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pfc5-asphalt-workflow

Orchestrate PFC2D/PFC3D 5.0 asphalt-mixture case handoff, specimen generation, fistPkg26 integration, Burger calibration, Marshall or rutting tests, validation, and reproducible delivery; use whenever a user mentions PFC5 asphalt, AC mixtures, fistPkg, Marshall, wheel tracking, or rutting.

インストール方法を見る

含まれるファイル(15)

  • SKILL.md11.6 KB
  • agents/openai.yaml327 B
  • dependencies.json1.4 KB
  • references/fistpkg-contract.md2.6 KB
  • references/intersection-rutting-research-evidence.md5.8 KB
  • references/runtime-verification-manifest.json2.3 KB
  • references/standards-method-map.md5.9 KB
  • references/standards-policy.md3.2 KB
  • references/standards-source-ledger.json7.9 KB
  • references/version-matrix.md1.0 KB
  • scripts/check_fistpkg.py685 B
  • scripts/check_runtime_manifest.py2.3 KB
  • templates/pfc5-asphalt-intake.yaml3.5 KB
  • tests/test_check_fistpkg.py2.1 KB
  • tests/test_pfc5_runtime_assets.py2.4 KB

SKILL.md(原文)

インストールする前に、エージェントに与えられる指示の中身を確認できます。

PFC5 Asphalt Workflow

Use this skill as the primary entrypoint for a complete asphalt-mixture task that targets PFC 5.0. Keep the PFC5 case internally version-pure and route narrow work to the sibling skills listed below.

When to use

Use this skill when the request includes one or more of:

  • PFC2D/PFC3D 5.0 asphalt, asphalt concrete, AC-13/16/20, mastic, aggregate or voids;
  • fistPkg/FISHTank material generation or its compression, diametral or tension tests;
  • Burger viscoelastic contacts for asphalt mortar;
  • Marshall stability/flow or wheel-tracking/rutting;
  • auditing an existing asphalt case for unsupported-version contamination.
  • migrating, restoring, or resuming an existing private PFC5 asphalt case.

If the user targets another PFC major version, stop and state that this package is out of scope; do not route to a removed sibling or translate commands implicitly.

Required inputs

Before production code, obtain or mark as unresolved:

  1. product (PFC2D or PFC3D 5.0); do not require a particular PFC5.0 subversion;
  2. unit system and stress/strain sign convention;
  3. test type and the complete standard method chain (sampling, preparation, forming, density/void, performance and field-validation methods), including whether a legacy 2011 method must be reproduced;
  4. specimen geometry and dimensional idealization;
  5. sieve-by-sieve gradation, constituent densities, binder/aggregate convention and target air-void content;
  6. aggregate representation (balls/clumps) and minimum resolvable particle size;
  7. contact-pair hypothesis and calibrated macro targets at the test temperature/rate; for an intersection case, include the vertical-horizontal load law, contact-model mixture policy and any physical-to-accelerated time mapping;
  8. legal <FISTPKG_ROOT>, PFC runtime route and run budget;
  9. required saves, histories, raw exports, figures and acceptance tolerances.

Never silently invent missing gradation, standard values, Burger parameters, or measured targets.

Version and evidence gates

Read version-matrix.md, fistpkg-contract.md, and standards-policy.md before writing a case. Use standards-method-map.md to classify each standard as a material method, design input, field validation method or acceptance context. Use standards-source-ledger.json to bind reviewed method claims to a source edition, printed-page locator and file digest without bundling the standards text.

  • PFC5 uses its own cmat, wall and FISH syntax. Reject unsupported newer-major command families instead of attempting an implicit port.
  • Run scripts/check_fistpkg.py "<FISTPKG_ROOT>" before relying on fistPkg.
  • Treat the user's licensed fistPkg files as external inputs. Never vendor their FISH, DLL, PDFs, projects or saves into this skill package.
  • The checker proves file compatibility only. A case is not validated until PFC executes a minimal syntax probe and the intended pilot case.

Workflow

P-1 — Audit an existing private case

When the request starts from an existing project, route first to pfc5-case-handoff. Protect the source, freeze included/excluded branches, verify integrity and portable dependencies, then restore the claimed last-good save and run a bounded audit before any full rebuild. Keep accepted, restart-only, diagnostic-only and obsolete states distinct. Skip this phase for a genuinely new case.

