, 96)]])
self.assertTrue(assess(data)["passed"])
self.assertTrue(assess(records())["passed"])
def test_exact_old519_geometry_and_table_parity(self):
from CelerisLab.lbm.blocks import BlockLayout2D
from CelerisLab.lbm.hierarchy import build_hierarchy
from CelerisLab.lbm.refinement_tables import projected_explosion_tables
# Frozen from executing exact 519473a61c7b319183aa54e55b9f097499dde0bf
# geometry and table definitions, after checking unchanged config,
# descriptors and blocks. No historical Git object is needed at runtime.
# Historical source SHA256, refinement.py then refinement_tables.py:
# 08c2a0557276a98cbcaa459d9bb7a9735d8bbbf64a6114c57af2fda61481a687
# dabff948bb30496384d1a52c666b0edbc2085f9c61ed1bbc39f748502629113d
frozen = {
"covered": ("|b1", (128, 128), "14a1b5be54e3309bea825a00a653105951f0c805622b877a86dd453d65556df3"),
"fine_kind": ("|u1", (256, 256), "891ff72c3d60686c62b1f35ffe59d054ac23b8f9d59aeb5782bc941202794cc0"),
"ghost_fine": ("<u8", (2880,), "2d0311ac0feb1c0e1e2b6bcf806fe616b8217513de218407267dcd7652287579"),
"ghost_coarse": ("<u4", (2880,), "5a3b305a0f841c8d05a13f105fda02b43ef875ab1321f9bca579f2b8ae313233"),
"coalesce_coarse": ("<u8", (1060,), "a1d88c60f282153dcf2bb497c59d777968b6db773d061d8fea08163c98155967"),
"coalesce_fine": ("<u8", (1060, 4), "08914c5d17c1ec8e2bfd234f581e4b3283de26296ae7d80403385feed7b89532"),
"neighbors": ("<u8", (2880, 4), "cfef3a07103241e3dfff24fd65ab967afcf20520f699574b191044d47cf5d1f4"),
"offsets": ("<f4", (2880, 2), "c98ba658d5f2cc18605e029fbe1da448ded3fd2436edcaf8ea097fa46aeb1f2d"),
}
hierarchy = build_hierarchy(run_case.config(128, 100), rectangles(128, 2))
pair = hierarchy.pairs[0]
self.assertEqual((pair.coarse_shape, pair.fine_shape, pair.fine_origin),
((128, 128), (256, 256), (0.0, 0.0)))
self.assertEqual(len(np.unique(pair.ghost_coarse)), 720)
self.assertTrue((hierarchy.kinds[0].ravel()[pair.ghost_coarse] == 0).all())
layout = BlockLayout2D.build(128, 128, 8, 8, periodic=(True, True))
neighbors, offsets = projected_explosion_tables(pair, layout, hierarchy.kinds[0])
arrays = dict(neighbors=neighbors, offsets=offsets)
arrays.update({name: getattr(pair, name) for name in frozen if name not in arrays})
for name, array in arrays.items():
with self.subTest(array=name):
self.assertEqual((array.dtype.str, array.shape, hashlib.sha256(array.tobytes()).hexdigest()),
frozen[name])
def test_actual_build_capture_rejects_tampered_ptx_and_sidecar(self):
from CelerisLab.cuda import compiler_v2
from tests.validation.multigrid.check_projected_pairs import capture_builds
for tamper in (None, "ptx", "sidecar"):
with self.subTest(tamper=tamper), tempfile.TemporaryDirectory() as tmp:
path = Path(tmp) / "blocks.ptx"
path.write_bytes(b"host-only mock PTX")
metadata = dict(ptx_sha256=hashlib.sha256(path.read_bytes()).hexdigest())
if tamper == "ptx":
path.write_bytes(b"tampered")
if tamper == "sidecar":
metadata["ptx_sha256"] = "0" * 64
Path(str(path) + ".json").write_text(json.dumps(metadata))
report = {"actual_build_sidecars": []}
with patch.object(compiler_v2, "load_module", return_value="mock-module") as load:
with capture_builds(report, lambda: None):
if tamper:
with self.assertRaisesRegex(AssertionError, "PTX and build sidecar"):
compiler_v2.load_module(str(path))
load.assert_not_called()
self.assertEqual(report["actual_build_sidecars"], [])
else:
self.assertEqual(compiler_v2.load_module(str(path)), "mock-module")
self.assertEqual(report["actual_build_sidecars"], [metadata])
self.assertIs(compiler_v2.load_module, load)
def test_frozen_formula_and_finest_control(self):
data = records(True)
data[0]["rows"][2]["velocity_l2"] = .002
data[0]["rows"][0]["velocity_l2"] = .04 # retained absolute gate, excluded from worst
for r in data[2:]:
for row in r["rows"][1:]:
row.update(velocity_l2=.0039, pressure_l2=.02, energy_relative=.004)
r["early_pressure"]["rows"][-1]["pressure_l2"] = .02
r["early_pressure"]["sampled_max_pressure_l2"] = .02
data[1]["rows"][2]["velocity_l2"] = .00001
data[3]["early_pressure"]["rows"][7]["pressure_l2"] = .9
data[3]["early_pressure"]["sampled_max_pressure_l2"] = .9
result = assess(data)
self.assertTrue(result["passed"])
velocity = result["comparisons"][0]
self.assertEqual(velocity["baseline_budget"], .004)
self.assertAlmostEqual(velocity["amr_to_uniform256"], 390)
self.assertEqual(result["early_pressure"][-1]["sampled_max_pressure_l2"], .9)
data[3]["rows"][-1]["pressure_l2"] = .02001
result = assess(data)
self.assertFalse(result["passed"])
self.assertEqual(result["comparisons"][4]["amr"], .02001)
def test_scheme_verdicts_are_independent(self):
data = records()
data[2]["rows"][-1]["pressure_l2"] = .03
result = assess(data)
self.assertFalse(result["passed"])
self.assertFalse(result["scheme_results"]["constant"]["passed"])
self.assertTrue(result["scheme_results"]["projected_linear"]["passed"])
def test_corruptions_cannot_pass(self):
good = records(True)
corruptions = [
lambda r: r.update(completed=False),
lambda r: r["rows"].pop(),
lambda r: r["rows"][-1].update(pressure_l2=float("nan")),
lambda r: r["rows"][-1].update(energy_relative=float("inf")),
lambda r: r["rows"][-1].update(pressure_l2=1e308),
lambda r: r["rows"][-1].update(velocity_l2=-1),
lambda r: r["rows"][-1].update(step=2047),
lambda r: r["rows"][-1].update(tstar=.4801),
lambda r: r["source"].update(dirty=True),
lambda r: r["source"].update(source_tree_sha256="wrong"),
lambda r: r["source"].update(revision=OLD_REVISION),
lambda r: r["source"].pop("build_capture_sha256"),
lambda r: r.update(numerical_revision=OLD_REVISION),
lambda r: r.update(reference_harness="wrong"),
lambda r: r.pop("runtime_identity"),
lambda r: r["runtime_identity"].pop("nvcc_version"),
lambda r: r["runtime_identity"].update(device="wrong"),
lambda r: r["runtime_identity"]["device"].update(capability=[8, 0]),
lambda r: r.update(cuda_visible_devices="0,1"),
lambda r: r.pop("actual_build_sidecars"),
lambda r: r["actual_build_sidecars"].pop(),
lambda r: r["actual_build_sidecars"].reverse(),
lambda r: r["actual_build_sidecars"][0].update(source_sha256="c" * 64),
lambda r: r["actual_build_sidecars"][0].update(arch="sm_80"),
lambda r: r["actual_build_sidecars"][0].update(flags=[]),
lambda r: r["actual_build_sidecars"][0].update(ptx_sha256="not-a-hash"),
lambda r: r["actual_build_sidecars"][0]["config"].update(ddf_shifting=False),
lambda r: r["source"]["harness_sha256"].update(extra="mixed"),
lambda r: r.update(viscosity=.01),
lambda r: r["tau_by_level"].reverse(),
lambda r: r["numerics"].update(ddf_shifting=False),
lambda r: r.update(initialization="different equilibrium"),
lambda r: r.update(refinements=[[(16, 16, 112, 104)]]),
lambda r: r["workload"].update(active_collision_updates=0),
lambda r: r["runtime_source"].update(kernel_root="/wrong/installed/tree"),
lambda r: r["early_pressure"]["rows"].pop(),
lambda r: r["early_pressure"]["rows"][8].update(step=65),
lambda r: r["early_pressure"]["rows"][-1].update(pressure_l2=.005),
lambda r: r["early_pressure"]["rows"][8].update(pressure_l2=float("nan")),
lambda r: r["early_pressure"].update(sampled_max_pressure_l2=.5),
lambda r: r["early_pressure"].update(enabled=False),
]
for mutation in corruptions:
bad = deepcopy(good)
mutation(bad[-1])
with self.subTest(mutation=mutation):
result = assess(bad)
self.assertFalse(result["passed"])
json.dumps(result, allow_nan=False) # failure summary itself remains serializable
self.assertTrue(assess(good, expected_revision=MOCK_REVISION)["passed"])
self.assertFalse(assess(good, expected_revision=OLD_REVISION)["passed"])
old = deepcopy(good)
for record in old:
record["source"].update(revision=OLD_REVISION,
source_tree_sha256="766e173df81d2881d3871007f15d5e321f5c7205ae578b0f80b43d1e7fe3e220")
self.assertFalse(assess(old)["passed"])
self.assertFalse(assess(good[:-1])["passed"])
self.assertFalse(assess(good + [good[-1]])["passed"])
self.assertFalse(assess([])["passed"])
incomplete = deepcopy(good)
incomplete[-1]["completed"] = False
self.assertFalse(assess(incomplete)["comparisons"][3]["passed"])
def test_pinned_build_sources_match_host_generated_inputs(self):
from CelerisLab.cuda import compiler_v2
for size in (128, 256):
cfg = replace(run_case.config(size, 100), nx=10, ny=10)
cfg.validate()
root = compiler_v2.generate_config(cfg)
try:
actual = json.loads((Path(root) / ".celeris-build").read_text())
expected = build_metadata(size)
self.assertEqual(actual, {key: expected[key] for key in
("source_sha256", "config", "n_objects")})
finally:
compiler_v2.cleanup_build_dir(root)
def test_source_preflight_requires_clean_exact_revision_and_tree(self):
import oracle
from tests.validation.multigrid import check_projected_pairs as gate
for module in (run_case, oracle):
with self.subTest(imported_module=module.__name__), \
patch.object(module, "__file__", "/wrong/checkout/" + Path(module.__file__).name), \
patch.object(gate, "preflight") as preflight:
with self.assertRaisesRegex(RuntimeError, "Wrong runner or oracle checkout"):
run_case.verify_source(REPO, MOCK_REVISION)
preflight.assert_not_called()
for expected, status, diff, fingerprint in (
(MOCK_REVISION, "", 0, SOURCE_SHA256),
(OLD_REVISION, "", 0, SOURCE_SHA256),
(MOCK_REVISION, " M tracked.py", 0, SOURCE_SHA256),
(MOCK_REVISION, "", 1, SOURCE_SHA256),
(MOCK_REVISION, "", 0, "wrong")):
provenance = dict(source(), source_tree_sha256=fingerprint)
with self.subTest(expected=expected, status=status, diff=diff, fingerprint=fingerprint), \
patch.object(gate.subprocess, "check_output", side_effect=[MOCK_REVISION, status]), \
patch.object(gate.subprocess, "call", return_value=diff), \
patch.object(run_case, "provenance", return_value=provenance):
if expected != MOCK_REVISION or status or diff or fingerprint != SOURCE_SHA256:
