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fix: deep GPU integration, fix all ruff/mypy issues, add .dockerignore
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Browse Source 
- Integrate GPU scoring inline into reasoning/multi_path.py (auto-uses GPU when available)
- Integrate GPU deduplication into multi_agent/consensus_engine.py
- Add semantic_search() method to memory/semantic_graph.py with GPU acceleration
- Integrate GPU training into self_improvement/training.py AutoTrainer
- Fix all 758 ruff lint issues (whitespace, import sorting, unused imports, ambiguous vars, undefined names)
- Fix all 40 mypy type errors across the codebase (no-any-return, union-attr, arg-type, etc.)
- Fix deprecated ruff config keys (select/ignore -> [tool.ruff.lint])
- Add .dockerignore to exclude .venv/, tests/, docs/ from Docker builds
- Add type hints and docstrings to verification/outcome.py
- Fix E402 import ordering in witness_agent.py
- Fix F821 undefined names in vector_pgvector.py and native.py
- Fix E741 ambiguous variable names in reflective.py and recommender.py

All 276 tests pass. 0 ruff errors. 0 mypy errors.

Co-Authored-By: Nakamoto, S <defi@defi-oracle.io>
This commit is contained in:
Devin AI
2026-04-28 05:48:37 +00:00
parent fa71f973a6
commit 445865e429
112 changed files with 1160 additions and 955 deletions
Download Patch File Download Diff File Expand all files Collapse all files

2
fusionagi/maa/__init__.py
View File

@@ -1,8 +1,8 @@
"""Manufacturing Authority Add-On: sovereign validation layer for physical-world manufacturing."""
from fusionagi.maa.gap_detection import GapClass, GapReport, check_gaps
from fusionagi.maa.gate import MAAGate
from fusionagi.maa.schemas.mpc import ManufacturingProofCertificate, MPCId
from fusionagi.maa.gap_detection import check_gaps, GapReport, GapClass
__all__ = [
"MAAGate",

2
fusionagi/maa/audit.py
View File

@@ -2,8 +2,8 @@
from typing import Any
from fusionagi.maa.schemas.mpc import ManufacturingProofCertificate
from fusionagi.maa.gap_detection import GapReport
from fusionagi.maa.schemas.mpc import ManufacturingProofCertificate
def export_mpc_for_audit(cert: ManufacturingProofCertificate) -> dict[str, Any]:

7
fusionagi/maa/gate.py
View File

@@ -2,11 +2,10 @@
from typing import Any
from fusionagi.maa.gap_detection import check_gaps, GapReport
from fusionagi.maa.layers.mpc_authority import MPCAuthority
from fusionagi.maa.layers.dlt_engine import DLTEngine
from fusionagi._logger import logger
from fusionagi.maa.gap_detection import GapReport, check_gaps
from fusionagi.maa.layers.dlt_engine import DLTEngine
from fusionagi.maa.layers.mpc_authority import MPCAuthority
# Default manufacturing tool names that require MPC
DEFAULT_MANUFACTURING_TOOLS = frozenset({"cnc_emit", "am_slice", "machine_bind"})

8
fusionagi/maa/layers/__init__.py
View File

@@ -1,13 +1,13 @@
"""MAA layers: DLT, intent, geometry, physics, process, machine, toolpath, MPC."""
from fusionagi.maa.layers.dlt_engine import DLTEngine
from fusionagi.maa.layers.mpc_authority import MPCAuthority
from fusionagi.maa.layers.intent_engine import IntentEngine
from fusionagi.maa.layers.geometry_kernel import GeometryAuthorityInterface, InMemoryGeometryKernel
from fusionagi.maa.layers.intent_engine import IntentEngine
from fusionagi.maa.layers.machine_binding import MachineBinding, MachineProfile
from fusionagi.maa.layers.mpc_authority import MPCAuthority
from fusionagi.maa.layers.physics_authority import PhysicsAuthorityInterface, StubPhysicsAuthority
from fusionagi.maa.layers.process_authority import ProcessAuthority
from fusionagi.maa.layers.machine_binding import MachineBinding, MachineProfile
from fusionagi.maa.layers.toolpath_engine import ToolpathEngine, ToolpathArtifact
from fusionagi.maa.layers.toolpath_engine import ToolpathArtifact, ToolpathEngine
__all__ = [
"DLTEngine",

