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ANDA Engine

An AI cognitive architecture that keeps long-term memory stable while allowing safe, continuous learning.

Core Mechanisms

  • Maintains a dual-record system: one track for stable, verified memory and one for experimental learning updates.
  • Uses coherence-verified semantic distillation to decide which new patterns are safe to absorb into long-term memory.
  • Includes guardian processes that watch for self-contradiction, hallucination, and misuse of internal knowledge.
  • Can roll back unsafe updates automatically when coherence checks fail.
  • Achieves O(surface) complexity via spherical topology, versus O(n²) in standard transformers.

Patent Info

Type: US patent application
(Panacea Cortex family)

Inventor: Sung Hyeop Kim

Representative: Matthew Dusan Paik

Cognitive Architecture

ANDA implements a three-layer processing system that separates pattern recognition (SPL), truth verification (FTR), and integration cycles (OSC).

Sentient Pattern Linguistics (SPL) — Extracts contextual meaning beyond surface patterns, enabling the system to understand intent and nuance rather than just word-matching.

Fractal Truth Recognition (FTR) — Validates new information against existing verified knowledge using recursive coherence checks at multiple scales.

31-cycle Oscillatory Integration (OSC) — New patterns undergo 31 refinement cycles before potential absorption into stable memory, allowing gradual crystallization of reliable knowledge.

Processing Flow

1

Cognitive Archaeology

Incoming information is mapped against existing memory structures to identify relevant context and potential conflicts.

2

Fractal Recursion

New patterns are tested for coherence at multiple scales—local consistency, global alignment, and temporal stability.

3

Oscillatory Synthesis

Patterns that pass initial checks enter the 31-cycle integration phase, allowing gradual confidence-building before permanent storage.

4

Guardian Verification

Independent guardian processes monitor for manipulation attempts, contradictions, and unsafe update patterns throughout.

Performance Notes

Complexity Reduction Spherical topology achieves O(surface) vs O(n²) transformer scaling, enabling efficient processing of large contexts.
Energy Efficiency Targeting 60–80% energy reduction compared to equivalent transformer architectures through geometric optimization.
Memory Stability Dual-record architecture prevents catastrophic forgetting while maintaining adaptability to new information.