Handbook
LMeta/LCDL PhysicsGenesis Prompt Pack v1
A repository-ready prompt, schema, curriculum, contract, and governance pack for filling Forge Intelligence with structured physics knowledge while preserving a scientifically meaningful route toward autonomous…
Updated
What this pack supports
It deliberately separates two programs:
- Reference physics library construction — ingest established quantities, units, constants, principles, laws, derivations, models, experiments, datasets, simulations, and historical lineages into typed, provenance-preserving objects.
- Clean-room physical discovery — expose a learner only to minimal mathematical, measurement, world, and intervention primitives; stage its invented quantities, relations, models, experiments, and invariants; then falsify, validate, deduplicate, safety-check, measure, and govern promotion.
The pack is designed for Forge Intelligence problem-class policies, LMeta units and library flows, FI-local LCDL contracts, artifact envelopes, maturity gates, session dual-wikis, and the deterministic-to-bounded-model reasoning ladder.
Physics-specific additions beyond MathGenesis
PhysicsGenesis treats the following as first-class rather than optional metadata:
- physical quantity, quantity kind, unit, dimension, and conversion semantics;
- coordinate frame, geometry, metric, orientation, sign, gauge, basis, and normalization conventions;
- system boundary, environment, initial conditions, and boundary conditions;
- governing, constitutive, closure, constraint, conservation, and fitted equations;
- approximations, omitted effects, dimensionless groups, validity regimes, and failure regimes;
- measurand definition, apparatus limits, calibration, traceability, uncertainty budget, covariance, preprocessing, and detection limits;
- competing hypotheses, interventions, controls, confounders, stopping rules, null results, and replication;
- train, held-out, intervention, and replication evidence as separate roles;
- numerical residuals, convergence, invariants, code and environment hashes, and model-form error;
- laboratory hazard and dual-use detail controls;
- clean-room worlds with hidden governing truth and learner-visible observation/intervention interfaces.
Start here
- Read
SITE_ANALYSIS.mdandintegration/TARGET_LAYOUT.md. - Choose
referenceor clean-room mode and readintegration/GOVERNANCE.md. - Use
prompts/00_system_library_governor.mdas the system message for every task. - Run
01_partition_and_ingestion_planfor each source collection or discovery generation. - Use prompts
02–24for extraction, metrology, theories, experiments, domain intelligence, simulations, inverse problems, structural links, curriculum, and candidate mining. - Run
25–29in independent contexts for falsification, validation, ontology, safety, and contamination. - Run
30_promotion_gateonly after all required reports exist. - Run
33_repository_assemblerto produce a write plan; ordinary version-controlled tooling applies approved changes. - Run
34_batch_release_auditorbefore merge. - Run
35_historian_equivalence_novelty_assessoronly after a learner generation is frozen.
Most important rule
Do not expose the modern reference library to a learner expected to rediscover its concepts. Build the complete modern library under reference; expose only learner_seed, curriculum, approved prior discoveries, and declared world interfaces during a clean-room run.
Native mode — recommended
Use:
schemas/physics-knowledge-object.schema.json;schemas/physics-library-batch.schema.json;- proposed storage under
knowledge/physics/; - separate object roots for
reference,learner_seed,curriculum,discovery_staging,promoted_discovery, andrejected; - source, quantity, unit, model, experiment, dataset, snapshot, and dependency registries.
Native mode distinguishes mathematical derivation, computational verification, source grounding, dimensional validity, training fit, held-out validation, intervention support, regime bounding, and replication.
Compatibility mode
Use templates/compatibility_knowledge_module.yaml to wrap native object references in the current generic knowledge-module shape. Keep the native object canonical and validate it separately. Suggested jurisdictions:
physical-model/universal-foundationfor quantity and metrology foundations;physical-model/<regime>for theories and models;experiment/<apparatus-or-world>for protocols and observations;clean-room/physica0for learner seed and curriculum objects.
Prompt groups
| Group | Prompts | Purpose |
|---|---|---|
| Governance, planning, extraction | 00–02 |
Partition policy, source routing, candidate extraction |
| Metrology and theory formation | 03–09 |
Quantities, constants, laws, derivations, measurements, experiments, datasets |
| Domain physics intelligences | 10–17 |
Mechanics, gravitation, waves/optics, electromagnetism, thermodynamics, continuum, relativity, quantum |
| Computational and inference | 18–21 |
Simulation, inverse problems, law discovery, symmetry/scaling/conservation |
| Curriculum and invention | 22–24, 31 |
Historical pressure, analogy, candidate mining, frontier generation |
| Independent assurance | 25–30, 34–35 |
Falsification, validation, ontology, safety, contamination, promotion, release, historian |
| Repository and training outputs | 32–33 |
Verified replay/training records and repository write plans |
Recommended first reference release
The backlog proposes twelve initial modules:
- quantity kinds and dimensions;
- units and conversions;
- measurement models;
- uncertainty and covariance;
- kinematics;
- momentum and collisions;
- oscillation foundations;
- circuit and network foundations;
- thermodynamic states and processes;
- numerical verification and validation;
- experiment design;
- safety and dual-use governance.
Recommended first clean-room experiment
Physica-0 starts from minimal logic, finite mathematics, geometry, comparison, reference marks, unit labels, position/time markers, observation, repeat, control, and intervention operations.
It includes controlled worlds for tracks, slopes, collisions, pendulums, waves, rays, static sources, circuits, gases, heat networks, orbits, moving observers, and two-path count statistics. Hidden modern target mappings remain historian-only.
The learner is evaluated on whether its inventions:
- improve held-out prediction;
- compress recurring observations or procedures;
- transfer across worlds;
- improve experiment efficiency;
- expose regime boundaries and anomalies;
- survive independent falsification;
- remain uncontaminated and safe;
- can be operationally measured and reproduced.
Key files
PROMPT_PACK.md— all 36 prompts in one document.prompts/— individual system and task prompts.prompts.jsonl— batch-friendly records with full system and user templates.prompt_catalog.yaml— prompt registry.schemas/— 21 physics, planning, assurance, promotion, repository, training, and historian schemas.curriculum/— Physica-0 seed, 35 problem families, 13 worlds, taxonomy, experimental ladder, and reference backlog.examples/— schema-valid objects, batches, cards, and assurance artifacts.templates/— policy, LMeta, envelope, registry, wiki, session, and receipt templates.lcdl_contracts/— eight proposed FI-local governed contracts.integration/— architecture, governance, migration, runbook, safety, clean-room, and implementation guidance.tools/— local prompt rendering and pack validation.
Verification posture
The generating model never self-certifies. Strong statuses require the corresponding independent receipt. A solved equation is not a validated model; a converged simulation is not an empirically confirmed theory; a training fit is not held-out prediction; an observational regularity is not necessarily causal; and a source report is not replication.
Implementation status
This is a complete design and prompt pack. Its proposed physics task IDs are not claimed to be registered or deployed. Promote capabilities through the existing Forge Intelligence contract, allowlist, maturity, fixture, semantic-validation, and review process.