Files
2125_GCE/glyphos/cognitive_kernel.py
T
GlyphRunner System 5c4bfb2dc1 Implement GlyphOS Cognitive Kernel
Add a system service layer on top of LAIN cognition and Supercharged Glyph Registry:

Components:
- glyphos/cognitive_kernel.py: CognitiveKernel class + functional API
  * CognitiveKernel: Main orchestrator with execute_gx(), execute_symbolic()
  * Result accessors: get_last_result(), get_last_trace(), get_last_fused_symbol()
  * get_kernel(): Singleton kernel instance
  * run_gx(): Convenience function for global kernel
  * kernel_status(): Status introspection

- glyphos/__init__.py: Package initialization

- tests/test_cognitive_kernel.py: Comprehensive test suite (8 tests, 100% pass)
  * Kernel initialization and warmup
  * GX execution and result validation
  * Result accessor methods
  * Singleton pattern
  * Functional API

- COGNITIVE_KERNEL.md: Complete documentation

Test Results:
- 12 registry tests 
- 10 glyph bridge tests 
- 6 integration suites 
- 8 cognitive kernel tests 
- Total: 36 tests, 0 failures

No breaking changes - all existing tests pass.
2026-05-20 18:03:25 -04:00

286 lines
8.3 KiB
Python

"""GlyphOS Cognitive Kernel
Orchestrates LAIN cognition engine with Supercharged Glyph Registry.
Provides a clean service API for executing GX files and managing glyph-aware analysis.
"""
from typing import Optional, Dict, Any, List
import time
from pathlib import Path
from gx_lain.runtime import execute_gx_path, load_gx, normalize_segments, map_lanes, build_envelope, execute_with_lain
from glyphs.super_registry import load_all_supercharged, super_stats
class CognitiveKernel:
"""System service for GlyphOS cognition pipeline.
Orchestrates:
- LAIN 8-lane symbolic cognition
- Supercharged Glyph Registry integration
- Result caching and introspection
"""
def __init__(self, *, auto_load_glyphs: bool = True):
"""Initialize the Cognitive Kernel.
Args:
auto_load_glyphs: If True, load Supercharged Glyphs during warmup.
Defaults to True.
"""
self._auto_load_glyphs = auto_load_glyphs
self._last_result: Optional[Dict[str, Any]] = None
self._startup_time: Optional[float] = None
self._glyph_stats_cache: Optional[Dict[str, Any]] = None
self._warmed_up = False
self._last_mode: Optional[str] = None
def warmup(self) -> None:
"""Perform one-time initialization.
Loads:
- Supercharged Glyphs (if auto_load_glyphs)
- Registry statistics
Records:
- Kernel startup time
"""
if self._warmed_up:
return
self._startup_time = time.time()
if self._auto_load_glyphs:
load_all_supercharged()
# Cache registry stats
self._glyph_stats_cache = super_stats()
self._warmed_up = True
def execute_gx(
self,
gx_path: str,
*,
mode: str = "analyze",
context: Optional[Dict[str, Any]] = None
) -> Dict[str, Any]:
"""Execute a .gx file through the full cognition pipeline.
Args:
gx_path: Path to .gx file
mode: Cognitive mode (e.g., "analyze", "debug")
context: Optional execution context dict
Returns:
ExecutionResult dict with:
- fused_symbol: Combined 8-lane analysis
- output_text: Rendered analysis
- cognition_trace: Step-by-step processing
- diagnostics: Performance metrics + glyph resonance
"""
if not self._warmed_up:
self.warmup()
# Build context with mode
exec_context = context or {}
exec_context["cognitive_mode"] = mode
# Execute through LAIN pipeline
result = execute_gx_path(gx_path, context=exec_context)
# Cache result
self._last_result = result
self._last_mode = mode
return result
def execute_symbolic(
self,
manifest: Dict[str, Any],
segments: List[Dict[str, Any]],
payload: bytes,
*,
mode: str = "analyze",
context: Optional[Dict[str, Any]] = None
) -> Dict[str, Any]:
"""Execute cognition on in-memory GX components (no filesystem).
Args:
manifest: GX manifest dict
segments: GX segments list
payload: Compressed GX payload bytes
mode: Cognitive mode
context: Optional execution context
Returns:
ExecutionResult dict
"""
if not self._warmed_up:
self.warmup()
# Build context with mode
exec_context = context or {}
