Redefining AI Model Evolution

Pioneering research in continual learning and safe model updates for production AI systems

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Challenging conventional understanding of catastrophic forgetting in large language models

Reframing Catastrophic Forgetting

Our research demonstrates that what's commonly labeled as "catastrophic forgetting" in LLMs is often mischaracterized. Performance degradation frequently stems from inference misrouting and semantic boundary collapseβ€”not irreversible knowledge loss.

By distinguishing between knowledge existence and knowledge accessibility, we show that many model regressions are reversible without costly retraining, fundamentally changing how organizations should approach model updates.

Read Full Paper (PDF) arXiv submission pending endorsement
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Distinct Failure Modes
Identified
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Model Families
Validated

Our Approach

Transforming how AI systems learn, adapt, and evolve

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Empirical Validation

Rigorous benchmark analysis across multiple model families demonstrating reproducible, reversible performance patterns.

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Economic Impact

Reframing model updates from cost centers to controlled evolution, enabling sustained value from AI investments.

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Reversible Updates

Enabling model adaptation without irreversible knowledge loss, reducing retraining costs and deployment risk.

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Production Safety

Establishing criteria for safe, verifiable model updates that support longer-lived and more adaptable AI systems.

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Inference Verification

Moving beyond benchmark scores to verify that models can actually access their learned capabilities under evolving conditions.

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Failure Mode Taxonomy

Distinguishing between destructive weight interference, representation drift, inference misrouting, and semantic boundary collapse.

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