91
fusionagi/maa/layers/intent_engine.py
View File

@@ -10,8 +10,13 @@ import re
import uuid
from typing import Any
from fusionagi.maa.schemas.intent import EngineeringIntentGraph, IntentNode, LoadCase, RequirementType
from fusionagi._logger import logger
from fusionagi.maa.schemas.intent import (
EngineeringIntentGraph,
IntentNode,
LoadCase,
RequirementType,
)
class IntentIncompleteError(Exception):
@@ -25,7 +30,7 @@ class IntentIncompleteError(Exception):
class IntentEngine:
"""
Intent decomposition, requirement typing, and load case enumeration.
Features:
- Pattern-based requirement extraction from natural language
- Automatic requirement type classification
@@ -101,7 +106,7 @@ class IntentEngine:
def __init__(self, llm_adapter: Any | None = None):
"""
Initialize the IntentEngine.
Args:
llm_adapter: Optional LLM adapter for enhanced natural language processing.
"""
@@ -117,33 +122,33 @@ class IntentEngine:
) -> EngineeringIntentGraph:
"""
Formalize engineering intent from natural language and file references.
Args:
intent_id: Unique identifier for this intent.
natural_language: Natural language description of requirements.
file_refs: References to CAD files, specifications, etc.
metadata: Additional metadata.
use_llm: Whether to use LLM for enhanced processing (if available).
Returns:
EngineeringIntentGraph with extracted requirements.
Raises:
IntentIncompleteError: If required information is missing.
"""
if not intent_id:
raise IntentIncompleteError("intent_id required", ["intent_id"])
if not natural_language and not file_refs:
raise IntentIncompleteError(
"At least one of natural_language or file_refs required",
["natural_language", "file_refs"],
)
nodes: list[IntentNode] = []
load_cases: list[LoadCase] = []
environmental_bounds: dict[str, Any] = {}
# Process natural language if provided
if natural_language:
# Use LLM if available and requested
@@ -151,13 +156,13 @@ class IntentEngine:
llm_result = self._formalize_with_llm(intent_id, natural_language)
if llm_result:
return llm_result
# Fall back to pattern-based extraction
extracted = self._extract_requirements(intent_id, natural_language)
nodes.extend(extracted["nodes"])
load_cases.extend(extracted["load_cases"])
environmental_bounds.update(extracted["environmental_bounds"])
# Process file references
if file_refs:
for ref in file_refs:
@@ -169,7 +174,7 @@ class IntentEngine:
metadata={"file_ref": ref},
)
)
# If no nodes were extracted, create a general requirement
if not nodes and natural_language:
nodes.append(
@@ -179,7 +184,7 @@ class IntentEngine:
description=natural_language[:500],
)
)
logger.info(
"Intent formalized",
extra={
@@ -188,7 +193,7 @@ class IntentEngine:
"num_load_cases": len(load_cases),
},
)
return EngineeringIntentGraph(
intent_id=intent_id,
nodes=nodes,
@@ -204,24 +209,24 @@ class IntentEngine:
) -> dict[str, Any]:
"""
Extract requirements from text using pattern matching.
Returns dict with nodes, load_cases, and environmental_bounds.
"""
nodes: list[IntentNode] = []
load_cases: list[LoadCase] = []
environmental_bounds: dict[str, Any] = {}
# Split into sentences for processing
sentences = re.split(r'[.!?]+', text)
node_counter = 0
load_case_counter = 0
for sentence in sentences:
sentence = sentence.strip()
if not sentence:
continue
# Check for dimensional requirements
for pattern in self.DIMENSIONAL_PATTERNS:
if re.search(pattern, sentence, re.IGNORECASE):
@@ -235,7 +240,7 @@ class IntentEngine:
)
node_counter += 1
break
# Check for load requirements
for pattern in self.LOAD_PATTERNS:
if re.search(pattern, sentence, re.IGNORECASE):
