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fix(arch): enforce Lean-first hierarchy across project — remove all secondary-Lean language
Project-wide sweep to find and fix every place Lean was treated as secondary,
optional, or subordinate to Python/Rust. The invariant: Lean is the source of
truth. Python and Rust are extraction targets only; they contain no logic, no
invariant checks, no decisions.
Changes:
1-Distributed-Systems/ene/src/lib.rs
- CRITICAL: Remove 'Rust is the canonical implementation language for
operational components' — replace with correct extraction-target framing
1-Distributed-Systems/agents/claw/README.md
- Remove 'canonical implementation lives in rust/' and 'source of truth is
ultraworkers/claw-code' blanket claims — scope to CLI binary only;
add Research Stack domain-logic note (Lean is source of truth per AGENTS.md)
- 'canonical Rust workspace' → 'Rust workspace (I/O extraction target)'
1-Distributed-Systems/agents/claw/src/Tool.py
- 'Python-first porting summary' → 'Lean-to-Python extraction summary'
1-Distributed-Systems/agents/claw/src/projectOnboardingState.py
- python_first: bool = True → lean_first: bool = True (Lean always leads)
6-Documentation/docs/specs/ENE_MEMORY_ATLAS_SPEC.md
- CRITICAL: 'Python first (reference) ... Lean-formal next' → correct order:
Lean specification first, Python extraction shim, Verilog hardware extraction
6-Documentation/docs/recovered/geocognition_equation_types_map.mmd
- 'Lean owns logic; Rust owns boundary' → 'Lean owns all logic and decisions;
Rust is boundary shim only'
6-Documentation/docs/semantics/HYPER_DIMENSIONAL_PHYSICS_INTRO.md
- 'Python implementation ... Lean formalization' → 'Lean specification (source
of truth) ... Python extraction shim'
6-Documentation/docs/geometry/GEOMETRY_TAXONOMY_FOR_NLOCAL_ADAPTATION.md
- 'reference specification for the Python implementation' → 'source of truth;
Python is an extraction shim against this spec'
6-Documentation/docs/protocols/TM_MCP_SPECIFICATION.md
- 'Python reference implementation' → 'Python extraction shim' (×2)
5-Applications/scripts/snn/README.md
- 'deterministic Python reference' → 'Python extraction shim / golden-vector
harness'; add TODO(lean-port) note; RTL must match 'Python shim (pending
Lean golden vector)' not 'Python reference'
6-Documentation/docs/METAPROBE_APPROACH.md
- 'DeltaGCLCompression.lean — Lean implementation / scripts/delta_gcl_encoder.py
— Python reference implementation' → Lean is source of truth / Python is
extraction shim
Generated with Devin (https://cli.devin.ai/docs)
Co-Authored-By: Devin <158243242+devin-ai-integration[bot]@users.noreply.github.com>
This commit is contained in:
parent
747045ff0f
commit
eafbee22b7
11 changed files with 20 additions and 17 deletions
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@ -29,14 +29,15 @@
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</p>
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Claw Code is the public Rust implementation of the `claw` CLI agent harness.
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The canonical implementation lives in [`rust/`](./rust), and the current source of truth for this repository is **ultraworkers/claw-code**.
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The canonical Rust binary lives in [`rust/`](./rust), and the upstream source for this CLI is **ultraworkers/claw-code**.
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Note: for Research Stack domain logic (not CLI I/O), Lean is the source of truth per AGENTS.md; Rust is an extraction target.
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> [!IMPORTANT]
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> Start with [`USAGE.md`](./USAGE.md) for build, auth, CLI, session, and parity-harness workflows. Make `claw doctor` your first health check after building, use [`rust/README.md`](./rust/README.md) for crate-level details, read [`PARITY.md`](./PARITY.md) for the current Rust-port checkpoint, and see [`docs/container.md`](./docs/container.md) for the container-first workflow.
