EP297: T-Mem Anticipating Memory

EP298: Escaping LLM Orchestrators

Title: LLM-as-Code Agentic Programming for Agent Harness Source: http://arxiv.org/abs/2606.15874v1 Summary: This paper proposes a fundamental architectural shift by replacing probabilistic LLM-based orchestration with deterministic 'Agentic Programming' where code governs the control flow. This framework eliminates control-flow hallucinations and token explosion, establishing a robust new primitive for building reliable, long-horizon agentic systems.

EP297: T-Mem Anticipating Memory

Title: T-Mem: Memory That Anticipates, Not Archives Source: http://arxiv.org/abs/2606.15405v1 Summary: T-Mem presents a foundational shift in agentic memory by transitioning from passive similarity-based retrieval to an anticipatory 'episodic future thinking' architecture. By using write-time rehearsal triggers, it enables agents to recall information across latent semantic arcs, effectively bridging the gap between descriptive and associative long-term memory.

EP296: CoAgent Concurrency Control

Title: CoAgent: Concurrency Control for Multi-Agent Systems Source: http://arxiv.org/abs/2606.15376v1 Summary: This paper introduces CoAgent, a novel concurrency control framework that leverages LLM reasoning to resolve conflicts in multi-agent systems without the bottlenecks of traditional locking or retries. It establishes the MTPO protocol as a foundational primitive for high-concurrency agentic workflows, significantly improving pass rates and efficiency in shared environments.

EP296: CoAgent Concurrency Control

Title: CoAgent: Concurrency Control for Multi-Agent Systems Source: http://arxiv.org/abs/2606.15376v1 Summary: This paper introduces CoAgent, a novel concurrency control framework that leverages LLM reasoning to resolve conflicts in multi-agent systems without the bottlenecks of traditional locking or retries. It establishes the MTPO protocol as a foundational primitive for high-concurrency agentic workflows, significantly improving pass rates and efficiency in shared environments.

EP295: Agent-First Canonical Code

Title: No Accidental Software Agent First Canonical Code for Human Code Entropy Reduction and 30 to 500 times Lower Frontier Model RequirementsSource: http://arxiv.org/abs/2606.14357v1 Summary: This paper proposes a 'proof-carrying substrate' that canonicalizes software behavior to drastically reduce the complexity and model capacity required for autonomous coding. It introduces a novel architectural approach to software representation that aims for a 100-fold reduction in the cost of verified correct changes.