@@ -249,7 +254,7 @@ class IntentEngine:
)
node_counter += 1
break
# Check for environmental requirements
for pattern in self.ENVIRONMENTAL_PATTERNS:
match = re.search(pattern, sentence, re.IGNORECASE)
@@ -263,14 +268,14 @@ class IntentEngine:
)
)
node_counter += 1
# Extract specific bounds if possible
if "temperature" in sentence.lower():
temp_match = re.search(r"(-?\d+(?:\.\d+)?)", sentence)
if temp_match:
environmental_bounds["temperature"] = float(temp_match.group(1))
break
# Check for process requirements
for pattern in self.PROCESS_PATTERNS:
if re.search(pattern, sentence, re.IGNORECASE):
@@ -284,7 +289,7 @@ class IntentEngine:
)
node_counter += 1
break
# Check for load cases
for pattern in self.LOAD_CASE_PATTERNS:
match = re.search(pattern, sentence, re.IGNORECASE)
@@ -299,7 +304,7 @@ class IntentEngine:
)
load_case_counter += 1
break
return {
"nodes": nodes,
"load_cases": load_cases,
@@ -313,14 +318,14 @@ class IntentEngine:
) -> EngineeringIntentGraph | None:
"""
Use LLM to extract structured requirements from natural language.
Returns None if LLM processing fails (falls back to pattern matching).
"""
if not self._llm:
return None
import json
prompt = f"""Extract engineering requirements from the following text.
Return a JSON object with:
- "nodes": list of requirements, each with:
@@ -339,13 +344,13 @@ Return only valid JSON, no markdown."""
{"role": "system", "content": "You are an engineering requirements extraction system."},
{"role": "user", "content": prompt},
]
# Try structured output if available
if hasattr(self._llm, "complete_structured"):
result = self._llm.complete_structured(messages)
if result:
return self._parse_llm_result(intent_id, result)
# Fall back to text completion
raw = self._llm.complete(messages)
if raw:
@@ -356,10 +361,10 @@ Return only valid JSON, no markdown."""
raw = raw[4:]
result = json.loads(raw)
return self._parse_llm_result(intent_id, result)
except Exception as e:
logger.warning(f"LLM formalization failed: {e}")
return None
def _parse_llm_result(
@@ -375,7 +380,7 @@ Return only valid JSON, no markdown."""
req_type = RequirementType(req_type_str)
except ValueError:
req_type = RequirementType.OTHER
nodes.append(
IntentNode(
node_id=f"{intent_id}_llm_{i}",
@@ -384,7 +389,7 @@ Return only valid JSON, no markdown."""
metadata={"source": "llm"},
)
)
load_cases = []
for i, lc_data in enumerate(result.get("load_cases", [])):
load_cases.append(
@@ -394,9 +399,9 @@ Return only valid JSON, no markdown."""
metadata={"source": "llm"},
)
)
environmental_bounds = result.get("environmental_bounds", {})
return EngineeringIntentGraph(
intent_id=intent_id,
nodes=nodes,
@@ -408,24 +413,24 @@ Return only valid JSON, no markdown."""
def validate_completeness(self, graph: EngineeringIntentGraph) -> tuple[bool, list[str]]:
"""
Validate that an intent graph has sufficient information.
Returns:
Tuple of (is_complete, list_of_missing_items)
"""
missing = []
if not graph.nodes:
missing.append("No requirements extracted")
# Check for at least one dimensional or load requirement for manufacturing
has_dimensional = any(n.requirement_type == RequirementType.DIMENSIONAL for n in graph.nodes)
has_load = any(n.requirement_type == RequirementType.LOAD for n in graph.nodes)
any(n.requirement_type == RequirementType.LOAD for n in graph.nodes)
if not has_dimensional:
missing.append("No dimensional requirements specified")
# Load cases are recommended but not required
if not graph.load_cases:
logger.info("No load cases specified for intent", extra={"intent_id": graph.intent_id})
return len(missing) == 0, missing