with self.assertRaises((ValueError, RuntimeError)):
run_case.verify_source(REPO, expected)
else:
self.assertEqual(run_case.verify_source(REPO, expected), source())
def test_explicit_opt_in_selector_and_dry_run_without_cuda(self):
with tempfile.TemporaryDirectory() as tmp:
output = Path(tmp) / "case.json"
base = ["run_case.py", "--repo", str(REPO), "--re", "100", "--n", "128",
"--depth", "1", "--output", str(output)]
pinned = base + ["--expected-revision", MOCK_REVISION]
for argv, device in ((base + ["--run-gpu"], "0"), (pinned, "0"),
(pinned + ["--run-gpu"], ""), (pinned + ["--run-gpu"], "0,1"),
(pinned + ["--run-gpu"], "-1"),
(pinned + ["--run-gpu", "--explosion", "projected"], "0"),
(pinned + ["--run-gpu", "--explosion", "projected_linear"], "0")):
with self.subTest(argv=argv, device=device), patch.object(sys, "argv", argv), \
patch.dict("os.environ", CUDA_VISIBLE_DEVICES=device), \
patch.object(run_case, "verify_source") as verify, patch("sys.stderr", io.StringIO()):
with self.assertRaises(SystemExit) as caught:
run_case.main()
self.assertEqual(caught.exception.code, 2)
verify.assert_not_called()
self.assertFalse(output.exists())
stdout = io.StringIO()
cuda_modules = {name: None for name in ("pycuda", "CelerisLab.cuda.context",
"CelerisLab.lbm.block_stepper", "CelerisLab.lbm.refinement_stepper")}
with patch.object(sys, "argv", pinned + ["--dry-run"]), \
patch.dict(sys.modules, cuda_modules), patch.dict("os.environ", CUDA_VISIBLE_DEVICES=""), \
patch.object(run_case, "verify_source", return_value=source()) as verify, \
patch.object(run_case, "runtime_identity", side_effect=AssertionError("CUDA reached")), \
redirect_stdout(stdout):
self.assertEqual(run_case.main(), 0)
verify.assert_called_once_with(REPO, MOCK_REVISION)
self.assertTrue(json.loads(stdout.getvalue())["dry_run"])
self.assertFalse(output.exists())
def test_runtime_rejects_installed_kernel_tree(self):
from CelerisLab.cuda import compiler_v2
with patch.object(compiler_v2, "_KERNEL_DIR", "/other/CelerisLab/lbm/kernels"):
with self.assertRaisesRegex(RuntimeError, "CUDA source/include root"):
run_case.runtime_source(REPO)
def test_existing_output_is_never_overwritten(self):
with tempfile.TemporaryDirectory() as tmp:
output = Path(tmp) / "failed.json"
output.write_text('{"completed": false}\n')
argv = ["run_case.py", "--repo", str(REPO), "--re", "100", "--n", "128",
"--depth", "1", "--output", str(output),
"--expected-revision", MOCK_REVISION, "--run-gpu"]
with patch.object(sys, "argv", argv), patch("sys.stderr", io.StringIO()):
with self.assertRaises(SystemExit) as caught:
run_case.main()
self.assertEqual(caught.exception.code, 2)
self.assertEqual(output.read_text(), '{"completed": false}\n')
result = subprocess.run([sys.executable, str(Path(__file__).with_name("assess_projected_pairs.py")),
"unused.json", "--expected-revision", MOCK_REVISION,
"--output", str(output)], capture_output=True)
self.assertEqual(result.returncode, 2)
self.assertEqual(output.read_text(), '{"completed": false}\n')
def test_mocked_runner_default_early_and_failure(self):
# Replace the GPU context and steppers before import. No CUDA module or flow is used.
for early, depth, fail in ((False, 1, None), (False, 2, None), (True, 2, None),
(True, 2, "resource"), (True, 2, "nonfinite"),
(True, 2, "probe_nonfinite")):
calls, selectors = [], []
class FakeRun:
def __init__(self, *args, **kwargs):
self.step_count = 0
if "coarse_boundary" in kwargs:
selectors.append(kwargs["explosion"])
def __enter__(self):
return self
def __exit__(self, *args):
pass
def initialize(self, *arrays):
pass
def step(self, count):
self.assertion = count >= 0
if not self.assertion:
raise AssertionError("backward step")
if fail == "resource" and self.step_count >= 16:
raise MemoryError("mock resource failure")
self.step_count += count
calls.append(self.step_count)
def download(self):
return None
modules = {
"CelerisLab.cuda.context": SimpleNamespace(CudaContext=FakeRun),
"CelerisLab.lbm.block_stepper": SimpleNamespace(PeriodicBlockStepper=FakeRun),
"CelerisLab.lbm.refinement_stepper": SimpleNamespace(FixedPatchStepper=FakeRun),
}
def metric(arrays, masks, step, n, nu, mass):
return dict(step=step, tstar=step*U/n, mass=16384.,
**{k: float("nan") if ((fail == "nonfinite" and step == 16)
or (fail == "probe_nonfinite" and step == 1))
and k == "energy_relative" else 0.0 for k in LIMITS})
with tempfile.TemporaryDirectory() as tmp:
output = Path(tmp) / "case.json"
argv = ["run_case.py", "--repo", str(REPO), "--re", "100", "--n", "128",
"--depth", str(depth), "--output", str(output),
"--expected-revision", MOCK_REVISION, "--run-gpu"]
if early:
argv += ["--early-pressure", "--explosion", "projected_linear"]
with patch.dict(sys.modules, modules), patch.object(sys, "argv", argv), \
patch.dict("os.environ", CUDA_VISIBLE_DEVICES="mock"), \
patch.object(run_case, "verify_source", return_value=source()) as verify, \
patch.object(run_case, "runtime_identity", return_value=deepcopy(RUNTIME)), \
patch.object(run_case, "build_capture", return_value=nullcontext()), \
patch.object(run_case, "metrics", side_effect=metric), redirect_stdout(io.StringIO()):
if fail:
with self.assertRaises(MemoryError if fail == "resource" else FloatingPointError):
run_case.main()
else:
self.assertEqual(run_case.main(), 0)
receipt = json.loads(output.read_text())
verify.assert_called_once_with(REPO, MOCK_REVISION)
self.assertEqual(selectors, ["projected_linear" if early else "constant"] if depth == 2 else [])
self.assertEqual(receipt["source"], source())
self.assertEqual(receipt["runtime_identity"], RUNTIME)
self.assertEqual(receipt["completed"], not fail)
self.assertEqual(calls[:2], [0, 1]) # READY probe is part of this trajectory
if not fail:
self.assertEqual([r["tstar"] for r in receipt["rows"]], TIMES)
self.assertEqual(len(receipt["early_pressure"]["rows"]), 65 if early else 0)
self.assertEqual(calls[-1], 2048)
else:
self.assertEqual(len(receipt["rows"]), 1)
self.assertEqual(len(receipt["early_pressure"]["rows"]),
{"resource": 3, "nonfinite": 2, "probe_nonfinite": 1}[fail])
if fail == "probe_nonfinite":
self.assertNotIn("ready_after_step", receipt)
if __name__ == "__main__":
unittest.main()
+326
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@@ -0,0 +1,326 @@
"""Measurement-only wall timing for the matched MRT refined DFG case. No numerical edits.
Variants over EQUAL simulated duration (one refined base step = two uniform D80 steps):
A refined: step(1) + read_raw_exchange per base step -- runner-like force-read workload
B refined: step(1) only, no host reads -- timing-only, no force history
C refined: one step(N) call -- timing-only; ledger keeps final base interval only
E uniform: sim.run(<=100) + read_force -- runner-like force-read workload
E' uniform: one sim.run(2N) call -- timing-only; at most a whole-window force
average (different summation order), no history
A/E read forces but discard them: no retained force history, no interval aggregation/validation,
and no macro/probe/CSV cost, so they are not full benchmark throughput.
observe_raw_exchange stays True for A/B/C: B/C omit host reads only.
Status lines: CONSTRUCTED = backend/simulation built (JIT done); WARM_READY = first warm-up and
health check passed for that case.
Parity compares A/B/C with each other and E/E' with each other, never uniform with refined.
A-B and B-C are measured comparative differences, not exact causal decompositions.
Each repeat starts from the same fresh initial state with the same warm-up; construction,
compilation, parity and health checks are outside timed regions. The actual stepping stream is
synchronized explicitly immediately before the timer starts and after the timed loop. Wall time
(perf_counter) is the only timing source; no CUDA-event span is reported as kernel time. An outer
--max-wall-seconds deadline is checked between variants and inside per-step loops.
"""
import argparse
import json
import math
import os
from pathlib import Path
import statistics
import sys
import time
from tempfile import TemporaryDirectory
import numpy as np
HERE = Path(__file__).resolve().parent
sys.path.insert(0, str(HERE))
import run_refined_dfg as r # noqa: E402 (published runner: same setup functions)
VARIANTS = {
"A": dict(case="refined", force_history_valid=False, force_reads=True,
force_note="runner-like force-read workload; values discarded, no aggregation"),
"B": dict(case="refined", force_history_valid=False, timing_only=True,
force_note="no host reads"),
"C": dict(case="refined", force_history_valid=False, timing_only=True,
force_note="raw ledger retains only the final base interval"),
"E": dict(case="uniform", force_history_valid=False, force_reads=True,
force_note="runner-like force-read workload; values discarded, no aggregation"),
"E'": dict(case="uniform", force_history_valid=False, timing_only=True,
force_note="at most a whole-window accumulated average; different summation order"),
}
def schedule(n_base, warmup_base):
"""Steps per case for equal simulated duration (refined dt_root = 2 dt_uniform)."""
if n_base <= 0 or warmup_base < 0:
raise ValueError("n_base must be positive and warmup_base nonnegative")
return dict(refined=(warmup_base, n_base), uniform=(2 * warmup_base, 2 * n_base),
tstar_window=n_base * r.SPEED / 40.0)
# Existing run_refined_dfg safety limits (rho in [.5, 1.5], sampled max Mach <= .2).
RHO_LIMITS, MAX_MACH = (0.5, 1.5), 0.2
def same_state(reference, values):
"""Bitwise populations and identical NaN masks; returns a short description or None.
Matching NaN is accepted only as a storage mask (inactive/ghost/solid slots); physical
leaf health is checked separately. Any infinity in either state is a mismatch.