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## Current repository shape
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- **`rust/`** — canonical Rust workspace and the `claw` CLI binary
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- **`rust/`** — Rust workspace and the `claw` CLI binary (I/O extraction target)
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- **`USAGE.md`** — task-oriented usage guide for the current product surface
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- **`PARITY.md`** — Rust-port parity status and migration notes
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- **`ROADMAP.md`** — active roadmap and cleanup backlog
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@ -11,5 +11,5 @@ class ToolDefinition:
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DEFAULT_TOOLS = (
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ToolDefinition('port_manifest', 'Summarize the active Python workspace'),
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ToolDefinition('query_engine', 'Render a Python-first porting summary'),
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ToolDefinition('query_engine', 'Render a Lean-to-Python extraction summary'),
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)
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@ -7,4 +7,4 @@ from dataclasses import dataclass
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class ProjectOnboardingState:
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has_readme: bool
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has_tests: bool
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python_first: bool = True
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lean_first: bool = True # Lean is always the source of truth; Python/Rust are extraction targets
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@ -4,8 +4,9 @@
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//! direct_swarm_probe.py, ingest_keys_to_ene.py, migrate_credentials.py,
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//! propagate_ssh_keys.py
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//!
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//! Per AGENTS.md §Infrastructure: Rust is the canonical implementation
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//! language for operational components. Python shims are deprecated.
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//! Per AGENTS.md: Lean is the source of truth. Rust is an extraction target
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//! for operational I/O components. Python shims are deprecated in favour of Rust,
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//! but neither Rust nor Python may contain logic, invariant checks, or decisions.
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pub mod config;
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pub mod credentials;
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@ -5,15 +5,16 @@ on import — see "Calibration deltas" below.
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## Layout
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- [snn_nii_reference.py](snn_nii_reference.py) — deterministic Python reference. Pipeline:
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`predict → nii_step (clamp + bounded Δw + decay) → msnn_step (LIF + FAMM-modulated drive) → rgflow_step (3-verdict) → famm_update (saturating + exp decay)`.
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- [snn_nii_reference.py](snn_nii_reference.py) — Python extraction shim / golden-vector harness.
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Pipeline: `predict → nii_step (clamp + bounded Δw + decay) → msnn_step (LIF + FAMM-modulated drive) → rgflow_step (3-verdict) → famm_update (saturating + exp decay)`.
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Writes per-record JSONL with SHA-tagged hash for golden-vector compare.
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`TODO(lean-port)`: Port pipeline logic to Lean; Python remains I/O harness only.
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- [generate_snn_vectors.py](generate_snn_vectors.py) — 4-phase synthetic stream
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(stable / drift / repeated bad / near-miss osc) OR pulls from a
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`uc_records.jsonl` topology18 stream.
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- [snn_test_config.json](snn_test_config.json) — Q8 fixed-point + thresholds.
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- RTL siblings live at [4-Infrastructure/hardware/tangnano9k/rtl/](../../hardware/tangnano9k/rtl/) and must
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bit-match this Python reference.
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bit-match this Python shim (pending Lean golden vector).
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## Quick start
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@ -415,8 +415,8 @@ def retrieveCompressedMetadata (ids : List RecordId) : List GCLManifest :=
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- **AGENTS.md v2.1** — Anti-Drift Evidence Standards
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- **DELTA_GCL_COMPRESSION_LANGUAGE_AGNOSTIC.md** — Complete specification
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- **DeltaGCLCompression.lean** — Lean implementation
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- **scripts/delta_gcl_encoder.py** — Python reference implementation
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- **DeltaGCLCompression.lean** — Lean source of truth (specification and implementation)
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- **scripts/delta_gcl_encoder.py** — Python extraction shim (I/O harness against the Lean spec)
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---
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@ -209,7 +209,7 @@ We classify each geometry format on two independent axes:
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### What can be wired as-is:
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1. **`geometry_noneuclidean.py`** — its log-PHI and logit functions become subroutines in the Level 4 plugin.
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2. **`GWLKernel.lean`** — its metric tensor and geodesic step formulas become the reference specification for the Python implementation.
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2. **`GWLKernel.lean`** — its metric tensor and geodesic step formulas are the source of truth; Python is an extraction shim against this spec.
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3. **`topological_tape_machine.py`** — operates at a higher layer; unchanged interface.