6
fusionagi/maa/layers/mpc_authority.py
View File

@@ -3,13 +3,13 @@
from typing import Any
from fusionagi.maa.schemas.mpc import (
DecisionLineageEntry,
MachineDeclaration,
ManufacturingProofCertificate,
MPCId,
DecisionLineageEntry,
SimulationProof,
ProcessJustification,
MachineDeclaration,
RiskRegisterEntry,
SimulationProof,
)
from fusionagi.maa.versioning import VersionStore

78
fusionagi/maa/layers/physics_authority.py
View File

@@ -9,7 +9,6 @@ Responsible for:
"""
import hashlib
import math
import uuid
from abc import ABC, abstractmethod
from dataclasses import dataclass
@@ -53,7 +52,7 @@ class PhysicsProof(BaseModel):
class PhysicsAuthorityInterface(ABC):
"""
Abstract interface for physics validation.
Governing equation selection, boundary condition enforcement, safety factor declaration,
failure-mode completeness. Simulations are binding, not illustrative.
"""
@@ -148,7 +147,7 @@ class LoadCaseResult:
class PhysicsAuthority(PhysicsAuthorityInterface):
"""
Physics validation authority with actual validation logic.
Features:
- Material property validation
- Load case analysis
@@ -165,7 +164,7 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
):
"""
Initialize the PhysicsAuthority.
Args:
required_safety_factor: Minimum required safety factor (default 2.0).
material_db: Custom material properties database.
@@ -188,7 +187,7 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
) -> PhysicsProof | None:
"""
Validate physics for a design.
Args:
design_ref: Reference to the design being validated.
load_cases: List of load cases to validate against.
@@ -196,28 +195,31 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
dimensions: Key dimensions for stress calculation.
boundary_conditions: Boundary condition specification.
**kwargs: Additional parameters.
Returns:
PhysicsProof if validation passes, None if physics underdefined.
Raises:
PhysicsUnderdefinedError: If critical data is missing.
"""
missing_data = []
if not design_ref:
missing_data.append("design_ref")
if not material:
missing_data.append("material")
if not load_cases:
missing_data.append("load_cases")
if missing_data:
raise PhysicsUnderdefinedError(
f"Physics validation requires: {', '.join(missing_data)}",
missing_data=missing_data,
)
assert material is not None # guarded by PhysicsUnderdefinedError above
assert load_cases is not None # guarded by PhysicsUnderdefinedError above
# Get material properties
mat_props = self._materials.get(material.lower().replace(" ", "_"))
if not mat_props:
@@ -225,44 +227,44 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
f"Unknown material: {material}. Available: {list(self._materials.keys())}",
missing_data=["material_properties"],
)
# Validate each load case
load_case_results: list[LoadCaseResult] = []
min_safety_factor = float("inf")
warnings: list[str] = []
failure_modes_covered: list[str] = []
for lc in load_cases:
result = self._validate_load_case(lc, mat_props, dimensions)
load_case_results.append(result)
if result.safety_factor < min_safety_factor:
min_safety_factor = result.safety_factor
if not result.passed:
warnings.append(
f"Load case '{result.load_case_id}' failed: {result.failure_mode}"
)
# Track failure modes analyzed
if result.failure_mode and result.failure_mode not in failure_modes_covered:
failure_modes_covered.append(result.failure_mode)
# Determine governing equations based on load types
governing_equations = self._select_governing_equations(load_cases)
# Check minimum required failure modes
required_modes = ["yield_failure", "ultimate_failure"]
for mode in required_modes:
if mode not in failure_modes_covered:
failure_modes_covered.append(mode) # Basic checks are always done
# Generate proof ID based on inputs
proof_hash = hashlib.sha256(
f"{design_ref}:{material}:{load_cases}".encode()
).hexdigest()[:16]
proof_id = f"proof_{design_ref}_{proof_hash}"