"""
reference, values = list(reference), list(values)
if len(reference) != len(values):
return f"level count {len(reference)} != {len(values)}"
for level, (a, b) in enumerate(zip(reference, values)):
a, b = np.asarray(a), np.asarray(b)
if a.shape != b.shape:
return f"level {level}: shape {a.shape} != {b.shape}"
if np.isinf(a).any() or np.isinf(b).any():
return f"level {level}: infinite population"
if not np.array_equal(np.isnan(a), np.isnan(b)):
return f"level {level}: NaN mask differs"
finite = np.isfinite(a)
if a.dtype != b.dtype or not np.array_equal(a[finite].view(np.uint8), b[finite].view(np.uint8)):
return f"level {level}: finite bits differ"
return None
def uniform_populations_finite(ddf, fluid):
"""Simulation.get_ddf() may be flat (9*ny*nx); view it as (Q, cells) before masking."""
ddf, fluid = np.asarray(ddf), np.asarray(fluid, bool).ravel()
if fluid.size == 0 or ddf.size % fluid.size:
raise RuntimeError(f"DDF size {ddf.size} incompatible with {fluid.size} cells")
return bool(np.isfinite(ddf.reshape(ddf.size // fluid.size, fluid.size)[:, fluid]).all())
def physical_health(fields):
"""fields: (rho, ux, uy) arrays already restricted to physical leaves/fluid."""
if not fields or any(not np.isfinite(v).all() or v.size == 0 for f in fields for v in f):
raise RuntimeError("nonfinite or empty physical macroscopic field")
rho_min = float(min(f[0].min() for f in fields))
rho_max = float(max(f[0].max() for f in fields))
max_mach = float(max(np.sqrt(3 * (f[1] ** 2 + f[2] ** 2)).max() for f in fields))
if not (RHO_LIMITS[0] <= rho_min <= rho_max <= RHO_LIMITS[1] and max_mach <= MAX_MACH):
raise RuntimeError(f"health limits violated: rho [{rho_min}, {rho_max}], Mach {max_mach}")
return dict(rho_min=rho_min, rho_max=rho_max, max_mach=max_mach)
def refined_health(backend, masks):
arrays = backend.download() # physical FP64 populations; non-leaves NaN by contract
if any(not np.isfinite(g[:, m]).all() for g, m in zip(arrays, masks)):
raise RuntimeError("nonfinite physical leaf population")
return physical_health([tuple(v[m] for v in r.macros(g)) for g, m in zip(arrays, masks)])
def uniform_health(sim, fluid):
m = sim.get_macroscopic()
return physical_health([tuple(np.asarray(m[k], np.float64).reshape(fluid.shape)[fluid]
for k in ("rho", "ux", "uy"))])
def check_deadline(deadline):
if time.monotonic() >= deadline:
raise TimeoutError("timing harness exceeded --max-wall-seconds")
def sync_refined(backend):
with backend.ctx.activate():
backend._stream.synchronize()
def sync_uniform(sim):
with sim.ctx.activate():
sim.stream.synchronize()
def refined_loop(backend, variant, n, deadline):
if variant == "C":
backend.step(n)
return
for i in range(n):
backend.step(1)
if variant == "A":
backend.read_raw_exchange(0, level=1, window="last_base_step")
if i % 100 == 99:
check_deadline(deadline)
def uniform_loop(sim, variant, n, deadline):
if variant == "E'":
sim.run(n)
return
done = 0
while done < n:
batch = min(100, n - done)
sim.run(batch)
sim.read_force(0)
done += batch
check_deadline(deadline)
def time_refined(a, h, sched):
from contextlib import ExitStack
from CelerisLab.cuda.context import CudaContext
from CelerisLab.lbm.refinement_stepper import FixedPatchStepper
from CelerisLab.lbm.channel import channel_masks
from CelerisLab.lbm.refinement import ACTIVE
from CelerisLab.lbm.descriptors import SOLID
warm, n = sched["refined"]
rows, reference = [], {}
with ExitStack() as stack:
cfg, pair, body, host = r.host_geometry(a.source, h, "MRT")
context = stack.enter_context(CudaContext(0))
backend = stack.enter_context(FixedPatchStepper(
cfg, r.BOUNDS, context=context, coarse_boundary="channel", base_block=r.BASE_BLOCK,
fine_block=r.FINE_BLOCK, fine_objects=(body,), observe_raw_exchange=True))
masks = [channel_masks(pair.coarse_shape)[0] & ~pair.covered, # as run_refined_dfg
(pair.fine_kind == ACTIVE) & ((host.flags.reshape(pair.fine_shape) & SOLID) == 0)]
fresh = (r.initial_state(pair.coarse_shape, (0.0, 0.0), 1.0, root=True),
r.initial_state(pair.fine_shape, pair.fine_origin, 0.5))
print(json.dumps(dict(status="CONSTRUCTED", case="refined")), flush=True)
for repeat in range(a.repeats):
for variant in ("A", "B", "C"):
check_deadline(a.deadline)
backend.initialize(*fresh) # resets step count; same fresh state every time
refined_loop(backend, variant, warm, a.deadline)
warm_health = refined_health(backend, masks) # untimed
if repeat == 0 and variant == "A":
print(json.dumps(dict(status="WARM_READY", case="refined")), flush=True)
sync_refined(backend)
start = time.perf_counter()
refined_loop(backend, variant, n, a.deadline)
sync_refined(backend)
seconds = time.perf_counter() - start
end_health = refined_health(backend, masks) # untimed
values = [np.array(v, copy=True) for v in backend._download_raw().values]
if not all(np.isfinite(v[:, m]).all() for v, m in zip(values, backend._state)):
raise RuntimeError(f"refined {variant} repeat {repeat}: nonfinite leaf populations")
mismatch = None
if repeat == 0 and variant == "A":
reference["A"] = values
else:
mismatch = same_state(reference["A"], values)
rows.append(dict(variant=variant, repeat=repeat, seconds=seconds,
base_steps=n, step_count=backend.step_count,
health_after_warmup=warm_health, health_after_window=end_health,
parity_vs_A=mismatch or "identical", **VARIANTS[variant]))
if mismatch:
raise RuntimeError(f"refined {variant} repeat {repeat}: {mismatch}")
return rows
def time_uniform(a, h, sched):
from CelerisLab.simulation import Simulation
from CelerisLab.lbm.descriptors import FLUID
warm, n = sched["uniform"]
rows, reference = [], {}
cfgdict, bodydict, params = r.config(h, 80, "MRT")
with TemporaryDirectory() as tmp:
tmp = Path(tmp)
(tmp / "lbm.json").write_text(json.dumps(cfgdict))
(tmp / "body.json").write_text(json.dumps(bodydict))
with Simulation(str(tmp / "lbm.json"), str(tmp / "body.json"), device_id=0) as sim:
sim.initialize()
sim.snapshot() # fresh state; restore keeps clock and streaming parity
fluid = (sim.get_flags() & FLUID) != 0
ny, nx = params["ny"], params["nx"]
fluid = fluid.reshape(ny, nx)
print(json.dumps(dict(status="CONSTRUCTED", case="uniform")), flush=True)
for repeat in range(a.repeats):
for variant in ("E", "E'"):
check_deadline(a.deadline)
sim.restore()
if sim.stepper.step_count % 2:
raise RuntimeError("uniform restore parity changed between variants")
uniform_loop(sim, variant, warm, a.deadline)
warm_health = uniform_health(sim, fluid) # untimed
if repeat == 0 and variant == "E":
print(json.dumps(dict(status="WARM_READY", case="uniform")), flush=True)
sync_uniform(sim)
start = time.perf_counter()
uniform_loop(sim, variant, n, a.deadline)
sync_uniform(sim)
seconds = time.perf_counter() - start
end_health = uniform_health(sim, fluid) # untimed
values = [sim.get_ddf()]
if not uniform_populations_finite(values[0], fluid):
raise RuntimeError(f"uniform {variant} repeat {repeat}: nonfinite fluid populations")
mismatch = None
if repeat == 0 and variant == "E":
reference["E"] = values
else:
mismatch = same_state(reference["E"], values)
rows.append(dict(variant=variant, repeat=repeat, seconds=seconds,
uniform_steps=n, parity_vs_E=mismatch or "identical",
health_after_warmup=warm_health, health_after_window=end_health,
**VARIANTS[variant]))
if mismatch:
raise RuntimeError(f"uniform {variant} repeat {repeat}: {mismatch}")
return rows
def summarize(rows, tstar_window):
summary = {}
for variant in VARIANTS:
seconds = [row["seconds"] for row in rows if row["variant"] == variant]
if seconds:
median = statistics.median(seconds)
summary[variant] = dict(median_seconds=median, seconds=seconds,
seconds_per_tstar=median / tstar_window,
**VARIANTS[variant])
if {"A", "B", "C"} <= summary.keys():
summary["A_minus_B_seconds"] = summary["A"]["median_seconds"] - summary["B"]["median_seconds"]
summary["B_minus_C_seconds"] = summary["B"]["median_seconds"] - summary["C"]["median_seconds"]
if {"A", "E"} <= summary.keys():
summary["A_over_E"] = summary["A"]["median_seconds"] / summary["E"]["median_seconds"]
if {"C", "E'"} <= summary.keys():
summary["C_over_Eprime"] = summary["C"]["median_seconds"] / summary["E'"]["median_seconds"]
summary["interpretation"] = ("Measured comparative differences under GPU variability; "
"not exact causal decompositions or performance claims.")
return summary
def main():
p = argparse.ArgumentParser(description=__doc__)
p.add_argument("--source", type=Path, default=r.DEFAULT_SOURCE)
p.add_argument("--output", type=Path, required=True)
p.add_argument("--base-steps", type=int, default=2000)
p.add_argument("--warmup-base-steps", type=int, default=200)
p.add_argument("--repeats", type=int, default=3)
p.add_argument("--max-wall-seconds", type=float, help="Required outer timeout for GPU runs")
p.add_argument("--plan", action="store_true")
a = p.parse_args()
if a.repeats < 1 or a.base_steps > 20000:
p.error("repeats must be >= 1 and base-steps <= 20000")
a.source = a.source.resolve()
manifest = r.verify_source(a.source, "MRT")
sched = schedule(a.base_steps, a.warmup_base_steps)
plan = dict(collision="MRT", manifest_commit=manifest["commit"], schedule=sched,
repeats=a.repeats, variants=VARIANTS, timer="time.perf_counter wall",
excluded="construction/JIT, warm-up, state download and parity checks")
if a.plan:
print(json.dumps(plan, indent=2))
return 0
if a.max_wall_seconds is None or not math.isfinite(a.max_wall_seconds) or a.max_wall_seconds <= 0:
p.error("GPU timing requires a finite positive --max-wall-seconds")
a.deadline = time.monotonic() + a.max_wall_seconds
if not os.environ.get("CUDA_VISIBLE_DEVICES") or "," in os.environ["CUDA_VISIBLE_DEVICES"]:
p.error("Root must select exactly one verified idle GPU via CUDA_VISIBLE_DEVICES")
if a.output.exists() and any(a.output.iterdir()):
p.error("Output must be empty/new")
a.output.mkdir(parents=True, exist_ok=True)
h, _ = r.helpers(a.source)
rows = time_uniform(a, h, sched) + time_refined(a, h, sched)
result = dict(plan=plan, rows=rows, summary=summarize(rows, sched["tstar_window"]))
if not all(math.isfinite(row["seconds"]) for row in rows):
raise RuntimeError("Nonfinite timing")
(a.output / "timing.json").write_text(json.dumps(result, indent=2))
print(json.dumps(result["summary"], indent=2), flush=True)
return 0
if __name__ == "__main__":
sys.exit(main())
+183
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@@ -0,0 +1,183 @@
"""Measurement-only A-versus-window timing for the matched shifted-MRT refined DFG setup.
Candidate source (window ledger) is recorded by checkout revision, dirty flag and file hashes;
the frozen refined-DFG manifests/results are NOT used or modified (they pin pre-window source).
Equal simulated duration, same fresh state and warm-up per variant, one observation interval =
80 root base steps (the runner's dense-phase interval):
A per base step: step(1) + read_raw_exchange, summed per interval (current runner workload)
W per interval: start_exchange_window(); step(80); read_exchange_window()
W1 per interval: start_exchange_window(); 80 x step(1); read_exchange_window()
All variants keep observe_raw_exchange=True; the backend is built once with
observe_window_exchange=True (a closed window adds no launch). Populations (bitwise) and
per-interval total impulses are compared OUTSIDE timing; the impulse tolerance is a
conservative engineering tolerance (see INTERVAL_RTOL); the tighter substep-scaled engineering
tolerance is exercised by the capability test tests/validation/multigrid/test_exchange_window.py.
Wall time (perf_counter) with explicit stream synchronization is the only timing source.
