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This position is part of the LiSa (Lithium refining via Salt-assisted crystallization) project, a collaborative initiative involving Nobian, Back-to-Battery, Demcon, ISPT, and the University
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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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crystallization) project, a collaborative initiative involving Nobian, Back-to-Battery, Demcon, ISPT, and the University of Twente (LiSa – Lithium refining via Salt-Assisted Crystallization – ISPT). The LiSa
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PhD in Optical Characterization and Photonic Performance Analysis of Liquid Crystal Polymer Coatings
for a motivated PhD candidate to study the optical and photonic performance of advanced liquid crystal polymer coatings for one-way transparency, adaptive camouflage, and smart optical interfaces
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motivated PhD candidate to develop next-generation one-way transparent optical films based on liquid crystal polymer technology. The position is embedded in the research group of Dr. Danqing Liu at Eindhoven
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of Amsterdam, under the supervision of Prof. Noushine Shahidzadeh (expert on crystallization and sol-gel process in confinement) and Prof. Hannelore Derluyn (expert in micro-CT 3D imaging for porous media
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) for quantum communication and quantum networking. A central element of the project is the integration of high-brightness III–V photonic-crystal single-photon sources developed by our French partners with low
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technologies aimed at assessing, protecting, and repairing donor livers before transplantation. This PhD project is embedded within the multidisciplinary CRISPR-CRYSTAL consortium, bringing together experts in
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III–V photonic-crystal single-photon sources developed by our French partners with low-loss SiN photonic routing circuits. The work will be carried out in close collaboration with leading industrial and
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crystal lattice as the origin of magnetic frustration. Time-resolved magneto-optical imaging then enables extraction of intrinsic magnetic response times and direct real-time tracking of emergent magnetic