# Determine validation status
validation_status = "validated"
if min_safety_factor < self._required_sf:
@@ -270,10 +272,10 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
warnings.append(
f"Safety factor {min_safety_factor:.2f} < required {self._required_sf}"
)
if any(not r.passed for r in load_case_results):
validation_status = "load_case_failure"
logger.info(
"Physics validation completed",
extra={
@@ -284,7 +286,7 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
"num_load_cases": len(load_cases),
},
)
return PhysicsProof(
proof_id=proof_id,
governing_equations=governing_equations,
@@ -317,25 +319,25 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
) -> LoadCaseResult:
"""Validate a single load case."""
lc_id = load_case.get("id", str(uuid.uuid4())[:8])
# Extract load parameters
force_n = load_case.get("force_n", 0)
moment_nm = load_case.get("moment_nm", 0)
pressure_mpa = load_case.get("pressure_mpa", 0)
temperature_c = load_case.get("temperature_c", 25)
# Get material limits
yield_strength = mat_props.get("yield_strength_mpa", 100)
ultimate_strength = mat_props.get("ultimate_strength_mpa", 150)
max_temp = mat_props.get("max_service_temp_c", 100)
# Calculate stress (simplified - assumes basic geometry)
area_mm2 = 100.0 # Default cross-sectional area
if dimensions:
width = dimensions.get("width_mm", 10)
height = dimensions.get("height_mm", 10)
area_mm2 = width * height
# Basic stress calculation
axial_stress = force_n / area_mm2 if area_mm2 > 0 else 0
bending_stress = 0
@@ -346,24 +348,24 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
c = height / 2
i = width * (height ** 3) / 12
bending_stress = (moment_nm * 1000 * c) / i if i > 0 else 0
# Combined stress (von Mises simplified for 1D)
max_stress = abs(axial_stress) + abs(bending_stress) + pressure_mpa
# Calculate safety factors
yield_sf = yield_strength / max_stress if max_stress > 0 else float("inf")
ultimate_sf = ultimate_strength / max_stress if max_stress > 0 else float("inf")
# Check temperature limits
temp_ok = temperature_c <= max_temp
# Determine if load case passes
passed = (
yield_sf >= self._required_sf
and ultimate_sf >= self._required_sf
and temp_ok
)
failure_mode = None
if yield_sf < self._required_sf:
failure_mode = "yield_failure"
@@ -371,7 +373,7 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
failure_mode = "ultimate_failure"
elif not temp_ok:
failure_mode = "thermal_failure"
return LoadCaseResult(
load_case_id=lc_id,
max_stress_mpa=max_stress,
@@ -390,13 +392,13 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
def _select_governing_equations(self, load_cases: list[dict[str, Any]]) -> str:
"""Select appropriate governing equations based on load types."""
equations = []
# Check load types
has_static = any(lc.get("type") == "static" or lc.get("force_n") for lc in load_cases)
has_thermal = any(lc.get("temperature_c") for lc in load_cases)
has_dynamic = any(lc.get("type") == "dynamic" or lc.get("frequency_hz") for lc in load_cases)
has_pressure = any(lc.get("pressure_mpa") for lc in load_cases)
if has_static:
equations.append("Linear elasticity (Hooke's Law)")
if has_thermal:
@@ -405,10 +407,10 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
equations.append("Modal analysis (eigenvalue)")
if has_pressure:
equations.append("Pressure vessel (hoop stress)")
if not equations:
equations.append("Linear elasticity (default)")
return "; ".join(equations)
def get_material_properties(self, material: str) -> dict[str, float] | None:
@@ -427,9 +429,9 @@ class PhysicsAuthority(PhysicsAuthorityInterface):
class StubPhysicsAuthority(PhysicsAuthorityInterface):
"""
Stub implementation for testing.
Returns a minimal proof if design_ref present; else raises PhysicsUnderdefinedError.
Note: This is a stub for testing. Use PhysicsAuthority for real validation.
"""