P0 — Freeze the case contract

Copy pfc5-asphalt-intake.yaml into the case directory and complete it. Record every value with units and provenance. Every method_chain item is an independent source record; do not reuse one global edition, source ID or reviewer across aggregate, forming, performance and field methods. Repeat a role when several methods or project records contribute, and use not_applicable rather than deleting a required role.

P1 — Choose the material abstraction

Route to pfc-asphalt-mixture.

  • A homogenized-mastic route normally uses explicit aggregate particles/clumps, unresolved mastic represented by contact laws, and residual pore space.
  • An explicit fine-particle route adds resolvable fine aggregate/filler particles; it is not automatically a literal three-particle-phase binder model.
  • Document which real phase each object/contact represents and what the model cannot resolve.

Perform volume and mass closure before particle generation. Do not assume nominal sieve fractions equal DEM particle radii.

P2 — Build and compact

Route the command skeleton, staged saves, contact installation order and static version audit to pfc5-core-modeling. Route reusable controllers, histories and callbacks to pfc5-fish; every callback still needs a minimal PFC5 runtime probe.

Use separate PFC5 stages:

00_parameters
10_boundaries
20_aggregate_generation
30_settle_or_expand
40_compact
50_install_final_contacts
60_equilibrate_and_instrument
70_test
80_export_and_verify

At every milestone record seed, particle/clump counts, mass/volume closure, void content, coordination/contact counts, equilibrium metric and save name. A target height alone does not prove target void content.

P3 — Install and calibrate contacts

Route Burger work to pfc-burger-viscoelastic and fistPkg baseline tests to pfc-fishtank-tests. Use pfc5-servo-calibration for wall-servo sign probes, gain bounds, parameter ledgers, guarded two-target updates and independent-case confirmation.

  1. verify a two-body or small-RVE contact probe in a PFC5.0 runtime;
  2. separate existing-contact reassignment from future-contact defaults;
  3. equilibrate after contact changes and preserve the pre-load state;
  4. calibrate elastic response, strength/interface response and time-temperature response in a declared sequence;
  5. confirm the result on an independent seed/specimen or loading condition.

Contact-level Burger constants are not obtained by directly renaming DSR/BBR parameters; they must be fitted through a model-scale response with units and geometry held fixed.

P4 — Run the selected test

TestRouteExtra gate
compression/diametral/tension/creeppfc5-standard-tests; optionally pfc-fishtank-testsforming/density/performance method chain, specimen formula, sign convention and exact baseline provenance
Marshallpfc-marshall-testT 0702 forming handoff, T 0709 edition, curved-head kinematics, raw/corrected curve audit
wheel tracking/ruttingpfc-rutting-testT 0703 or field-cut specimen handoff, T 0719 edition, count convention, load control and seven-position/equivalent rut measurement
intersection braking/acceleration ruttingpfc-rutting-testseparate vertical/horizontal reaction targets, boundary sensitivity, shear-component/depth contract and surrogate-equivalence evidence
transient load or stress wavepfc5-dynamics-wavewavelength/resolution, direction and timestep contract
AE or energy interpretationpfc5-ae-energyexplicit hit/event rule and declared energy convention
fluid, seepage or coupled boundarypfc5-couplingexchange contract, units and independently validated solver sides
other mechanical pathproject-specific PFC5 extensionverify every command in an actual PFC5 runtime

Do not describe Marshall as a Brazilian-tension simulation merely because it reuses dc.fis; only its controller skeleton is reused.

P5 — Verify, validate and deliver

Required checks:

  • version-pure syntax and external-source manifest;
  • geometry node/element contract when importing CAD or a mesh;
  • equilibrium and quasi-static/inertial evidence;
  • seed, resolution, timestep/damping and boundary sensitivity;
  • mass/volume/air-void closure;
  • reaction force versus prescribed load and duplicate displacement measurement;
  • for accelerated or coupled rutting, unaccelerated pilot comparison, contact-model population audit, vector-reaction error, displacement asymmetry and shear-depth profile;
  • curve shape, scalar targets and failure/rutting pattern against experiments;
  • rerun instructions and explicit list of unpassed runtime gates.

