Designing an LLM-Based Copilot for Manufacturing Equipment Selection
Jonas Werheid, Oleksandr Melnychuk, Hans Zhou, Meike Huber, Christoph, Rippe, Dominik Joosten, Zozan Keskin, Max Wittstamm, Sathya Subramani, Benny, Drescher, Amon G\"oppert, Anas Abdelrazeq, Robert H. Schmitt

TL;DR
This paper presents a novel LLM-based copilot that integrates retrieval-augmented generation to assist automation engineers in selecting manufacturing equipment, aiming to reduce ramp-up time and improve decision traceability.
Contribution
It introduces a factual-driven LLM copilot with structured knowledge retrieval for equipment selection, tailored for manufacturing ramp-up planning, and demonstrates its effectiveness through industrial case studies.
Findings
19 out of 22 prompts involved correct equipment selection.
6 cases fully met all requirements.
Feedback confirmed logical and actionable recommendations.
Abstract
Effective decision-making in automation equipment selection is critical for reducing ramp-up time and maintaining production quality, especially in the face of increasing product variation and market demands. However, limited expertise and resource constraints often result in inefficiencies during the ramp-up phase when new products are integrated into production lines. Existing methods often lack structured and tailored solutions to support automation engineers in reducing ramp-up time, leading to compromises in quality. This research investigates whether large-language models (LLMs), combined with Retrieval-Augmented Generation (RAG), can assist in streamlining equipment selection in ramp-up planning. We propose a factual-driven copilot integrating LLMs with structured and semi-structured knowledge retrieval for three component types (robots, feeders and vision systems), providing a…
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