The Institute of Geo-Hydroinformatics at Technische Universität Hamburg (TUHH) is offering a fully funded PhD position focused on 'Transport Processes in Nanoporous Hybrid Materials.' The successful candidate will join the BlueMat Cluster of Excellence and work under the co-supervision of Prof. Patrick Huber (TUHH) and Dr. Sahar Bakhshian (Rice University). The research aims to develop multiscale modelling tools to understand and predict fluid transport in nanoporous hybrid materials, with the goal of linking pore-scale information to continuum-scale behavior. This work will support the design of smart nanoporous materials for industrial and environmental applications. The project combines Lattice Boltzmann simulations, machine learning, and continuum-scale modelling to bridge scales and deliver predictive insights. Candidates should have a strong background in porous media flow, computational fluid dynamics, or machine learning, and be eager to work in a collaborative, international research environment. The position is fully funded until January 2029 and offers access to top-tier training and networking opportunities through the BlueMat Academy. Applications are open until December 28, 2024. For more information and to apply, visit the TUHH job portal.

The Marie Skłodowska-Curie–funded BRAINET Doctoral Network is offering a PhD position at the Institute for Materials and X-Ray Physics, Technische Universität Hamburg, under the supervision of Professor Patrick Huber. The research focuses on developing networked, minimally invasive neural interfaces for next-generation brain stimulation, combining expertise in neurotechnology, smart materials, biophysics, neuroscience, medicine, and computer science. The BRAINET project aims to create distributed stimulation hubs for wireless, interference-based brain stimulation, providing alternatives to deep brain implants for neurological disorder treatment. The PhD project will involve developing and characterizing materials for mechanical-to-electrical energy conversion, enabling wireless communication and coordination between implantable nodes. The approach leverages innovative magneto-electrical transducers and advanced electrodes that minimally contact the brain, powered by external magnetic fields. As part of an international MSCA doctoral network, the candidate will collaborate with leading institutions across Europe, including Universitätsklinikum Freiburg, Trinity College Dublin, University of Essex, Tampere University, and others. The project offers interdisciplinary training in biophysics, materials science, neurotechnology, and computational science, preparing researchers for leadership in the field. Applicants should have a strong background in physics, materials science, biomedical engineering, neuroscience, or computer science, with a keen interest in interdisciplinary research. Experience in experimental research, device fabrication, or computational modeling is advantageous. The position is fully funded, including a competitive salary, mobility allowance, and family allowance, as per MSCA guidelines. Tuition fees are covered. To apply, candidates should submit their application via the provided portal, including CV, cover letter, and academic transcripts. Eligibility for MSCA Doctoral Networks applies, including mobility rules. For more information, visit the project and application links or contact Professor Patrick Huber. Keywords: Neurotechnology, Smart Materials, Networks, Biophysics, Materials Science, Neuroscience, Medicine, Computer Science, Wireless Neural Interfaces, Deep Brain Stimulation, Bioelectronic Medicine, Temporal Interference Stimulation Application window is open; apply as soon as possible.