AIAny
AI Model2026
Icon for item

Hy-Memory-30B-A3B

Compact long-term-memory writer that decides what to retain and how to update persistent memory for external-memory frameworks. Trained with on-policy distillation and attributed reinforcement learning to improve cross-framework transfer (Mem0, MemOS, Hy-Memory, EverMemOS). Suited as a memory-writer component inside retrieval-augmented systems.

Introduction

Long-term memory quality in LLM systems is often limited by the model that executes the write path: generic LLMs either over-store, miss salient facts, or fail to reconcile conflicting updates. This project targets that bottleneck by training a dedicated memory-writer that learns framework-specific protocols and optimizes downstream answerability across multiple deployed memory frameworks.

Key Capabilities
  • Trained for memory writing, not general chat: a two-stage pipeline (Memory On-Policy Distillation followed by Attributed Memory Reinforcement Learning) teaches framework-specific write behaviors and then optimizes chunk-level credit assignment and bank-level utility.
  • Cross-framework transfer: validated inside four memory systems (Mem0, MemOS, Hy‑Memory, held-out EverMemOS) and ranks top on a fixed 20% benchmark matrix with a 55.49% macro average versus 54.62% for a strong baseline (Claude Opus 5), indicating robust out-of-distribution transfer.
  • Efficiency and deployment: implemented as a compact ~3B active-parameter writer (30B A3B MoE family) that replaces heavier general-purpose LLMs inside memory frameworks and is compatible with vLLM-based serving and OpenAI-compatible APIs.
  • Fine-grained memory controls: training includes dense per-chunk probes, attributed cross-chunk rewards, and over-storage constraints to reduce redundant or low-utility memory writes.
Who it's for and tradeoffs

Great fit if you build or research retrieval-augmented agents and need a specialized component that extracts, summarizes, and reconciles persistent user or task state across long horizons; especially useful when you want predictable, bank-level improvements in answerability without running a full general-purpose LLM on every write. Look elsewhere if you need a general conversational model, multimodal capabilities, or an off-the-shelf reader/answering model—this is explicitly a write-path specialist and assumes a separate answer model and retrieval stack. Training and evaluation focus on benchmarked memory utility rather than open-ended generation quality, and the model is designed to be integrated into Hy‑Memory/Mem0/MemOS-style frameworks rather than used standalone as a chat agent.

Information

  • Websitehuggingface.co
  • OrganizationsTencent Hunyuan, Tencent
  • AuthorsTianxiang Fei, Jiazheng Kang, Mao Zheng, Xingyan He, Xiang Yu
  • Published date2026/10/15

Categories

More Items

Hugging Face
AI Model2026

Turns PDFs and images into readable markdown, plain text, or JSON with per-line and per-block boxes and reading order. Uses ~18 MB ONNX models (1M-parameter recognizer) optimized for CPU throughput (up to 49 pages/s, ~230 ms median/page) and layout extraction; not ideal for complex tables, handwriting or degraded scans.

Hugging Face
AI Model2026

Multimodal Mixture-of-Experts foundation model for long-context agent workloads — supports up to 1M-token contexts and uses aggressive KV-cache compression (FP4 + cross-layer reuse) to reduce memory and storage footprint while improving reasoning, coding and vision benchmark performance.

Hugging Face
AI Model2026

Provides a locally deployable, FP4-quantized variant of Qwen3.8-Flash-Next for multimodal (text, image, video) text generation. Uses NVIDIA Model Optimizer with quantization-aware distillation (QAD), a ~96 GiB checkpoint, and is validated on vLLM for Blackwell and DGX Spark.