Holographic Knowledge Manifolds: A Novel Pipeline for Continual Learning Without Catastrophic Forgetting in Large Language Models
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Abstract (arXiv)
We introduce the Holographic Knowledge Manifold (HKM), a four-phase pipeline that achieves zero catastrophic forgetting in AI knowledge representation while maintaining minimal memory growth and high efficiency. Leveraging fractal quantization, probabilistic entanglement, and dynamic diffraction chipping, HKM compresses knowledge substrates by 3x with 67% storage savings, integrates holographically at 100%, and supports over 1,020 updates with 1% growth per increment. In experiments on combined WikiText and FB15k datasets (scaled to 2,997 nodes), we demonstrate industry-leading performance: 0% forgetting (infinite improvement over GEM baselines), 3x compression, and 53% training time reduction on consumer GPU hardware. Hypothetical cost analyses project 92.4M savings over 5 years at petabyte scale, with 21.2% energy reduction and 33% lower carbon footprint. This work hypothesizes a paradigm shift for public large language models (LLMs), enabling "eternal" adaptation without retraining. Future extensions to multimodal fusion and quantum hardware could further democratize scalable AI, potentially reducing fine-tuning costs by 60-80% for models like Llama-3 or Grok-4. Code, datasets, and full results are publicly available for reproducibility.
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References · 13
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- 2015Holographic Embeddings of Knowledge Graphscited by 181
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- 2026Holographic Memory for Zero-Shot Compositional Reasoning in Knowledge Graphs: A Mechanistic Study of Where and Why It Fails
- 2025Low-Complexity Inference in Continual Learning via Compressed Knowledge Transfer
- 2025Pretraining with hierarchical memories: separating long-tail and common knowledge
- 2025AME: Aligned Manifold Entropy for Robust Vision-Language Distillation
- 2026KARA: Efficient Reasoning LLM Serving via Sliding-Window KV Cache Compression
- 2026TASSO: TAsk-Specific Subspace Optimization for Continual Learning of Vision-Language Models
- 2026Self-Distillation as a Performance Recovery Mechanism for LLMs: Counteracting Compression and Catastrophic Forgetting
- 2025RECALL: REpresentation-aligned Catastrophic-forgetting ALLeviation via Hierarchical Model Merging