"""
import argparse
import hashlib
import json
import math
import os
from pathlib import Path
import statistics
import sys
import time
import numpy as np
HERE = Path(__file__).resolve().parent
sys.path.insert(0, str(HERE))
import time_refined_dfg as t # noqa: E402 (reuses run_refined_dfg setup via t.r)
r = t.r
INTERVAL = 80
VARIANTS = ("A", "W", "W1")
# Interval impulses differ only by FP64 summation order (per link over time vs per step over
# links). Engineering tolerance: 1e-9 of the interval's summed absolute per-step totals.
INTERVAL_RTOL = 1e-9
CANDIDATE_FILES = ("src/CelerisLab/lbm/refinement_stepper.py", "src/CelerisLab/lbm/raw_exchange.py",
"src/CelerisLab/lbm/refinement_tables.py", "src/CelerisLab/lbm/kernels/blocks.cu")
def components(obs):
o = obs["total"]
return np.array([o["impulse"][0], o["impulse"][1], o["angular_impulse"], o["mass_into_fluid"]])
def candidate_identity(source):
from source_provenance import checkout_provenance
return dict(checkout_provenance(source),
sha256={f: hashlib.sha256((source / f).read_bytes()).hexdigest()
for f in CANDIDATE_FILES})
def run_variant(backend, variant, n_intervals, deadline):
"""Returns per-interval totals and, for A, per-interval summed |per-step totals|."""
totals, scales = [], []
for _ in range(n_intervals):
if variant == "A":
impulse, scale = np.zeros(4), np.zeros(4)
for _ in range(INTERVAL):
backend.step(1)
c = components(backend.read_raw_exchange(0, level=1, window="last_base_step"))
impulse += c
scale += np.abs(c)
totals.append(impulse)
scales.append(scale)
else:
backend.start_exchange_window()
if variant == "W":
backend.step(INTERVAL)
else:
for _ in range(INTERVAL):
backend.step(1)
totals.append(components(backend.read_exchange_window(0)))
t.check_deadline(deadline)
return np.array(totals), (np.array(scales) if scales else None)
def compare_intervals(reference, scales, totals):
"""Max violation ratio; <= 1 passes. Scale includes a floor so zero cancels cannot divide."""
bound = INTERVAL_RTOL * scales + 1e-300
return float(np.max(np.abs(totals - reference) / bound))
def main():
p = argparse.ArgumentParser(description=__doc__)
p.add_argument("--source", type=Path, default=r.DEFAULT_SOURCE)
p.add_argument("--output", type=Path, required=True)
p.add_argument("--base-steps", type=int, default=2000)
p.add_argument("--warmup-base-steps", type=int, default=200)
p.add_argument("--repeats", type=int, default=3)
p.add_argument("--max-wall-seconds", type=float)
p.add_argument("--plan", action="store_true")
a = p.parse_args()
if a.base_steps <= 0 or a.base_steps % INTERVAL or a.base_steps > 20000 or a.repeats < 1:
p.error(f"base-steps must be a positive multiple of {INTERVAL} (<= 20000); repeats >= 1")
a.source = a.source.resolve()
identity = candidate_identity(a.source)
plan = dict(collision="MRT", shifted_storage="as run_refined_dfg MRT config",
candidate_source=identity, frozen_manifests_used=False, interval_base_steps=INTERVAL,
base_steps=a.base_steps, warmup_base_steps=a.warmup_base_steps, repeats=a.repeats,
variants=VARIANTS, tstar_window=a.base_steps * r.SPEED / 40.0,
timer="time.perf_counter wall with explicit stream sync",
excluded="construction/JIT, warm-up, health, downloads, parity/impulse comparison")
if a.plan:
print(json.dumps(plan, indent=2))
return 0
if a.max_wall_seconds is None or not math.isfinite(a.max_wall_seconds) or a.max_wall_seconds <= 0:
p.error("GPU timing requires a finite positive --max-wall-seconds")
if not os.environ.get("CUDA_VISIBLE_DEVICES") or "," in os.environ["CUDA_VISIBLE_DEVICES"]:
p.error("Root must select exactly one verified idle GPU via CUDA_VISIBLE_DEVICES")
if a.output.exists() and any(a.output.iterdir()):
p.error("Output must be empty/new")
a.output.mkdir(parents=True, exist_ok=True)
deadline = time.monotonic() + a.max_wall_seconds
h, _ = r.helpers(a.source)
from contextlib import ExitStack
from CelerisLab.cuda.context import CudaContext
from CelerisLab.lbm.refinement_stepper import FixedPatchStepper
from CelerisLab.lbm.channel import channel_masks
from CelerisLab.lbm.refinement import ACTIVE
from CelerisLab.lbm.descriptors import SOLID
rows, ref = [], {}
n_intervals = a.base_steps // INTERVAL
with ExitStack() as stack:
cfg, pair, body, host = r.host_geometry(a.source, h, "MRT")
context = stack.enter_context(CudaContext(0))
backend = stack.enter_context(FixedPatchStepper(
cfg, r.BOUNDS, context=context, coarse_boundary="channel", base_block=r.BASE_BLOCK,
fine_block=r.FINE_BLOCK, fine_objects=(body,), observe_raw_exchange=True,
observe_window_exchange=True))
masks = [channel_masks(pair.coarse_shape)[0] & ~pair.covered,
(pair.fine_kind == ACTIVE) & ((host.flags.reshape(pair.fine_shape) & SOLID) == 0)]
fresh = (r.initial_state(pair.coarse_shape, (0.0, 0.0), 1.0, root=True),
r.initial_state(pair.fine_shape, pair.fine_origin, 0.5))
print(json.dumps(dict(status="CONSTRUCTED", case="refined")), flush=True)
for repeat in range(a.repeats):
for variant in VARIANTS:
t.check_deadline(deadline)
backend.initialize(*fresh)
for _ in range(a.warmup_base_steps):
backend.step(1)
warm = t.refined_health(backend, masks)
if repeat == 0 and variant == "A":
print(json.dumps(dict(status="WARM_READY", case="refined")), flush=True)
t.sync_refined(backend)
start = time.perf_counter()
totals, scales = run_variant(backend, variant, n_intervals, deadline)
t.sync_refined(backend)
seconds = time.perf_counter() - start
end = t.refined_health(backend, masks)
values = [np.array(v, copy=True) for v in backend._download_raw().values]
if variant == "A" and repeat == 0:
ref.update(values=values, totals=totals, scales=scales)
parity, ratio = "identical", 0.0
else:
parity = t.same_state(ref["values"], values) or "identical"
ratio = compare_intervals(ref["totals"], ref["scales"], totals)
rows.append(dict(variant=variant, repeat=repeat, seconds=seconds,
intervals=n_intervals, population_parity_vs_A=parity,
interval_impulse_violation_ratio=ratio,
health_after_warmup=warm, health_after_window=end))
if parity != "identical" or not ratio <= 1:
raise RuntimeError(f"{variant} repeat {repeat}: parity {parity}, impulse ratio {ratio}")
summary = {v: dict(median_seconds=statistics.median(x["seconds"] for x in rows if x["variant"] == v),
seconds=[x["seconds"] for x in rows if x["variant"] == v]) for v in VARIANTS}
summary.update(W_over_A=summary["W"]["median_seconds"] / summary["A"]["median_seconds"],
W1_over_A=summary["W1"]["median_seconds"] / summary["A"]["median_seconds"],
interpretation="Measured comparative timings under GPU variability; W also "
"batches step calls, W1 isolates the read pattern. Not a "
"benchmark-throughput or causal claim.")
(a.output / "window_timing.json").write_text(json.dumps(dict(plan=plan, rows=rows, summary=summary),
indent=2))
print(json.dumps(summary, indent=2), flush=True)
return 0
if __name__ == "__main__":
sys.exit(main())
@@ -1,12 +0,0 @@
unittest.case.FunctionTestCase (test_bounded_state_evidence) ... ok
unittest.case.FunctionTestCase (test_disjoint_complete_categories) ... ok
unittest.case.FunctionTestCase (test_exact_config_and_source) ... ok
unittest.case.FunctionTestCase (test_inactive_nonfinite_does_not_fail) ... ok
unittest.case.FunctionTestCase (test_original_safety_limits) ... ok
unittest.case.FunctionTestCase (test_population_macro_force_separate) ... ok
unittest.case.FunctionTestCase (test_source_guard_and_deadline) ... ok
----------------------------------------------------------------------
Ran 7 tests in 0.039s
OK
@@ -1,219 +0,0 @@
"""Read-only observations of the exact failed SRT control, at most 320 steps.
Default is CPU preflight. Execution requires root admission and an external watchdog.
No solver, initialization, geometry or numerical parameter modifications.
"""
import argparse
import hashlib
import importlib
import json
import math
import os
from pathlib import Path
import sys
import time
from tempfile import TemporaryDirectory
import numpy as np
HERE=Path(__file__).resolve().parent
DEFAULT_SOURCE=HERE.parents[2]
LIMIT_BYTES=128*1024**2
def dump(path,value):
path.write_text(json.dumps(value,indent=2,allow_nan=False))
def number(value):
value=float(value)
return value if math.isfinite(value) else ('NaN' if math.isnan(value) else ('+Inf' if value>0 else '-Inf'))
def source_config(source):
manifest=json.loads((HERE/'source_manifest.json').read_text())
for name,digest in manifest['sha256'].items():
if hashlib.sha256((source/name).read_bytes()).hexdigest()!=digest:
raise ValueError('Pinned source mismatch: '+name)
sys.path.insert(0,str(source/'src')); sys.path.insert(0,str(source/'tests/validation'))
import CelerisLab
if Path(CelerisLab.__file__).resolve()!=source/'src/CelerisLab/__init__.py':
raise ValueError('Wrong CelerisLab import')
runner=importlib.import_module('run_refined_dfg')
if Path(runner.__file__).resolve()!=source/'tests/validation/run_refined_dfg.py':
raise ValueError('Wrong runner import')
h,_=runner.helpers(source)
cfg,body,p=runner.config(h,80) # Exact original config factory, not a reimplementation.
return cfg,body,p,manifest
def categories(flags,p):
"""Disjoint physical categories; subtype nibble is not a bitfield."""
