Imagine building a tiny robot where the 'engine' is actually living cells, making it more flexible and energy-efficient than metal parts. Instead of guessing how to build these by hand, this project creates a smart digital blueprint and an automated factory line to make them consistently. It's like moving from hand-crafting a unique sculpture to using a high-tech 3D printer for living machines.
Biohybrid machine development is currently an 'art' based on intuition and individual skill rather than a standardized process. This lack of standardization prevents the scalable, reliable manufacturing of cell-based robots.
An AI-guided modeling and simulation tool for biohybrid design and a physical bio-intelligent manufacturing cell (BIMC). They also built a modular catheter as a proof-of-concept medical device.
If you are a surgical tool manufacturer dealing with the difficulty of reaching deep body regions—this project developed a modular catheter that can navigate hard-to-reach areas and release drugs precisely. This reduces the risk of manual navigation errors.
If you are a bio-robotics startup dealing with high failure rates in manual prototyping—this project developed an AI-guided modeling process that optimizes the design of cell-based actuators. This speeds up the transition from lab to product.
If you are an automation provider dealing with the lack of standards for bio-integrated hardware—this project developed a bio-intelligent manufacturing cell (BIMC) that integrates equipment into one adaptable unit. This allows for the scalable production of biohybrid devices.
Based on available project data, the project uses a modeling and simulation framework to streamline design and testing, which reduces the need for expensive and time-consuming manual steps.
Yes, the project specifically aims to move away from 'siloed' research by creating an integrated bio-intelligent manufacturing cell (BIMC) to demonstrate adaptable operation.
Based on available project data, specific licensing terms are not mentioned, but the project involves 7 partners across 5 countries developing a modular framework.
The system uses embedded sensors to provide real-time data on bending and force, which is then compared against simulation predictions to update the model.
The project period runs from 2022-10-01 to 2026-03-31, indicating the development and verification phase is currently active.
The consortium is research-heavy with 4 universities and 1 research institute, but it maintains a 29% industry ratio with 2 industrial partners, including 1 SME. This balance suggests the project is focused on translating high-level academic research into practical manufacturing tools across 5 different European countries.
Contact the University of Novi Sad, Faculty of Agriculture
Contact us to connect with the BioMeld consortium for licensing the BIMC manufacturing logic.
