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Field
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prediction of machining results and improve process stability with fewer experimental iterations. The project integrates antibacterial coating strategies to predict coating efficacy and long-term surface
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for industrial high temperature heat pumps heat exchangers that will consider modern manufacturing methods. This will include the development of multilayer coatings including bonding methods that are able
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sight and sound: liquid crystal polymer-based tactile interfaces for the digital age.” The project aims to create interactive coatings that generate realistic tactile sensations for applications in human
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ceramic coatings. The position involves conducting application-inspired basic research on thin film materials where the main goal is to develop new environmentally friendly surface coating processes with
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to the quality of the interfaces and materials, particularly the presence of an amorphous oxide in the junction. To address this challenge, InAs nanostructures coated with Sn are being developed to fabricate
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high-performance storage systems for the energy transition. In doing so, we encompass a wide range of technologies, from oxide ceramic fuel cells to solid-state batteries, thermal barrier coatings
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the fundamentals of bonding glass or metals to silicon nitride coated silicon wafers as well as accessing the feasibility of using these bonding methods for MEMS-based microfluidic sensor packaging
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in thin-film physics, particularly hard ceramic coatings. The position involves conducting application-inspired basic research on thin film materials where the main goal is to develop new
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environments, taking into account parameters such as fibre type, coating, groove geometry, embedding depth, bonding layer and host material. Developing and integrating arrays of Fiber Bragg Grating (FBG) sensors
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that deuterium is significantly retained in bulk boron materials, with higher release temperatures compared to bulk tungsten. These findings contribute to a better understanding of the role of boron coatings in