9
fusionagi/maa/schemas/__init__.py
View File

@@ -1,8 +1,13 @@
"""MAA schemas: MPC, DLT, intent."""
from fusionagi.maa.schemas.dlt import DLTContract, DLTFamily, DLTNode
from fusionagi.maa.schemas.intent import (
EngineeringIntentGraph,
IntentNode,
LoadCase,
RequirementType,
)
from fusionagi.maa.schemas.mpc import ManufacturingProofCertificate, MPCId
from fusionagi.maa.schemas.dlt import DLTNode, DLTContract, DLTFamily
from fusionagi.maa.schemas.intent import EngineeringIntentGraph, IntentNode, LoadCase, RequirementType
__all__ = [
"ManufacturingProofCertificate",

1
fusionagi/maa/schemas/mpc.py
View File

@@ -1,6 +1,5 @@
"""Manufacturing Proof Certificate schema: decision lineage, simulation proof, process, machine, risk."""
from enum import Enum
from typing import Any
from pydantic import BaseModel, Field

77
fusionagi/maa/tools.py
View File

@@ -6,15 +6,14 @@ These tools generate actual manufacturing instructions:
- machine_bind: Binds a design to a specific machine with capability validation
"""
import json
import uuid
from typing import Any
from pydantic import BaseModel, Field
from fusionagi._logger import logger
from fusionagi._time import utc_now_iso
from fusionagi.tools.registry import ToolDef
from fusionagi._logger import logger
class GCodeOutput(BaseModel):
@@ -55,7 +54,7 @@ class MachineBindOutput(BaseModel):
def _generate_gcode_header(machine_id: str, mpc_id: str) -> list[str]:
"""Generate standard G-code header."""
return [
f"; G-code generated by FusionAGI MAA",
"; G-code generated by FusionAGI MAA",
f"; MPC: {mpc_id}",
f"; Machine: {machine_id}",
f"; Generated: {utc_now_iso()}",
@@ -81,17 +80,17 @@ def _generate_gcode_footer() -> list[str]:
def _generate_toolpath_gcode(toolpath_ref: str) -> list[str]:
"""
Generate G-code from a toolpath reference.
In a real implementation, this would:
1. Load the toolpath data from storage
2. Convert toolpath segments to G-code commands
3. Apply feed rates, spindle speeds, tool changes
For now, generates a representative sample.
"""
# Parse toolpath reference for parameters
# Format expected: "toolpath_{type}_{id}" or custom format
gcode_lines = [
"; Toolpath: " + toolpath_ref,
"",
@@ -106,7 +105,7 @@ def _generate_toolpath_gcode(toolpath_ref: str) -> list[str]:
"",
"; Begin cutting operations",
]
# Generate sample toolpath movements
# In production, these would come from the actual toolpath data
sample_moves = [
@@ -117,21 +116,21 @@ def _generate_toolpath_gcode(toolpath_ref: str) -> list[str]:
"G1 Y0 ; Return Y",
"G0 Z5.0 ; Retract",
]
gcode_lines.extend(sample_moves)
return gcode_lines
def _cnc_emit_impl(mpc_id: str, machine_id: str, toolpath_ref: str) -> dict[str, Any]:
"""
Generate CNC G-code for a manufacturing operation.
Args:
mpc_id: Manufacturing Proof Certificate ID.
machine_id: Target CNC machine identifier.
toolpath_ref: Reference to toolpath data.
Returns:
Dictionary with G-code and metadata.
"""
@@ -139,15 +138,15 @@ def _cnc_emit_impl(mpc_id: str, machine_id: str, toolpath_ref: str) -> dict[str,
"CNC emit started",
extra={"mpc_id": mpc_id, "machine_id": machine_id, "toolpath_ref": toolpath_ref},
)
# Build G-code
gcode_lines = []
gcode_lines.extend(_generate_gcode_header(machine_id, mpc_id))
gcode_lines.extend(_generate_toolpath_gcode(toolpath_ref))
gcode_lines.extend(_generate_gcode_footer())
gcode = "\n".join(gcode_lines)
output = GCodeOutput(
mpc_id=mpc_id,
machine_id=machine_id,
@@ -159,24 +158,24 @@ def _cnc_emit_impl(mpc_id: str, machine_id: str, toolpath_ref: str) -> dict[str,
"tool_changes": 1,
},
)
logger.info(
"CNC emit completed",
extra={"mpc_id": mpc_id, "line_count": len(gcode_lines)},
)
return output.model_dump()
def _am_slice_impl(mpc_id: str, machine_id: str, slice_ref: str) -> dict[str, Any]:
"""
Generate AM slice instructions for additive manufacturing.
Args:
mpc_id: Manufacturing Proof Certificate ID.
machine_id: Target AM machine identifier.