exec_context["cognitive_mode"] = mode
# Normalize segments
normalized_segs = normalize_segments(segments, payload)
# Map to lanes (0-7)
lane_assignments = map_lanes(manifest, normalized_segs)
# Build envelope
envelope = build_envelope(manifest, normalized_segs)
# Execute through LAIN with glyph bridge
result = execute_with_lain(manifest, envelope, lane_assignments, exec_context)
# Cache result
self._last_result = result
self._last_mode = mode
return result
def get_glyph_stats(self) -> Dict[str, Any]:
"""Get Supercharged Glyph Registry statistics.
Returns:
Dict with:
- total_glyphs: 600
- categories: List of category names
- fields_present: All fields in registry
- sample_ids: First 5 glyph IDs
- loaded: Whether registry is loaded
- load_path: Path to data file
- kernel_startup_time: Kernel warmup timestamp
"""
if not self._warmed_up:
self.warmup()
stats = self._glyph_stats_cache or super_stats()
# Add kernel metadata
stats["kernel_startup_time"] = self._startup_time
return stats
def get_last_result(self) -> Optional[Dict[str, Any]]:
"""Return the last ExecutionResult, if any.
Returns:
Full ExecutionResult dict or None
"""
return self._last_result
def get_last_trace(self) -> Optional[List[Dict[str, Any]]]:
"""Return cognition_trace from last ExecutionResult, if present.
Returns:
List of trace steps or None
"""
if self._last_result is None:
return None
return self._last_result.get("cognition_trace")
def get_last_fused_symbol(self) -> Optional[Dict[str, Any]]:
"""Return fused_symbol from last ExecutionResult, if present.
Returns:
Fused symbol dict or None
"""
if self._last_result is None:
return None
return self._last_result.get("fused_symbol")
def get_last_resonance(self) -> Optional[Dict[str, Any]]:
"""Return resonance metrics from last ExecutionResult, if present.
Returns:
Dict with:
- resonance: Overall resonance metrics (if present)
- glyph_resonance: Glyph-specific metrics (if glyph was used)
Or None if no result
"""
if self._last_result is None:
return None
diagnostics = self._last_result.get("diagnostics", {})
return {
"resonance": diagnostics.get("resonance"),
"glyph_resonance": diagnostics.get("glyph_resonance"),
"elapsed": diagnostics.get("elapsed"),
}
# Global singleton kernel instance
_GLOBAL_KERNEL: Optional[CognitiveKernel] = None
def get_kernel() -> CognitiveKernel:
"""Get or create the singleton CognitiveKernel instance.
On first call:
- Creates a new CognitiveKernel
- Calls warmup() to initialize glyphs
Returns:
Singleton CognitiveKernel instance
"""
global _GLOBAL_KERNEL
if _GLOBAL_KERNEL is None:
_GLOBAL_KERNEL = CognitiveKernel(auto_load_glyphs=True)
_GLOBAL_KERNEL.warmup()
return _GLOBAL_KERNEL
def run_gx(
gx_path: str,
*,
mode: str = "analyze",
context: Optional[Dict[str, Any]] = None
) -> Dict[str, Any]:
"""Convenience function: execute .gx through the global kernel.
Equivalent to: get_kernel().execute_gx(gx_path, mode=mode, context=context)
Args:
gx_path: Path to .gx file
mode: Cognitive mode
context: Optional execution context
Returns:
ExecutionResult dict
"""
kernel = get_kernel()
return kernel.execute_gx(gx_path, mode=mode, context=context)
def kernel_status() -> Dict[str, Any]:
"""Get status of the global CognitiveKernel.
Returns:
Dict with:
- glyph_stats: Registry metadata (total_glyphs, categories, etc.)
- last_run_present: Whether a result has been cached
- last_mode: Mode of last execution (or None)
- last_elapsed: Elapsed time from last run (or None)
- startup_time: Kernel warmup timestamp
- is_warmed_up: Whether kernel has been initialized
"""
kernel = get_kernel()
glyph_stats = kernel.get_glyph_stats()
last_result = kernel.get_last_result()
last_resonance = kernel.get_last_resonance()
return {
"glyph_stats": glyph_stats,
"last_run_present": last_result is not None,
"last_mode": kernel._last_mode,
"last_elapsed": last_resonance.get("elapsed") if last_resonance else None,
"startup_time": kernel._startup_time,
"is_warmed_up": kernel._warmed_up,
}