Real-Time Data Queries for Autonomous Agents
Autonomous agents make hundreds of decisions per second. We trace query paths, bottlenecks, and failure points in slower backends.
We build agent data infrastructure, tune query execution, and keep backends aligned with decision loops.
Autonomous agents make hundreds of decisions per second. We trace query paths, bottlenecks, and failure points in slower backends.
Vector search solves one task, not primary agent memory. We examine the performance costs of using it as the memory layer.
Four approaches reveal how query latency changes across multi-step agent access patterns. We share the measurements and their production implications.
Polling costs time and resources. We explain LaserData's SSE-based push delivery and its role in real-time agent state.
Human-oriented databases add latency, complexity, and operational overhead to agent traffic. We make the case for a purpose-built backend.
Query speed follows state structure. We cover four patterns from early-access deployments and the tradeoffs behind each.
A five-system stack can combine vector DB, Redis, Kafka, Postgres, and a job queue. We examine its cost against a single-purpose alternative.
Parallel sessions make shared state contentious. We explain LaserData's namespace isolation model for fast reads under concurrency.
After an agent issues a query, several steps precede the response. We trace LaserData's execution path and its optimizations for agent access.
Consistency guarantees shape shared state. We explain LaserData's model, when strong consistency matters, and when eventual consistency is the better tradeoff.
Expensive context windows demand careful memory management. We cover ways to reduce context while retaining needed information.
Fast reads, streaming state, concurrent sessions, and no stitching: we opened early access to LaserData and explain why we built it.