Title
Spatially Anchored Diagnostic Knowledge: From Capturing Expert Demonstrations to Multimodal Guidance (Research)
Abstract
Effective process diagnostics in high-variation industrial settings depends on experience-based judgement; knowing which checks are most discriminating, how to interpret ambiguous cues, and when evidence is sufficient to act. This expertise is rarely consolidated: dispersed across
documentation and a few experienced technicians, it remains inaccessible for novices and experts alike. Existing approaches, from fault ontologies to LLM-assisted methods, fall short, are brittle under incomplete documentation and unable to capture the spatial reasoning underpinning real diagnostic
work. This PhD pursues three objectives. RO1 develops a knowledge architecture in which hypotheses, evidence, and micro-tests are anchored to 3D spatial representations, making geometry, connectivity, and accessibility computable constraints that guide diagnostic reasoning. RO2 develops
in-situ elicitation procedures that capture expert reasoning at the moment it is exercised, recovering tacit heuristics through targeted prompts during demonstrations rather than post-hoc interviews. RO3 investigates an interactive guidance paradigm that bootstraps diagnostic reasoning from vague user input, iteratively narrows the hypothesis space through discriminating micro-tests, and enables knowledge transfer across system variants.
Together, these objectives aim to make diagnostic expertise more structured, capturable, and transferable, reducing barriers for technicians and industrial downtime.
Period of project
01 November 2026 - 31 October 2030