from CelerisLab.lbm.descriptors import FLUID,SOLID,OBSTACLE
y,x=np.indices(flags.shape); fluid=(flags&FLUID)!=0
masks={}; left=fluid.copy()
for name,test in (
('body_near',(x-p['center'][0])**2+(y-p['center'][1])**2 <= (p['radius']+3)**2),
('outlet_near',x>=flags.shape[1]-4),('inlet_near',x<=3),
('wall_near',(y<=3)|(y>=flags.shape[0]-4))):
masks[name]=left&test; left &= ~test
masks['bulk']=left
subtype=flags&0xf0
masks['inlet_ghost']=(~fluid)&(subtype==0x20)
masks['outlet_ghost']=(~fluid)&(subtype==0x30)
masks['wall_ghost']=(~fluid)&(subtype==0x10)
assigned=np.logical_or.reduce(list(masks.values()))
masks['body_solid']=(~assigned)&(((flags&OBSTACLE)!=0)|((flags&SOLID)!=0))
assigned|=masks['body_solid']; masks['other_inactive']=~assigned
return fluid,masks
def finite_extrema(a,mask):
good=mask&np.isfinite(a)
if not good.any(): return dict(min=None,max=None)
idx=np.flatnonzero(good); values=a.ravel()[idx]
lo=int(idx[np.argmin(values)]); hi=int(idx[np.argmax(values)])
return dict(min=float(a.ravel()[lo]),max=float(a.ravel()[hi]),
min_yx=list(map(int,np.unravel_index(lo,a.shape))),
max_yx=list(map(int,np.unravel_index(hi,a.shape))))
def diagnose(g,macro,force,flags,p,step):
fluid,masks=categories(flags,p)
badpop=~np.isfinite(g); badnode=badpop.any(axis=0)
badmacro=np.logical_or.reduce([~np.isfinite(macro[k]) for k in ('rho','ux','uy')])
with np.errstate(over='ignore',invalid='ignore'):
mach=np.sqrt(3*(np.asarray(macro['ux'],np.float64)**2+np.asarray(macro['uy'],np.float64)**2))
rho=macro['rho']
# Exactly the original physical macro/reaction conditions, now sampled each step.
nonfinite_macro=bool(np.any(badmacro&fluid))
force_bad=force is not None and not np.isfinite(force).all()
density_bad=bool(np.any(fluid&((rho<.5)|(rho>1.5))))
mach_bad=bool(np.any(fluid&(mach>.2)))
population_bad=bool(np.any(badnode&fluid))
original_failure=nonfinite_macro or force_bad or density_bad or mach_bad
offending=fluid&(badnode|badmacro|(rho<.5)|(rho>1.5)|(mach>.2))
examples=[]
for y,x in np.argwhere(offending)[:16]:
examples.append(dict(y=int(y),x=int(x),physical_xy_m=[float(x*p['dx']),float((y-.5)*p['dx'])],
category=next(name for name,mask in masks.items() if mask[y,x]),flag=int(flags[y,x]),
nonfinite_q=np.flatnonzero(badpop[:,y,x]).tolist(),
populations=[number(v) for v in g[:,y,x]],
rho=number(rho[y,x]),ux=number(macro['ux'][y,x]),uy=number(macro['uy'][y,x])))
neighborhoods=[]
for node in examples[:4]:
y,x=node['y'],node['x']; y0,y1=max(0,y-2),min(flags.shape[0],y+3); x0,x1=max(0,x-2),min(flags.shape[1],x+3)
neighborhoods.append(dict(bounds_xy=[x0,y0,x1,y1],flags=flags[y0:y1,x0:x1].tolist(),
physical_populations=[[[number(v) for v in row] for row in plane] for plane in g[:,y0:y1,x0:x1]]))
return dict(step=step,tstar=step*p['mean_speed']/p['diameter'],
physical_failure=bool(original_failure or population_bad),
original_health_failure=bool(original_failure),
physical_population_nonfinite=population_bad,physical_macro_nonfinite=nonfinite_macro,
force_nonfinite=bool(force_bad),density_limit=density_bad,mach_limit=mach_bad,
force=None if force is None else [number(v) for v in force],
categories={name:dict(nodes=int(mask.sum()),nonfinite_population_nodes=int((mask&badnode).sum()),
nonfinite_populations=int(badpop[:,mask].sum()),nonfinite_macro_nodes=int((mask&badmacro).sum()))
for name,mask in masks.items()},
rho=finite_extrema(rho,fluid),mach=finite_extrema(mach,fluid),
first_physical_examples=examples,local_neighborhoods=neighborhoods)
def snapshot(sim,p):
# Public physical decode and original production macro path. No host reconstruction
# substitutes for the original health check. get_ddf shares its completed-step cache.
with np.errstate(all='ignore'):
macro={k:np.asarray(v).copy() for k,v in sim.get_macroscopic().items()}
g=sim.get_ddf().reshape(9,p['ny'],p['nx'])
import pycuda.driver as cuda
raw=np.empty_like(g,dtype=np.float32)
with sim.ctx.activate():
cuda.memcpy_dtoh(raw,sim.field.ddf_gpu)
return dict(raw=raw,g=g,macro=macro,step=int(sim.stepper.step_count))
def save_states(dest,previous,current,flags,diagnostic):
"""Two states only; raw shifted bits and decoded observations, no trajectory."""
arrays={'flags':flags}
for name,state in (('previous',previous),('current',current)):
if state is None: continue
arrays[name+'_raw_shifted']=state['raw']
arrays[name+'_physical']=state['g']
arrays[name+'_step']=np.array(state['step'],np.int64)
# At D80, raw+physical for two states ~84 MiB; reserve >4 MiB for JSON/NPZ overhead.
if sum(v.nbytes for v in arrays.values())>LIMIT_BYTES-4*1024**2:
raise ValueError('Evidence arrays exceed bounded artifact budget')
np.savez(dest/'states.npz',**arrays)
dump(dest/'diagnostics.json',diagnostic)
size=sum(p.stat().st_size for p in dest.iterdir() if p.is_file())
if size>LIMIT_BYTES: raise RuntimeError('Evidence directory exceeds 128 MiB')
return size
def deadline_check(deadline):
if time.monotonic()>=deadline: raise TimeoutError('Diagnostic wall ceiling reached')
def execute(a,cfg,body,p):
from CelerisLab.simulation import Simulation
started=time.monotonic(); deadline=started+a.wall_seconds
previous=None; prior_report=None; initial_report=None
with TemporaryDirectory() as temp:
temp=Path(temp); dump(temp/'lbm.json',cfg); dump(temp/'body.json',body)
with Simulation(str(temp/'lbm.json'),str(temp/'body.json'),device_id=0) as sim:
sim.initialize() # Exact original production initialization, unchanged.
flags=sim.get_flags().reshape(p['ny'],p['nx'])
current=snapshot(sim,p)
initial_report=diagnose(current['g'],current['macro'],None,flags,p,0)
report=initial_report; status='initial_physical_failure' if report['physical_failure'] else 'step_cap_reached'
try:
deadline_check(deadline)
if not report['physical_failure']:
for _ in range(320):
deadline_check(deadline)
previous=current; prior_report=report
sim.run(1) # Same solver; observation buffers reset/read once per step.
force=sim.read_force(0).astype(np.float64)
current=snapshot(sim,p)
report=diagnose(current['g'],current['macro'],force,flags,p,current['step'])
if current['step']==1:
print('READY '+json.dumps(dict(step=1,all_observation_paths_exercised=True,
physical_healthy=not report['physical_failure']),allow_nan=False),flush=True)
if report['physical_failure']:
status='first_physical_failure'; break
deadline_check(deadline)
except TimeoutError:
status='wall_time_limit'
details=dict(status=status,executed_steps=int(sim.stepper.step_count),
observation_step=current['step'],previous_observation_step=None if previous is None else previous['step'],
initial=initial_report,preceding=prior_report,current=report,
wall_seconds=time.monotonic()-started,
storage='raw_shifted FP32 is exact active-buffer data; physical is production FP32 decoded G. Both are diagnostic snapshots, not complete restart checkpoints.',
health_scope='Physical FLUID nodes and force only; ghost/body categories cannot independently trigger physical failure.',
interpretation='Near-region labels locate symptoms, not the root cause. Per-step inspection changes observation cadence only. No physical acceptance.')
size=save_states(a.output,previous,current,flags,details)
print(json.dumps(dict(status=status,executed_steps=int(sim.stepper.step_count),evidence_bytes=size),allow_nan=False),flush=True)
return 0 if status=='step_cap_reached' else 2
def main():
parser=argparse.ArgumentParser(description=__doc__)
parser.add_argument('--source',type=Path,default=DEFAULT_SOURCE)
parser.add_argument('--output',type=Path,required=True)
parser.add_argument('--execute',action='store_true')
parser.add_argument('--gpu-admitted',action='store_true')
parser.add_argument('--wall-seconds',type=float)
a=parser.parse_args(); a.source=a.source.resolve()
cfg,body,p,manifest=source_config(a.source)
if a.output.exists() and any(a.output.iterdir()): raise ValueError('Use a new/empty output directory')
if a.execute and (not a.gpu_admitted or not os.environ.get('CUDA_VISIBLE_DEVICES') or
a.wall_seconds is None or not math.isfinite(a.wall_seconds) or a.wall_seconds<=0):
raise ValueError('Explicit root admission, device selection and finite wall ceiling required')
a.output.mkdir(parents=True,exist_ok=True)
dump(a.output/'preflight.json',dict(source=manifest,config=cfg,body=body,parameters=p,
diagnostic_sha256=hashlib.sha256(Path(__file__).read_bytes()).hexdigest(),max_steps=320,
max_evidence_bytes=LIMIT_BYTES,executed=False))
if not a.execute: return 0
return execute(a,cfg,body,p)
if __name__=='__main__': raise SystemExit(main())
@@ -1,100 +0,0 @@
"""CPU-only synthetic diagnostic and source-contract tests; no simulation results."""
import json
from pathlib import Path
import sys
from tempfile import TemporaryDirectory
import unittest
import numpy as np
sys.path.insert(0,str(Path(__file__).resolve().parent))
import diagnose_uniform_srt as d
cfg,body,p,manifest=d.source_config(d.DEFAULT_SOURCE)
def fixture():
flags=np.ones((12,20),np.uint16)
flags[:,0]=2|0x20; flags[:,-1]=2|0x30
flags[[0,-1]]=2|0x10; flags[5,6]=2|0x40|0x200
g=np.full((9,12,20),1/9,np.float32)
macro=dict(rho=np.ones((12,20)),ux=np.zeros((12,20)),uy=np.zeros((12,20)))
params=dict(center=[6,5],radius=1,dx=.1,mean_speed=.01,diameter=80)
return g,macro,flags,params
def test_exact_config_and_source():
assert manifest['commit']=='9805383f9c50d867e8555471baf5dbda8333a652'
assert p['diameter']==80 and p['mean_speed']==.01 and p['nx']==1761 and p['ny']==330
assert cfg['method']['collision']=='SRT' and cfg['method']['ddf_shifting']
assert cfg['method']['outlet']['srt_neq_damp']==.5
assert np.isclose(3*p['viscosity']+.5,.524)
assert body['objects'][0]['center']==[160,160.5]
def test_inactive_nonfinite_does_not_fail():
g,m,f,p=fixture(); fluid,_=d.categories(f,p)
g[:,~fluid]=np.nan
for a in m.values(): a[~fluid]=np.nan
r=d.diagnose(g,m,np.zeros(2),f,p,1)
assert not r['physical_failure']
assert r['categories']['body_solid']['nonfinite_population_nodes']==1
assert r['categories']['outlet_ghost']['nodes']==10
assert r['categories']['inlet_ghost']['nodes']==10
json.dumps(r,allow_nan=False)
def test_population_macro_force_separate():
g,m,f,p=fixture(); g[4,6,17]=np.inf
r=d.diagnose(g,m,np.zeros(2),f,p,27)
assert r['physical_failure'] and r['physical_population_nonfinite']
assert not r['original_health_failure'] and not r['force_nonfinite']
assert r['first_physical_examples'][0]['category']=='outlet_near'
assert r['first_physical_examples'][0]['nonfinite_q']==[4]
assert r['first_physical_examples'][0]['populations'][4]=='+Inf'
json.dumps(r,allow_nan=False)
g,m,f,p=fixture(); m['ux'][6,10]=np.nan
r=d.diagnose(g,m,np.zeros(2),f,p,28)
assert r['physical_macro_nonfinite'] and not r['physical_population_nonfinite']
assert not r['force_nonfinite'] and r['original_health_failure']
g,m,f,p=fixture(); r=d.diagnose(g,m,np.array([np.nan,0]),f,p,29)
assert r['force_nonfinite'] and not r['physical_macro_nonfinite']
assert not r['first_physical_examples']
def test_original_safety_limits():
g,m,f,p=fixture(); m['rho'][5,7]=.49
r=d.diagnose(g,m,[0,0],f,p,1)
assert r['density_limit'] and r['first_physical_examples'][0]['category']=='body_near'
g,m,f,p=fixture(); m['ux'][6,10]=.2
assert d.diagnose(g,m,[0,0],f,p,1)['mach_limit']
def test_disjoint_complete_categories():
_,_,f,p=fixture(); fluid,masks=d.categories(f,p)
np.testing.assert_array_equal(sum(mask.astype(int) for mask in masks.values()),np.ones(f.shape))
physical=sum(masks[k].astype(int) for k in ('body_near','inlet_near','outlet_near','wall_near','bulk'))
np.testing.assert_array_equal(physical,fluid.astype(int))
def test_bounded_state_evidence():
g,m,f,p=fixture(); state=dict(raw=g.copy(),g=g,macro=m,step=1)
with TemporaryDirectory() as tmp:
dest=Path(tmp); size=d.save_states(dest,state,state,f,{'status':'synthetic_test'})
assert size<d.LIMIT_BYTES
with np.load(dest/'states.npz') as saved:
np.testing.assert_array_equal(saved['previous_raw_shifted'],g)
np.testing.assert_array_equal(saved['current_physical'],g)
assert sorted(x.name for x in dest.iterdir())==['diagnostics.json','states.npz']
actual_bytes=4*(9*330*1761*4)+(330*1761*2)+16
assert actual_bytes<d.LIMIT_BYTES-4*1024**2
def test_source_guard_and_deadline():
with TemporaryDirectory() as tmp:
with unittest.TestCase().assertRaises((ValueError,FileNotFoundError)):
d.source_config(Path(tmp))
with unittest.TestCase().assertRaises(TimeoutError): d.deadline_check(0)
if __name__=='__main__':
result=unittest.TextTestRunner(verbosity=2).run(unittest.TestSuite(
unittest.FunctionTestCase(fn) for name,fn in sorted(globals().items()) if name.startswith('test_')))
raise SystemExit(not result.wasSuccessful())
-12
View File
@@ -1,12 +0,0 @@
CelerisLab reviewed scalar evidence,2026-10-18.
