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Paper Group: MemOS: An Operating System for Memory-Augmented Generation (MAG)

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Paper Group: MemOS: An Operating System for Memory-Augmented Generation (MAG)

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Join us for a paper discussion on "MemOS: An Operating System for Memory-Augmented Generation (MAG) in Large Language Models"
Examining unified architectures for memory management in next-generation LLMs
Featured Paper:
"MemOS: An Operating System for Memory-Augmented Generation (MAG) in Large Language Models" (Li et al., 2025) presented by Evelyn
arXiv Paper
Discussion Topics:
Motivation and Memory Typology

  • Challenges: LLMs lack unified, structured memory—leading to limited adaptability, inconsistent long-term context, and isolated “memory silos”
  • Three memory types detailed:
  • Parametric Memory (embedded in model weights)
  • Activation Memory (inference states like KV-cache, hidden activations)
  • Plaintext Memory (external sources, editable/traceable, e.g., knowledge graphs, prompts)

MemCube Abstraction

  • Unified representation for heterogeneous memory (parametric, activation, plaintext)
  • Structured metadata:
  • Descriptive (semantic type, timestamps, origin)
  • Governance (permissions, lifespan, compliance)
  • Behavioral indicators (usage frequency, evolution tracking)
  • Enables memory tracking, fusion, migration, and cross-context reuse

System Architecture

  • Three-layer framework:
  • Interface Layer: Unified Memory API (provenance, update, log queries)
  • Operation Layer: Schedulers, lifecycle managers, organization (semantic, graph/tagged)
  • Infrastructure Layer: Governance, storage (MemVault), migration (MemLoader/MemDumper)

Execution Flow

  • User/task initiates memory API call
  • MemCube units carry context through operation pipeline (query/update/archive)
  • Scheduling selects memory types and loads into context for reasoning
  • Results archived/propagated for future tasks or cross-agent sharing

Performance and Design Highlights

  • Modular scheduling (LRU, semantic, label-based) optimizes memory selection per task
  • Versioning, rollback, and access auditing ensure compliance and adaptability
  • Supports multi-agent collaboration, task continuity, and scalable memory evolution

Future Directions

  • Cross-LLM memory sharing and Memory Interchange Protocol (MIP)
  • Self-evolving MemBlocks for automated optimization
  • Decentralized memory marketplace for knowledge transfer and collaborative updates

Implementation Challenges

  • Integrating memory governance with multi-user, multi-agent environments
  • Memory lifecycle tuning for long-term AI adaptation and personalized intelligence
  • Ensuring privacy, auditability, and storage efficiency

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Silicon Valley Generative AI has two meeting formats:
1. Paper Reading - Every second week we meet to discuss machine learning papers. This is a collaboration between Silicon Valley Generative AI and Boulder Data Science.
2. Talks - Once a month we meet to have someone present on a topic related to generative AI. Speakers can range from industry leaders, researchers, startup founders, subject matter experts and those with an interest in a topic and would like to share. Topics vary from technical to business focused. They can be on how the latest in generative models work and how they can be used, applications and adoption of generative AI, demos of projects and startup pitches or legal and ethical topics. The talks are meant to be inclusive and for a more general audience compared to the paper readings.

If you would like to be a speaker or suggest a paper email us @ svb.ai.paper.suggestions@gmail.com or join our new discord !!!

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