maxbennett/generalized-neural-memory-iclft-personamem

TEXT GENERATIONPricing:Input $0.37 / Cached $0.074 / Output $0.38Concurrent Unit Cost:1Model Size:8BQuant:FP8Context Size:8kTool Calling:SupportedPublished:Oct 14, 2026License:llama3Architecture:Transformer Featherless Exclusive Cold

The maxbennett/generalized-neural-memory-iclft-personamem is an 8 billion parameter Llama-3-8B-Instruct model, fine-tuned as an In-Context Learning (ICL) baseline for the PersonaMem benchmark. It processes documents directly within its 8192-token context window rather than relying on latent memory. This model is designed for research in controllable neural memory, specifically for evaluating how well models can learn from in-context information.

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Generalized Neural Memory — ICL-FT (PersonaMem)

This model, maxbennett/generalized-neural-memory-iclft-personamem, is an 8 billion parameter Llama-3-8B-Instruct variant specifically fine-tuned as an In-Context Learning (ICL) baseline. It was developed for the PersonaMem benchmark, as detailed in the research paper "Tell Me What To Learn: Generalizing Neural Memory to be Controllable in Natural Language" (NeurIPS 2026).

Key Capabilities

  • In-Context Learning (ICL) Baseline: Serves as a direct comparison for models utilizing latent memory by performing tasks purely through information provided within its 8192-token context window.
  • Research-Oriented: Designed for evaluating and understanding how large language models process and utilize information presented in-context, particularly in the context of controllable neural memory.
  • Llama-3-8B-Instruct Foundation: Leverages the strong base capabilities of the Llama-3-8B-Instruct architecture.

Good for

  • Benchmarking: Ideal for researchers evaluating new neural memory architectures against a strong ICL baseline on the PersonaMem benchmark.
  • Understanding Contextual Learning: Useful for studies focused on the limits and capabilities of in-context learning in LLMs.
  • Reproducing Research: Provides the specific model used in Table 2 of the associated NeurIPS 2026 paper, enabling replication of experimental results.