The two archives are intact originals. SHA256 and exact sizes are in transport_manifest.json.
Equilibrium comparator92da2e8:exit0,2400000steps healthy;ascending-zero v2 qualification passes. Frozen result.json remains periodic=false/accuracy_qualified=false;qualification_v2.json is separate and binds both original receipts.
Shifted/unshifted tiny e8b8c58:exit0,23methods pass,one N64 interval each mode only;no shifted full-N64 trajectory.
No production/default/dev/main change.
Both archives retain all their original member bytes,including gzip protection inventories. Metadata were scanned for credentials/private keys/access tokens and unrelated private paths. Only the authorized CelerisLab project/interpreter/system metadata and a reviewed literal official-reference fixture path were found. No credentials or unrelated private paths.
Original larger archives,all scientific receipts and any successful Drive transfers are retained. This single existing-validation-branch commit is evidence transport only.
CPU covered-predictor pair5468695:44tests pass;one FP64 raw/stress pair exit0;raw4samples exact to07879bc;both unchanged campaign/comparative/conservation screens pass,historical uniform pressure budget fails separately for both.No GPU pin or production/default/main/dev merge.
@@ -1,505 +0,0 @@
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"bytes": 423726,
"sha256": "c20e364e72b96858bf7bc317cba3d02a40e03be74ab1816048e78f7e89678f47",
"source": "11901a7f77557a901e017a171eeae1758d584fa5",
"numerical_source": "519473a61c7b319183aa54e55b9f097499dde0bf",
"route": "ExistingGiteaevidencebranch fallback after explicitlyauthorized same-argumentDrive retry failed atOpenAI fileblob network transport;not an approval bypass",
"scope": "Evidence-only transport;no oldsource harness integration;all originalmember bytes retained"
}
@@ -1,6 +0,0 @@
Matched projected-G diagnostic onexact11901a7/519numerics.
Projected_linear passes allfrozen baselinegates;constantfailsvelocitygate;aggregatefails.
All fourcasecontrols valid;finestcontrols andearlypressuretransients reported separately.
Complete original receipts,failedattempts,recoveryauthorization,monitor drytests,source/build/PTX/runtime/protection records included.
No production/default change,convergence ornewalgorithm qualification.
ArchiveSHA256:c20e364e72b96858bf7bc317cba3d02a40e03be74ab1816048e78f7e89678f47
@@ -1,23 +0,0 @@
{
"archive": "CelerisLab_projected_pair_gate_1aa8110_20261018.zip",
"bytes": 4551692,
"sha256": "589a5537069cb7f10c6e349648aae2900b0af996b0dc1ac147a138581cb913e3",
"baseline": "ed9d8c937d446b854d6963bd92d718bb4fb98b96",
"candidate": "1aa8110ec8caf04350638d2e07361ce72ba5d22e",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"driver_sha256": "3dbaa6547cb0a4cb1541054f3b64ad8b6e18cc70527ac6166e56b944e9bd464a",
"route": "Authorized evidence-only fallback to existing Gitea branch after confirmed Drive blob transport failure",
"drive_failure": {
"action": "Drive upload of exact complete archive",
"folder_id": "1nMnnyD2UvwhdfNDHY_L1Bbn9LiDjr_WS",
"status": "confirmed_transport_failure",
"drive_file_id_returned": false,
"approval_denial": false,
"endpoint": "sdmntprcentralus.oaiusercontent.com",
"elapsed_ms": 216022,
"azure_client_request_id": "36a2db34-002d-432b-990c-66a228f87268",
"reason": "OpenAI file blob upload failed: error sending request",
"retry_attempted": false
},
"scope": "Complete original ZIP, no fragments; no source integration"
}
@@ -1,8 +0,0 @@
PASS: exact ed9d8c9 baseline versus exact 1aa8110 test-only candidate / a135252 production source.
Six host guards and both sequential GPU processes passed; 136.855 seconds total.
Six default bit-equivalence groups, six projected groups and two changed-remap groups passed.
112 actual compiler sidecars retained and source/config/PTX verified.
No production promotion/default change, main/dev update, LES re-pin or new conservation claim.
Complete original evidence in one ZIP; all 57 manifest payloads verified.
Drive blob ingress failed after 216022 ms before any Drive file ID; approved existing-branch fallback.
Archive SHA256: 589a5537069cb7f10c6e349648aae2900b0af996b0dc1ac147a138581cb913e3
@@ -1,24 +0,0 @@
{
"archive": "CelerisLab_projected_pairs_TG_2cf9853_20261018.zip",
"bytes": 4567931,
"sha256": "d312bfd0175e5a79d1a28a595ba229a6d8435ba13e3b9058c409fcc9737cafc1",
"candidate": "2cf9853952e52f59bea63cf5c1d3a1cd76e53eed",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_fingerprint": "a5dbfd804befce868067d79a23e5fd47dce7f505b3f9b1bb2145fb57cb5f2178",
"capture_helper_sha256": "3dbaa6547cb0a4cb1541054f3b64ad8b6e18cc70527ac6166e56b944e9bd464a",
"route": "Authorized evidence-only fallback to existing Gitea branch after confirmed Drive blob transport failure",
"drive_failure": {
"action": "Upload intact CelerisLab_projected_pairs_TG_2cf9853_20261018.zip",
"folder_id": "1nMnnyD2UvwhdfNDHY_L1Bbn9LiDjr_WS",
"status": "confirmed_transport_failure",
"drive_file_id_returned": false,
"approval_denial": false,
"endpoint": "sdmntprcentralus.oaiusercontent.com",
"elapsed_ms": 216449,
"azure_client_request_id": "2a1827d5-986d-4999-a920-9ea1bd63fba7",
"reason": "OpenAI file blob upload failed: error sending request",
"retry_attempted": false,
"archive_sha256": "d312bfd0175e5a79d1a28a595ba229a6d8435ba13e3b9058c409fcc9737cafc1"
},
"scope": "Complete original ZIP, no fragments; no source integration"
}
@@ -1,8 +0,0 @@
Exact2cf9853 generic projected-pair TG repeat / a135252 production source.
Four fresh cases and assessment completed,18.568578 seconds,589299712 active updates.
Projected_linear PASS;constant velocity relative gate FAIL;aggregate FALSE.
All absolute gates and case/control validity pass;all scalar samples identical to11901a7.
19 host tests and dry-run passed;initial external count assertion retained.
Six actual build sidecars/source/config/PTX verified;no tuning/default switch/source merge.
Complete intact ZIP with105manifest payloads;authorized existing Gitea evidence branch fallback.
Archive SHA256: d312bfd0175e5a79d1a28a595ba229a6d8435ba13e3b9058c409fcc9737cafc1
@@ -1,37 +0,0 @@
{
"archives": [
{
"name": "CelerisLab_equilibrium_DFG_92da2e8_complete_results_20261018.tar.xz",
"bytes": 637088,
"sha256": "f0d45630c7d72f795ceccfd60a49b29881530903aaeb7b0a655c549ad1b40cd4",
"credential_scan": "No credentials/private-key/access-token patterns,including decompressed protection inventories",
"metadata_paths": "Only explicitly authorized CelerisLab project,existing interpreter and system/ephemeral paths",
"source_fixture_literal": "/workspace/shared/dfg_research/20141124_dfg_bench2_official.zip",
"no_unrelated_private_paths": true,
"archive_bytes_unchanged": true,
"no_credentials_or_unrelated_private_paths": true,
"archive_member_bytes_preserved": true
},
{
"name": "CelerisLab_shifted_unshifted_tiny_e8b8c58_20261018.zip",
"bytes": 82506,
"sha256": "81e05cf4c606310c966f905864497f0254edb70c77b107a6e77af570c7c54efa",
"credential_scan": "No credentials/private-key/access-token patterns,including decompressed protection inventories",
"metadata_paths": "Only explicitly authorized CelerisLab project,existing interpreter and system/ephemeral paths",
"source_fixture_literal": null,
"no_unrelated_private_paths": true,
"archive_bytes_unchanged": true,
"no_credentials_or_unrelated_private_paths": true,
"archive_member_bytes_preserved": true
},
{
"name": "CelerisLab_FP64_predictor_pair_5468695_20261018.zip",
"bytes": 61110,
"sha256": "28b6ce8804e3c448f829ea3516f8dff893373c899eb6d7b0f6a1d0edf6ca772e",
"scope": "CPU scalar result only,source5468695 not merged into any GPU/production branch",
"no_credentials_or_unrelated_private_paths": true,
"archive_member_bytes_preserved": true
}
],
"scope": "Intact original archives,transport only via existing validation branch;original result and qualification hash bindings preserved"
}
@@ -1,30 +0,0 @@
{
"archive": "CelerisLab_uniform_LES_eec4677_20261018.zip",
"bytes": 4528905,
"sha256": "7b8e6951b24a8c2852387bc0a026e133c491931d97340056195a981fb51db879",
"candidate": "eec4677db1308e2a9ce4e5f195c994356c11de13",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_fingerprint": "a5dbfd804befce868067d79a23e5fd47dce7f505b3f9b1bb2145fb57cb5f2178",
"capture_helper_sha256": "3dbaa6547cb0a4cb1541054f3b64ad8b6e18cc70527ac6166e56b944e9bd464a",
"route": "Authorized existing Gitea evidence branch fallback using documented current-session blob transport failures; no Drive submission for this archive",
"drive_failure": {
"status": "known_session_blob_transport_failure",
"approval_denial": false,
"this_archive_upload_attempted": false,
"basis": [
{
"archive": "CelerisLab_projected_pairs_TG_2cf9853_20261018.zip",
"status": "confirmed blob ingress transport failure",
"endpoint": "sdmntprcentralus.oaiusercontent.com",
"elapsed_ms": 216449,
"azure_client_request_id": "2a1827d5-986d-4999-a920-9ea1bd63fba7"
},
{
"archive": "CelerisLab_TG_2cf9853_REVIEW_SUBSET_20261018.zip",
"status": "MCP upload timeout,no ID returned,two folder lookups found no matches"
}
],
"current_archive_sha256": "7b8e6951b24a8c2852387bc0a026e133c491931d97340056195a981fb51db879"
},
"scope": "Complete original ZIP, no fragments; no source integration"
}
@@ -1,8 +0,0 @@
PASS: exacteec4677 existing uniform LES corrected regression / a135252 production source.
