Dongming Jiang, Yi Li, and Bingzhe Li released Jev-Mem, an agentic memory system that separates fast memory-management decisions (a lightweight System-One controller) from deep answer synthesis (a System-Two language model). On LoCoMo with GPT-4o-mini it reports higher answer quality, faster memory construction, and lower query latency than baselines. The code, arXiv paper, and Hugging Face demo are public, making it directly usable for developers building long-running agents.
A new paper introduces Just-In-Time Agent Memory (JAM), a trainable framework that constructs query-conditioned context at runtime instead of pre-building memory ahead of time. A Memorizer keeps raw histories in a hierarchical page-store while a Researcher iteratively retrieves and integrates evidence per request. JAM outperforms Ahead-of-Time memory systems on agent-memory and long-context benchmarks while staying more efficient than prior trained agentic memory approaches.
A new paper introduces Just-In-Time Agent Memory (JAM), a trainable framework that constructs query-conditioned context at runtime instead of pre-building memory ahead of time. A Memorizer keeps raw histories in a hierarchical page-store while a Researcher iteratively retrieves and integrates evidence per request. JAM outperforms Ahead-of-Time memory systems on agent-memory and long-context benchmarks while staying more efficient than prior trained agentic memory approaches.
SodaMem, an open-source agentic memory infrastructure, has been released on GitHub. It provides evidence-grounded temporal memory where each memory names the turn it originated from and tracks when it became invalid. The project reports strong benchmark results on LongMemEval and LoCoMo.
SodaMem, an open-source agentic memory infrastructure, has been released on GitHub. It provides evidence-grounded temporal memory where each memory names the turn it originated from and tracks when it became invalid. The project reports strong benchmark results on LongMemEval and LoCoMo.
A new arXiv paper introduces Pseudo Self-Distillation (PSD), a framework letting small language models build hierarchical agent memory by distilling a black-box oracle's behavior without access to its logits or hidden states. On LoCoMo, PSD-trained Qwen3-0.6B/1.7B/4B match or exceed GPT-4.1-mini on retrieval at a fraction of the cost, with capability transferring out-of-distribution to LongMemEval.
A new arXiv paper introduces Pseudo Self-Distillation (PSD), a framework letting small language models build hierarchical agent memory by distilling a black-box oracle's behavior without access to its logits or hidden states. On LoCoMo, PSD-trained Qwen3-0.6B/1.7B/4B match or exceed GPT-4.1-mini on retrieval at a fraction of the cost, with capability transferring out-of-distribution to LongMemEval.
Two arXiv papers (plus a GitHub release) tackle long-horizon memory in multi-party dialogue, where systems must track who said what, group versus personal scope, and how states change over time. SpeakerMem-R1 uses a dual-track memory with an RL-trained writer (SpeakerLevenshtein, speaker-conditioned GRPO), while EGMEMORY models memory as a searchable state machine with a propose-verify-commit protocol and no memory-specific training. Both report strong results on GroupMemBench, EverMemBench, and LoCoMo, though their headline numbers differ, relevant to practitioners building agent memory systems.
Two arXiv papers (plus a GitHub release) tackle long-horizon memory in multi-party dialogue, where systems must track who said what, group versus personal scope, and how states change over time. SpeakerMem-R1 uses a dual-track memory with an RL-trained writer (SpeakerLevenshtein, speaker-conditioned GRPO), while EGMEMORY models memory as a searchable state machine with a propose-verify-commit protocol and no memory-specific training. Both report strong results on GroupMemBench, EverMemBench, and LoCoMo, though their headline numbers differ, relevant to practitioners building agent memory systems.
Researchers introduce MERA (Missing-Evidence Retrieval Augmentation), a method for long-term memory QA where evidence is scattered across distant conversation turns. It separates globally searchable memory from a question-specific evidence state and trains a lightweight 0.6B planner via reinforcement learning, rewarded for queries that recover previously missing evidence. The approach improves answer accuracy on Qwen3-30B and GPT-4o-mini backbones, offering practitioners a compute-cheap planner that outperforms much larger untrained planners.
Researchers introduce MERA (Missing-Evidence Retrieval Augmentation), a method for long-term memory QA where evidence is scattered across distant conversation turns. It separates globally searchable memory from a question-specific evidence state and trains a lightweight 0.6B planner via reinforcement learning, rewarded for queries that recover previously missing evidence. The approach improves answer accuracy on Qwen3-30B and GPT-4o-mini backbones, offering practitioners a compute-cheap planner that outperforms much larger untrained planners.