Postdoc in computational mechanics of soft materials
Project 21 focuses on electro-chemo-mechanical modeling of self-healing hydrogel electronics.
The project aims to develop a computational framework for assessing the durability of self-healing, electrically conductive hydrogels used in soft electronics, wearable and implantable devices, and soft robotic systems. Conductive hydrogels are attractive because of their compliance, biocompatibility, stretchability, and ability to autonomously repair damage, but their long-term reliability under cyclic loading, fluid transport, ionic migration, and external fields remains difficult to predict.
The work will formulate a thermodynamically consistent multiphysics model coupling finite-strain poroelasticity, ionic transport, electromigration, phase-field fracture, and self-healing. This framework will enable virtual testing of hydrogel-based devices subjected to mechanical fatigue, chemically active environments, and remote electromagnetic actuation.
The successful candidate will derive the governing equations, implement the model within a finite element framework, and validate it against benchmark experiments reported in the literature. Expected outcomes include a robust open-source implementation, benchmark simulations of fracture and self-healing, and publications in high-impact journals in mechanics, materials science, and computational physics.
We are searching for a postdoctoral candidate through the CROP Postdoctoral Fellowship Programme.
Candidates should apply for topic 21.
According to the official CROP call, candidates prepare their own research proposal based on one of the offered topics.