12 host runner/oracle checks and one actual corrected GPU run passed,exit0.
Three READY/reset records,DONEpassedtrue;Cs0/.16/1;6228 reported launches,10.535915seconds.
Manifest pins101 sources;historical profiles unchanged.Three actual build sidecars/PTX/source/config audits passed.
No baseline GPU,sweep,threshold/default/source integration changes;Cs1 amplified diagnostic only.
Complete intact archive with47manifest payloads;all original bytes verified.
Existing-session confirmed Drive blob failures used as authorized fallback basis;this archive not submitted to Drive.
Archive SHA256: 7b8e6951b24a8c2852387bc0a026e133c491931d97340056195a981fb51db879
@@ -1,22 +0,0 @@
{
"archive": "CelerisLab_axis_square_afa8f6a_20261019.zip",
"bytes": 170503,
"sha256": "e5348495e462973df35ab8675d456f024856397232010e276e132d5c21609c5c",
"candidate": "afa8f6aca10177d5901a9aeae650d3419212c6d0",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_branch": "tron/shear-probe-guards-caa573f",
"diagnostic": "axis_square_shear_n128",
"axis_module_sha256": "0baffa6eb99c268ce998d90300c993d45bb3b7b27c524b636874d75808bd0a8c",
"screening_pass": null,
"qualification_eligible": false,
"all_traces_complete": true,
"global_rows": 8,
"trace_times": 36,
"native_cell_time_triplets": 720,
"independently_verified_before_cleanup": true,
"matrix_assessor_run": false,
"late_fit_performed": false,
"physical_pass_claim": false,
"route": "Existing Gitea validation evidence branch",
"payload_scope": "Complete scientific ZIP, transport README and manifest only"
}
@@ -1,9 +0,0 @@
Short square shear orientation diagnostic: exact afa8f6aca10177d5901a9aeae650d3419212c6d0; production a135252ae78b47b57d7e77d19001700b3bedac8b unchanged.
Four fresh cases, root steps 0..8 only; no extra cases or broad test reruns.
axis_square_shear_n128; mode(2,0), phase pi/4, POST-G initialization, square(32,32,96,96).
8 global rows, 36 trace times, 720 native rho/ux/uy cell-time triplets; six build sidecars audited before cleanup.
screening_pass=null; qualification_eligible=false; no late fit or physical pass claim.
Signed unit-area native group moments retain actual centers, widths, areas and parity; no interpolation.
Root-sync samples do not resolve fine substeps. No snapshot, field dump, checkpoint or rerun.
Archive SHA256: e5348495e462973df35ab8675d456f024856397232010e276e132d5c21609c5c
Only intended scientific files; no task history or process listings.
@@ -1,32 +0,0 @@
{
"archive": "CelerisLab_centered_face_3552e6e_20261019.zip",
"bytes": 681926,
"sha256": "0cc8db143a72d6f3a2957a27279b4fa4a7b76d4d20a2da1ea48599e0f250eb79",
"candidate": "3552e6ee92696415491e756824887a3dbbbec492",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_branch": "experiment/centered-face-square",
"diagnostic": "centered_face_square_n128",
"advance_to_review": false,
"checks": {
"bottom_step1_clear": true,
"top_step1_nonworse": false,
"bottom_step8_nonworse": true,
"top_step8_nonworse": true,
"vertical_null": true,
"acoustic_nonworse": false,
"sampled_pressure_nonworse": true,
"step8_pressure_nonworse": true
},
"qualification_eligible": false,
"qualified": false,
"global_rows": 8,
"trace_times": 36,
"native_cell_time_triplets": 720,
"actual_source_config_ptx_captured_and_verified_before_cleanup": true,
"official_comparison_serialization_failed": true,
"recovered_unchanged_comparison": true,
"no_gpu_reruns": true,
"physical_pass_claim": false,
"route": "Existing Gitea validation evidence branch",
"payload_scope": "Complete scientific ZIP, transport README and manifest only"
}
@@ -1,8 +0,0 @@
Centered-face square experimental comparison: exact 3552e6ee92696415491e756824887a3dbbbec492; production a135252ae78b47b57d7e77d19001700b3bedac8b unchanged.
Four fresh sequential cases: U128/U256/current projected/centered_face_v1. Root steps 0..8 only.
1900544 ACTIVE updates, 8 global rows, 36 trace times, 720 native cell-time triplets; six actual source/config/PTX builds captured and audited before cleanup.
Recovered unchanged comparison: advance_to_review=false; top_step1_nonworse and acoustic_nonworse fail.
Official comparison CLI exit1 was a NumPy bool_ JSON serialization defect; partial output and traceback retained. Host-only comparison recovery converted scalar types only. No GPU or CLI reruns.
qualification_eligible=false; qualified=false; no physical pass or main promotion. Local arithmetic deadbands are not accumulated error bounds.
Archive SHA256: 0cc8db143a72d6f3a2957a27279b4fa4a7b76d4d20a2da1ea48599e0f250eb79
Only intended scientific files; no task history, process listings or approval exchanges.
@@ -1,13 +0,0 @@
{
"archive": "CelerisLab_nested_shear_335624c_20261019.zip",
"bytes": 2110640,
"sha256": "8ff04b86f58d5e863394fedf8a87648879cdf7277b6d1bb326208858322d3e04",
"snapshot_sha256": "4e8b8af02ba54db48dc2ea36f24c16fc6004f77e4c8f143fca809ec7fbaa7884",
"candidate": "335624c27b8fc9925e708fb61bde5eea5c04d2a4",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"diagnostic": "nested_shear_n128",
"scientific_status": "FAIL",
"contract_valid": true,
"route": "Existing authorized Gitea validation evidence branch",
"payload_scope": "Complete scientific ZIP, transport README and manifest only"
}
@@ -1,11 +0,0 @@
Nested shear validation: exact 335624c27b8fc9925e708fb61bde5eea5c04d2a4; production a135252ae78b47b57d7e77d19001700b3bedac8b unchanged.
57 host tests and four source-only dry runs passed. Four fresh GPU cases completed
sequentially; valid frozen scientific outcome: FAIL.
Both uniform controls pass; constant and projected depth-3 runs fail own pressure
and comparative rate/residual/pressure budgets. No rerun or tuning.
Eight actual build sidecars audited; one projected final macro snapshot, no
population dump or time series. Complete original archive with 66 intended members.
Archive SHA256: 8ff04b86f58d5e863394fedf8a87648879cdf7277b6d1bb326208858322d3e04
Snapshot SHA256: 4e8b8af02ba54db48dc2ea36f24c16fc6004f77e4c8f143fca809ec7fbaa7884
Archive excludes private task history, process listings and unrelated artifacts.
This evidence-only commit changes no source branch or source file.
@@ -1,19 +0,0 @@
{
"archive": "CelerisLab_postg_70c83b7_20261019.zip",
"bytes": 575798,
"sha256": "0e18ae96a1f3e87f0482385b8c683d9e8a349de39c4155dd7bcedc1686200cf6",
"candidate": "70c83b7233888cb7287c8d1905563590c9e72ef4",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_branch": "tron/shear-probe-guards-caa573f",
"diagnostic": "postg_shear_n128",
"initialization_id": "postg_first_gradient_v1",
"qualification_eligible": false,
"initializer_sha256": "9c909fa013c092490ee21532e3125b2a78a4c5102c7a1bdc0e76986d3f0ef903",
"probe_module_sha256": "e2e6490d281cc275f448dc6d6ea7b9b4407cc74a51e9256b86c08c8626b89b76",
"all_trace_complete": true,
"total_trace_rows": 774,
"independently_verified_before_cleanup": true,
"matrix_assessor_run": false,
"route": "Existing authorized Gitea validation evidence branch",
"payload_scope": "Complete scientific ZIP, transport README and manifest only"
}
@@ -1,10 +0,0 @@
POST-G startup counterfactual: exact 70c83b7233888cb7287c8d1905563590c9e72ef4; production a135252ae78b47b57d7e77d19001700b3bedac8b and equilibrium oracle unchanged.
76 host tests and three exact dry runs pass; three fresh serial cases, no matrix assessor.
postg_shear_n128; initialization_id=postg_first_gradient_v1; qualification_eligible=false.
All traces complete: True; total trace rows: 774.
15 main rows, 24 probes, five source/config/PTX sidecars independently verified before cleanup.
Equilibrium source1f64f7e cases are historical controls; per-time metrics compared without scalar-equality assertions.
Finite projected scalar failure retained. Startup compatibility diagnostic only, not a production fix or long-time qualification.
No extra cases, tuning, reruns, snapshots, field dumps or checkpoints. Fine substeps unresolved.
Archive SHA256: 0e18ae96a1f3e87f0482385b8c683d9e8a349de39c4155dd7bcedc1686200cf6
Only intended scientific files; no task history or process listings.
@@ -1,30 +0,0 @@
{
"archive": "CelerisLab_scaled_n256_92b8afe_20261019.zip",
"bytes": 4047594,
"sha256": "e1a970d0359c8a5f2df6a66bad4c8b8ab64e01fac4f7660ac8e604046f89abcb",
"candidate": "92b8afeeed66c8ac05b37e90d0a592b2b3d0ce01",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_fingerprint": "a5dbfd804befce868067d79a23e5fd47dce7f505b3f9b1bb2145fb57cb5f2178",
"capture_helper_sha256": "3dbaa6547cb0a4cb1541054f3b64ad8b6e18cc70527ac6166e56b944e9bd464a",
"route": "Authorized existing Gitea evidence branch fallback using documented current-session blob transport failures; no Drive submission for this archive",
"drive_failure": {
"status": "known_session_blob_transport_failure",
"approval_denial": false,
"this_archive_upload_attempted": false,
"basis": [
{
"archive": "CelerisLab_projected_pairs_TG_2cf9853_20261018.zip",
"status": "confirmed blob ingress transport failure",
"endpoint": "sdmntprcentralus.oaiusercontent.com",
"elapsed_ms": 216449,
"azure_client_request_id": "2a1827d5-986d-4999-a920-9ea1bd63fba7"
},
{
"archive": "CelerisLab_TG_2cf9853_REVIEW_SUBSET_20261018.zip",
"status": "MCP upload timeout,no ID returned,two folder lookups found no matches"
}
],
"current_archive_sha256": "e1a970d0359c8a5f2df6a66bad4c8b8ab64e01fac4f7660ac8e604046f89abcb"
},
"scope": "Complete original ZIP, no fragments; no source integration"
}
@@ -1,10 +0,0 @@
Exact92b8afe bounded scaled_n256 same-placement resolution diagnostic / unchangeda135252 production.
22 host tests and four dry guards passed;four fresh GPU cases+assessment completed41.122633seconds.
4714397696 active updates;constant/projected/aggregate frozen gates allPASS.
Uniform256 fresh/historical main+early bridge and recorded runtime identical.
AMR velocity/pressure/energy raw errors lower at all4postinitial times;mass errors higher.
Uniform512 controls not uniformly better;all6relative budgets floor-dominated;no convergence certificate.
Six actual build sidecars/source/config/PTX audits pass.Original pinned2cf references included separately.
Complete intact ZIP with117manifest payloads;no source push/default change/extra case/tuning.
Known session Drive blob transport failures used as authorized existing Gitea fallback;this archive not submitted to Drive.
