Arvina
The Arvina project develops a new biodegradable material designed to improve breast reconstruction after breast cancer treatment. The material helps transplanted cells survive better and supports the regeneration of natural tissue, reducing the need for repeated surgical procedures. By improving long‑term results, Arvina aims to enhance patients’ quality of life while lowering healthcare costs. The project combines medical innovation and engineering research to create more patient‑friendly reconstruction treatments.
Duration
November 2023 - October 2026Project Manager
Arvina: A Synthetic Biodegradable Biomaterial for More Efficient Breast Reconstruction Treatment in Breast Cancer Patients
The Arvina project focuses on the development of an innovative synthetic biodegradable biomaterial aimed at improving breast reconstruction treatments for breast cancer patients. The objective of the project is to enable a more effective and personalized reconstruction approach by promoting cell survival, tissue regeneration, and long‑term volume retention. By improving these key aspects, the project aims to enhance patients’ quality of life and reduce the overall burden on the healthcare system.
Within the project, VivArt‑X B.V. is responsible for the technical design and product development of Arvina. To advance the product toward first‑in‑human application, preclinical research is required. The Department of Biomedical Engineering at Eindhoven University of Technology (ºÚÁϸ£ÀûÍø) contributes to these preclinical studies by conducting technical research aimed at optimizing the material properties of the product. This research is carried out by a postdoctoral researcher, with additional involvement of ºÚÁϸ£ÀûÍø staff members who provide scientific expertise and guidance. The project strengthens biomaterials research and production capabilities in the Southern Netherlands through close collaboration between academia and industry.
Key Findings
The project is currently in progress. Preclinical studies are being conducted to optimize material properties and evaluate performance.