Specialist routing

NeedSkill
private-case migration, restore-first audit and handoffpfc5-case-handoff
command skeleton, stages, contact lifecycle, source auditpfc5-core-modeling
PFC5 FISH functions, histories and callbackspfc5-fish
servo control and guarded calibration updatespfc5-servo-calibration
CAD/mesh conversion contractspfc5-geometry-import
compression, diametral, tension and creep metricspfc5-standard-tests
dynamic loading and stress-wave resolutionpfc5-dynamics-wave
AE hit clustering and energy bookkeepingpfc5-ae-energy
fluid, seepage and solver-coupling contractspfc5-coupling
aggregate/gradation/void/specimenpfc-asphalt-mixture
Burger theory, PFC5 commands and calibrationpfc-burger-viscoelastic
fistPkg26 external frameworkpfc-fishtank-tests
Marshall controller adaptationpfc-marshall-test
wheel-tracking/ruttingpfc-rutting-test
CSV/image post-processingpfc-postprocessing or pfc-vedo-postprocess
unsupported test typeproject-specific PFC5 extension; no cross-version fallback

Output contract

Deliver:

  • completed case intake and source/version manifest;
  • PFC5-only stage map and thin driver;
  • gradation plus mass/volume/void closure tables;
  • contact assignment and calibrated parameter tables with units and temperature/rate;
  • fistPkg dependency-check result and copied-case provenance;
  • milestone saves and convergence/load-control evidence;
  • raw histories, calculated test metrics and validation comparison;
  • exact rerun instructions;
  • runtime_validated: true/false with all unpassed gates named.

Local contents

  • references/version-matrix.md — PFC5-only acceptance and rejection boundary.
  • references/fistpkg-contract.md — fistPkg26 external dependency contract.
  • references/standards-policy.md — current-versus-legacy test-standard rules.
  • references/standards-method-map.md — roles and method-chain routing for the reviewed asphalt, aggregate, design, field, maintenance and acceptance standards.
  • references/standards-source-ledger.json — source identity, digest, review scope and claim records; no standards text.
  • references/runtime-verification-manifest.json — hash-bound record of the four PFC5 runtime probes and the retained evidence level.
  • references/intersection-rutting-research-evidence.md — external-paper evidence, transferable modeling ideas and explicit non-default boundaries for mixed contacts, time compression and vertical-horizontal rutting.
  • scripts/check_fistpkg.py — backward-compatible entry point for the checker owned by pfc-fishtank-tests.
  • scripts/check_runtime_manifest.py — verifies that recorded runtime evidence still matches the current probe sources.
  • templates/pfc5-asphalt-intake.yaml — case intake and provenance template.
  • tests/test_check_fistpkg.py — deterministic checker tests.
  • tests/test_pfc5_runtime_assets.py — source-boundary and runtime-manifest regression tests.
  • dependencies.json — validated package-level contract for the PFC5 specialist skills.

レビュー

まだレビューはありません。使ってみた感想をお寄せください。

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概要と使いどころ

Build PFC 5.0 asphalt-mixture specimens with explicit aggregate objects, a declared homogenized-mastic or fine-particle abstraction, residual air voids, measured gradation conversion, contact-pair assignment, compaction, equilibrium, and mass-volume closure; use before Marshall, rutting, creep, or strength tests.

日本語の概要は準備中です。原文の説明を表示しています。

Echo-aloha/asphalt-codex-skills-5262026年8月26日 更新

Select, probe, calibrate, and audit the Burger viscoelastic contact model for PFC 5.0 asphalt-mixture cases, including Maxwell-Kelvin parameter roles, units, temperature/rate dependence, PFC5 cmat assignment, timestep checks, creep/recovery validation, and PFC5-only syntax boundary checks.

日本語の概要は準備中です。原文の説明を表示しています。

Echo-aloha/asphalt-codex-skills-5262026年8月26日 更新

Integrate an external, licensed Itasca PFC 5.0 fistPkg26 tree as a reproducible material-generation and compression/diametral/tension test baseline; use to validate its PFC5.0 layout, copy a private working case, preserve provenance, and audit ck/ct/dc/tt/ft extension points for asphalt workflows.

日本語の概要は準備中です。原文の説明を表示しています。

Echo-aloha/asphalt-codex-skills-5262026年8月26日 更新

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日本語の概要は準備中です。原文の説明を表示しています。

Echo-aloha/asphalt-codex-skills-5262026年8月26日 更新

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日本語の概要は準備中です。原文の説明を表示しています。

Echo-aloha/asphalt-codex-skills-5262026年8月26日 更新

Design, implement, and audit PFC3D 5.0 asphalt wheel-tracking and intersection-rutting simulations using RVE-to-strip-to-full-size scaling, PFC5-compatible vector reaction control, Burger-calibrated contacts, vertical-horizontal coupled loads, rut/shear histories, edition-specific metrics, and explicit surrogate validation.

日本語の概要は準備中です。原文の説明を表示しています。

Echo-aloha/asphalt-codex-skills-5262026年8月26日 更新

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