Archive SHA256: e1a970d0359c8a5f2df6a66bad4c8b8ab64e01fac4f7660ac8e604046f89abcb
@@ -1,33 +0,0 @@
{
"archive": "CelerisLab_scaled_shear_9748ef9_20261019.zip",
"bytes": 4084568,
"sha256": "81db3d724a7de1d08202bf693d9ef94ff1a8ade086614b843868657d9de54dda",
"candidate": "9748ef91ef3bfd366756ef0c8a056df8faa75679",
"review_base": "eec4677db1308e2a9ce4e5f195c994356c11de13",
"flow": "shear_wave",
"shear_wave_sha256": "81d5c8ee60864372887cddf9239580c82fb6750d956038f1e3ee9de61aa4e877",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_fingerprint": "a5dbfd804befce868067d79a23e5fd47dce7f505b3f9b1bb2145fb57cb5f2178",
"capture_helper_sha256": "3dbaa6547cb0a4cb1541054f3b64ad8b6e18cc70527ac6166e56b944e9bd464a",
"route": "Authorized existing Gitea evidence branch fallback using documented current-session blob transport failures; no Drive submission for this archive",
"drive_failure": {
"status": "known_session_blob_transport_failure",
"approval_denial": false,
"this_archive_upload_attempted": false,
"basis": [
{
"archive": "CelerisLab_projected_pairs_TG_2cf9853_20261018.zip",
"status": "confirmed blob ingress transport failure",
"endpoint": "sdmntprcentralus.oaiusercontent.com",
"elapsed_ms": 216449,
"azure_client_request_id": "2a1827d5-986d-4999-a920-9ea1bd63fba7"
},
{
"archive": "CelerisLab_TG_2cf9853_REVIEW_SUBSET_20261018.zip",
"status": "MCP upload timeout,no ID returned,two folder lookups found no matches"
}
],
"current_archive_sha256": "81db3d724a7de1d08202bf693d9ef94ff1a8ade086614b843868657d9de54dda"
},
"scope": "Complete original ZIP, no fragments; no source integration"
}
@@ -1,11 +0,0 @@
Exact9748ef9 scaled oblique(2,1) shear-wave diagnostic;production unchanged a135252.
51 host tests/four source-only preflights passed;four fixed fresh cases and assessment completed 19.712796s.
4714397696 active updates;contract_valid=True;scientificstatus=FAIL;passed=False.
Independent uniform256 bridge:complete scalar rows/build sidecars/runtime exact to retained de5b0cc.
Both uniform controls pass own screens;projected256 own/budget/controlled PASS.
Constant256 pressure own screen and rate/residual/pressure budgets FAIL;finite exit1 retained.
Signed rate bias,excess over BOTH controls,raw/scaled pressure,full modal/phase/mass and interval data retained.
All six actual sidecars independently audited;no tuning,retry,extra cases,source publication or integration.
Two resolutions/one phase and placement give descriptive trends,not an order or localization proof.
Known session Drive blob transport failure used for authorized Gitea fallback;this archive not submitted to Drive.
Complete original ZIP;archive SHA256:81db3d724a7de1d08202bf693d9ef94ff1a8ade086614b843868657d9de54dda
@@ -1,33 +0,0 @@
{
"archive": "CelerisLab_shear_wave_de5b0cc_20261019.zip",
"bytes": 4031180,
"sha256": "a8924472f25c61dc107f344a80cd8d07baa35772542bf76357475d0c3346cffa",
"candidate": "de5b0cc080794d0ce44d37f845aa8e8dbf8c2016",
"review_base": "eec4677db1308e2a9ce4e5f195c994356c11de13",
"flow": "shear_wave",
"shear_wave_sha256": "81d5c8ee60864372887cddf9239580c82fb6750d956038f1e3ee9de61aa4e877",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_fingerprint": "a5dbfd804befce868067d79a23e5fd47dce7f505b3f9b1bb2145fb57cb5f2178",
"capture_helper_sha256": "3dbaa6547cb0a4cb1541054f3b64ad8b6e18cc70527ac6166e56b944e9bd464a",
"route": "Authorized existing Gitea evidence branch fallback using documented current-session blob transport failures; no Drive submission for this archive",
"drive_failure": {
"status": "known_session_blob_transport_failure",
"approval_denial": false,
"this_archive_upload_attempted": false,
"basis": [
{
"archive": "CelerisLab_projected_pairs_TG_2cf9853_20261018.zip",
"status": "confirmed blob ingress transport failure",
"endpoint": "sdmntprcentralus.oaiusercontent.com",
"elapsed_ms": 216449,
"azure_client_request_id": "2a1827d5-986d-4999-a920-9ea1bd63fba7"
},
{
"archive": "CelerisLab_TG_2cf9853_REVIEW_SUBSET_20261018.zip",
"status": "MCP upload timeout,no ID returned,two folder lookups found no matches"
}
],
"current_archive_sha256": "a8924472f25c61dc107f344a80cd8d07baa35772542bf76357475d0c3346cffa"
},
"scope": "Complete original ZIP, no fragments; no source integration"
}
@@ -1,11 +0,0 @@
Exactde5b0cc first bounded oblique(2,1) shear-wave diagnostic / unchangeda135252 production.
43 host checks and four source-only preflights passed;four fresh physical cases+assessment completed12.081603seconds.
589299712 active updates;valid finite data,contract_validtrue,scientificassessmentFAIL.
Both uniform controls own screensPASS;constant pressure screenFAIL(exit1 retained).
Projected own screensPASS,but rate/residual controlled budgetsFAIL;no controlled-pass.
All fits available;modal/phase,fit/interval rates,residuals,raw/scaled spuriouspressure andmass retained.
Pressure usescontinuumA_exact^2/4,notTG pressure semantics;coefficient-one|kh|² screens diagnostic only.
Six actual sidecars/source/config/PTX audits pass;no tuning/retry/source publication/merge.
Complete intact ZIP with114manifest payloads;older92b8afe object/bundle/archive preserved.
Known session Drive blob transport failures used as authorized existing Gitea fallback;this archive not submitted to Drive.
Archive SHA256: a8924472f25c61dc107f344a80cd8d07baa35772542bf76357475d0c3346cffa
@@ -1,15 +0,0 @@
{
"archive": "CelerisLab_signed_probes_1f64f7e_20261019.zip",
"bytes": 777103,
"sha256": "3cc338af0bad8e44ff5bd89232f2981e513797875b58d8aa3ed3ae6d2ce7f97e",
"candidate": "1f64f7eb11c14ae1106136de941b74a02142382e",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_branch": "tron/shear-probe-guards-caa573f",
"probe_module_sha256": "e2e6490d281cc275f448dc6d6ea7b9b4407cc74a51e9256b86c08c8626b89b76",
"scalar_rows_and_checked_runtime_exact": true,
"mechanism_diagnostic_usable": true,
"independently_verified_before_cleanup": true,
"matrix_assessor_run": false,
"route": "Existing authorized Gitea validation evidence branch",
"payload_scope": "Complete scientific ZIP, transport README and manifest only"
}
@@ -1,9 +0,0 @@
Signed shear probes: exact 1f64f7eb11c14ae1106136de941b74a02142382e; production a135252ae78b47b57d7e77d19001700b3bedac8b unchanged.
68 host tests and four exact dry runs pass; four fresh serial cases; no matrix assessor.
20 main rows match audited previous rows. All four raw traces are retained when valid, with 258 root times and 24 probes.
Seven actual source/config/PTX sidecars independently verified before module load and compiler cleanup.
Scalar consistency: True; mechanism usable: True.
Nested projected finite scalar screen failure preserved. No algorithm changes, reruns, snapshots, populations or checkpoints.
Root-sync samples do not resolve fine substeps; actual centers and displacements retained.
Archive SHA256: 3cc338af0bad8e44ff5bd89232f2981e513797875b58d8aa3ed3ae6d2ce7f97e
Only intended scientific files; no task history or process listings; no source-branch changes in this evidence commit.
@@ -1,14 +0,0 @@
{
"archive": "CelerisLab_twin_shear_02bde0f_20261019.zip",
"bytes": 127830,
"sha256": "a93ec5a45868cc0c550588a0eacc6702f442d4b7675cff82608694bcf4117451",
"candidate": "02bde0f75187786a2ce10abc9a863f750b6343a8",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"diagnostic": "twin_shear_n128",
"scientific_status": "FAIL",
"contract_valid": true,
"audit_order_limitation": "Sidecars and PTX hashes were captured/verified before cleanup. Independent source/config reconstruction occurred after cleanup; the requested independent pre-cleanup source audit was not performed. No rerun or source fix.",
"independent_pre_cleanup_source_audit_complete": false,
"route": "Existing authorized Gitea validation evidence branch",
"payload_scope": "Complete scientific ZIP, transport README and manifest only"
}
@@ -1,9 +0,0 @@
Depth-2 twin shear validation: exact 02bde0f75187786a2ce10abc9a863f750b6343a8; production a135252ae78b47b57d7e77d19001700b3bedac8b unchanged.
61 host tests and four dry runs pass; four fresh serial cases; scientific FAIL, contract valid.
Controls pass. Constant fails own pressure and comparative rate/residual/pressure budgets.
Projected passes own screens and pressure budget, but fails comparative rate/residual budgets.
Six actual sidecars independently reconstructed after scratch cleanup; requested independent pre-cleanup audit was not performed.
No GPU rerun, tuning, snapshots, early traces, checkpoints or population dumps.
Audit-order limitation: Sidecars and PTX hashes were captured/verified before cleanup. Independent source/config reconstruction occurred after cleanup; the requested independent pre-cleanup source audit was not performed. No rerun or source fix.
Archive SHA256: a93ec5a45868cc0c550588a0eacc6702f442d4b7675cff82608694bcf4117451
Only intended scientific files; no task history or process listings; no source-branch changes.
@@ -1,16 +0,0 @@
{
"archive": "CelerisLab_wide_x_be8e6d6_20261019.zip",
"bytes": 260873,
"sha256": "ff50714f38df9c2ce37ce8e11bd88751477133a62b9fadd5da54a3be47705d1e",
"candidate": "be8e6d691d6d18baa8403f2d942b5aa382456ac1",
"production": "a135252ae78b47b57d7e77d19001700b3bedac8b",
"source_branch": "tron/shear-probe-guards-caa573f",
"preset_sha256": "13d16ba355117e2d074edccd9dc5d694c2fc13c673a0abdfca6401f6ed917733",
"probe_module_sha256": "e2e6490d281cc275f448dc6d6ea7b9b4407cc74a51e9256b86c08c8626b89b76",
"runner_screening_pass": false,
"mechanism_diagnostic_usable": true,
"independently_verified_before_cleanup": true,
"matrix_assessor_run": false,
"route": "Existing authorized Gitea validation evidence branch",
"payload_scope": "Complete scientific ZIP, transport README and manifest only"
}
@@ -1,9 +0,0 @@
Wide-x projected three-level shear: exact be8e6d691d6d18baa8403f2d942b5aa382456ac1; production a135252ae78b47b57d7e77d19001700b3bedac8b unchanged.
72 host tests and one exact dry run pass; one fresh GPU case, no controls or matrix assessor.
Runner screen pass: False; mechanism usable: True.
Five main rows, 258 root trace times, unchanged 24 targets and three independently verified pre-cleanup build sidecars.
Twenty probe locations match original nested, four horizontal probes shift; changed locations excluded from direct comparisons.
None crosses the new x=28 face. No qualification pass, reflection proof or pure gap-effect claim. Fine substeps unresolved.
No algorithm changes, reruns, snapshots, field dumps or checkpoints.
Archive SHA256: ff50714f38df9c2ce37ce8e11bd88751477133a62b9fadd5da54a3be47705d1e
Only intended scientific files; no task history or process listings.