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4. **`tsm_perpetual_manifold.v`** — unchanged; the geometry layer feeds it, it doesn't compute geometry.
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5. **`Physics/*.lean`** — unchanged; serves as the invariant boundary.
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@ -781,7 +781,7 @@ src/tm_mcp/
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### 7.2 Data Structures (Pseudocode)
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```python
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# Python reference implementation
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# Python extraction shim (Lean spec is source of truth; this is I/O scaffolding only)
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from dataclasses import dataclass
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from typing import List, Optional, Dict, Union
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@ -1132,7 +1132,7 @@ class BenchmarkCompression(unittest.TestCase):
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**Next Steps:**
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1. Implement `TMMCP/` Lean modules with `#eval` verification
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2. Create Python reference implementation (`infra/tm_mcp/`)
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2. Create Python extraction shim (`infra/tm_mcp/`) from the Lean spec
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3. Validate MVP channels against synthetic data
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4. Run `lake build` and add to CI
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5. Measure compression ratios and reconstruction error for benchmark suite
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@ -107,7 +107,7 @@ flowchart TD
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BLIT["Equation Type: Bit-Blit Update<br/>M_{k+1} = Quant(Jump(M_k XOR sample))<br/>Use: O(1) discrete Picard shortcut"]:::proposal
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OISC["Equation Type: One-Instruction Logic<br/>4-gate / CMYK scalar update<br/>Use: minimal executable control layer"]:::proposal
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FPGA["Equation Type: LUT/BRAM Search Substrate<br/>BRAM = route memory, LUT = local transition law<br/>Use: hardware search engine"]:::keep
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TOOLLAW["Equation Type: Toolchain Law<br/>Lean owns logic; Rust owns boundary; Python relays<br/>Use: prevent hidden logic at system boundary"]:::keep
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TOOLLAW["Equation Type: Toolchain Law<br/>Lean owns all logic and decisions; Rust is boundary shim only; Python relays I/O<br/>Use: prevent hidden logic at system boundary"]:::keep
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RUST["Equation Type: Rust Gimbal<br/>libftdi / hardware I/O bridge<br/>Use: permanent fix over kernel roulette"]:::keep
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VERILOG["Equation Type: Bitstream Boundary<br/>Verilog/bitstream must be generated/proven/audited<br/>Use: suspect until linked to Lean source of truth"]:::audit
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end
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@ -553,4 +553,4 @@ The coordinates are computed, not stored. The decoder reconstructs them from `n`
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---
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*End of walkthrough. The Python implementation is in `pist_alpha_extended.py`. The Lean formalization is in `ExtendedManifoldEncoding.lean`.*
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*End of walkthrough. The Lean specification is in `ExtendedManifoldEncoding.lean` (source of truth). The Python extraction shim is in `pist_alpha_extended.py`.*
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@ -368,7 +368,7 @@ Following the MOIM project autopsy's principle (separate REAL from DREAM):
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| MCP server fronting atlas | **NOT YET** | open work |
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| Tang Nano 9K FPGA target | **NOT YET (local)** | Kimi has it; local does not |
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**The combination's first real deliverable** = MCP server that exposes the existing local pieces (voxel_key lookup, regime-bin scan, Q0_16 read/write through tardy BFT, settlement state filter) over a single protocol. The MOIM-side fractal hash and Dless Ω can land as Python first (reference per `ene_ingestion_engine.py`), Lean-formal next (`ENEDatabase.lean`, `DlessScalar.lean` ports), Verilog last (Tang Nano 9K, deferred).
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**The combination's first real deliverable** = MCP server that exposes the existing local pieces (voxel_key lookup, regime-bin scan, Q0_16 read/write through tardy BFT, settlement state filter) over a single protocol. The MOIM-side fractal hash and Dless Ω must be specified in Lean first (`ENEDatabase.lean`, `DlessScalar.lean`), with Python as an extraction shim (reference I/O: `ene_ingestion_engine.py`) and Verilog as the hardware extraction target (Tang Nano 9K, deferred). Lean is the source of truth; Python and Verilog are extraction targets only.
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---
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