slice_ref: Reference to slice/geometry data.
Returns:
Dictionary with slice data and metadata.
"""
@@ -184,18 +183,18 @@ def _am_slice_impl(mpc_id: str, machine_id: str, slice_ref: str) -> dict[str, An
"AM slice started",
extra={"mpc_id": mpc_id, "machine_id": machine_id, "slice_ref": slice_ref},
)
# In production, this would:
# 1. Load the geometry from slice_ref
# 2. Apply slicing algorithm with machine-specific parameters
# 3. Generate layer-by-layer toolpaths
# 4. Calculate support structures if needed
# Generate representative slice data
layer_height_mm = 0.2
num_layers = 100 # Would be calculated from geometry height
slice_data = {
slice_data: dict[str, Any] = {
"format_version": "1.0",
"machine_profile": machine_id,
"settings": {
@@ -229,7 +228,7 @@ def _am_slice_impl(mpc_id: str, machine_id: str, slice_ref: str) -> dict[str, An
"bounding_box_mm": {"x": 50, "y": 50, "z": num_layers * layer_height_mm},
},
}
output = SliceOutput(
mpc_id=mpc_id,
machine_id=machine_id,
@@ -241,23 +240,23 @@ def _am_slice_impl(mpc_id: str, machine_id: str, slice_ref: str) -> dict[str, An
"estimated_time_minutes": slice_data["statistics"]["estimated_time_minutes"],
},
)
logger.info(
"AM slice completed",
extra={"mpc_id": mpc_id, "layer_count": num_layers},
)
return output.model_dump()
def _machine_bind_impl(mpc_id: str, machine_id: str) -> dict[str, Any]:
"""
Bind a design (via MPC) to a specific machine.
Args:
mpc_id: Manufacturing Proof Certificate ID.
machine_id: Target machine identifier.
Returns:
Dictionary with binding confirmation and validation results.
"""
@@ -265,16 +264,16 @@ def _machine_bind_impl(mpc_id: str, machine_id: str) -> dict[str, Any]:
"Machine bind started",
extra={"mpc_id": mpc_id, "machine_id": machine_id},
)
# In production, this would:
# 1. Load the MPC to get design requirements
# 2. Load the machine profile
# 3. Validate machine capabilities against design requirements
# 4. Check envelope, tolerances, material compatibility
# 5. Record the binding in the system
binding_id = f"binding_{mpc_id}_{machine_id}_{uuid.uuid4().hex[:8]}"
# Simulate capability validation
capabilities_validated = True
validation_results = {
@@ -283,7 +282,7 @@ def _machine_bind_impl(mpc_id: str, machine_id: str) -> dict[str, Any]:
"material_check": {"status": "pass", "details": "Machine supports specified material"},
"feature_check": {"status": "pass", "details": "Machine can produce required features"},
}
output = MachineBindOutput(
mpc_id=mpc_id,
machine_id=machine_id,
@@ -294,24 +293,24 @@ def _machine_bind_impl(mpc_id: str, machine_id: str) -> dict[str, Any]:
"validation_results": validation_results,
},
)
logger.info(
"Machine bind completed",
extra={"binding_id": binding_id, "validated": capabilities_validated},
)
return output.model_dump()
def cnc_emit_tool() -> ToolDef:
"""
CNC G-code emission tool.
Generates G-code for CNC machining operations based on:
- MPC: Manufacturing Proof Certificate with validated design
- Machine: Target CNC machine configuration
- Toolpath: Reference to toolpath data
Returns structured output with G-code and metadata.
"""
return ToolDef(
@@ -336,13 +335,13 @@ def cnc_emit_tool() -> ToolDef:
def am_slice_tool() -> ToolDef:
"""
AM slice instruction tool.
Generates slice data for additive manufacturing operations:
- Layer-by-layer toolpaths
- Infill patterns
- Support structure calculations
- Machine-specific settings
Returns structured output with slice data and metadata.
"""
return ToolDef(
@@ -367,12 +366,12 @@ def am_slice_tool() -> ToolDef:
def machine_bind_tool() -> ToolDef:
"""
Machine binding declaration tool.
Binds a design (via MPC) to a specific machine:
- Validates machine capabilities against design requirements
- Checks envelope, tolerances, material compatibility
- Records the binding for audit trail
Returns structured output with binding confirmation.
"""
return ToolDef(