Completed Materials & Manufacturing Engineering

Miniature Flexible & Reconfigurable Manufacturing System for 3D Micro-products

In plain English

AI plain-English summary

A shoebox-sized factory will assemble microscopic medical devices, optical components, and other high-value micro-products using a flexible, reconfigurable manufacturing system that can switch between products without retooling. Today, making tiny 3D objects—such as miniature surgical instruments, photonics components, or micro-sensors—requires dedicated production lines that are expensive to set up and inflexible. If a design changes, the entire line must be rebuilt. This project aims to create a single, compact manufacturing platform that combines parallel robots for handling and assembly, hybrid micromachining, embedded sensors for real-time quality control, and multiscale modelling to predict how materials behave at microscopic scales. If successful, the system would let UK manufacturers produce small batches of custom micro-products quickly and cheaply, without the capital cost of dedicated factories. This matters for medical instruments, where bespoke devices are increasingly needed, and for photonics and telecommunications, where components shrink while complexity rises. The consortium draws on established expertise from previous EPSRC and EU projects, and includes industrial partners from machine-tool, metrology, medical instrument, and photonics manufacturers—so the work is grounded in real production challenges. The research is applied, not fundamental: it builds directly toward a deployable manufacturing tool.

View original technical description
The proposal attempt to set out a new agenda to create an integrated miniature flexible and reconfigurable manufacturing system to deliver to UK industry disruptive and transformative technology for the next generation of high added-value micro-products. The proposed research will focus on the development of underlying techniques, such as embedded sensors for on-line metrology, parallel robots for 3D materials handling and assembly, multiscale modelling and hybrid micromachining approach, which are core techniques for future flexible micro-manufacturing process. The project is grounded on the consortium's immense experience in surface metrology, robotics, machine tool design, micromachining and microforming, with industrial partners being leading experts from machine-tool, metrology, medical instrument and photonics manufacturers. The research will start from a very solid baseline in technology achieved from previous several successful EPSRC and EU projects in this subject area.

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Researchers

Matthew Dunnigan (Co-Investigator)William Ion (Co-Investigator)Xiangqian Jiang (Co-Investigator)Xianwen Kong (Co-Investigator)Xichun Luo (Principal Investigator)Yi Qin (Co-Investigator)

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Original classification

Research Grant

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