Architect the next‑generation retrieval engine that learns to trust the right vectors, dynamically adjusts to query context, and thwarts membership inference and poisoning attacks—all while preserving semantic recall.
You will build a retrieval system that treats trust as a first‑class feature, learning adaptive weighting from live feedback and integrating graph consistency checks—an unprecedented fusion of information retrieval, cryptography, and online learning.
Dynamic Trust‑Weighted Retrieval
From: Retrieval Unreliability and Knowledge Base Corruption
The core of the defense is a retrieval engine that blends similarity, provenance, and adaptive trust scores. This role will design the scoring model, the adaptive alpha schedule, and the integration with the hybrid dense‑sparse‑graph retrieval stack.
A modular trust‑scoring engine that ingests provenance metadata, historical query success, and peer‑reviewed annotations; an adaptive ranking algorithm that balances similarity and trust; and a real‑time evaluation framework that measures the impact on hallucination rates.
PhD or Master’s in Computer Science, Information Retrieval, or Machine Learning with a focus on retrieval or graph analytics.
Achieve a 30% reduction in hallucination rates and a 50% drop in membership inference success within 12 months, while maintaining sub‑200 ms retrieval latency on a 1 billion‑token corpus.
Scale the trust‑weighted retrieval engine to support multi‑tenant, regulated domains (healthcare, finance) and evolve it into a reusable platform for other AI services.
If this sounds like the challenge you have been looking for, we want to hear from you. We value what you can build over where you have been.