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further both professionally and personally in an interdisciplinary setting. Position DWI invites applications for a position as PhD student (f/m/d) in Electrospinning of Hydrogel Fibers for Biomedical
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multidisciplinary team and possess a proactive, innovative approach to problem-solving in research. Desirable skills: Prior experience with hydrogel development, 3D cell culture techniques, and a thorough
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1 Research fellowship for MSc (BI), to a PhD student or MSc enrolled in a non-academic degree course
enrolled in a non-academic degree course, within the Research Project entitled “Polymer-IR780 conjugate based Tetrazine-Norbornene click injectable in situ forming hydrogels: fine-tuning the polymer
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. Empa is a research institution of the ETH Domain. The Biointerfaces Laboratory is offering a PhD position focused on development of engineered antimicrobial hydrogels. This project aims to tackle
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include peptide design and synthesis, incorporation of the novel peptides on nanocellulose-based hydrogels, followed by the evaluation of the functionalized hydrogels in terms of physicochemical and
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materials, conjugation chemistry, nanoscale characterisation, and immunomodulatory system development. They will design, synthesise, and characterise electroactive collagen-based hydrogels and fibrous
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, the concept of "slow sound" (reduced group velocity) can be naturally achieved through the propagation of shear waves in very soft media (hydrogels, complex fluid suspensions) or via acoustic metamaterials
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incorporated into engineered matrices such as hydrogel-based biobeads or nanocellulose fibres to create reusable adsorption platforms suitable for continuous-flow operation. These systems will be evaluated in
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designing, developing, and characterizing advanced bioinks for cellular agriculture, contributing to both fundamental understanding and applied biofabrication technologies. Design and engineer hydrogel-based
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sustainable alternatives to conventional biomaterials. The project will focus on engineering collagen-based hydrogels and bioinks with precisely tunable mechanical, viscoelastic, and degradation properties