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may include electromagnetic ISAC channel modelling, waveform and transceiver design, sensing signal processing, AI/ML-enabled radio interfaces, MIMO beamforming and channel estimation, interference
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of bioelectrochemical systems, electrochemical engineering, resource recovery and sustainable battery recycling. The project aims to translate a laboratory-validated lithium recovery process into a continuous-flow
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and distributed across digital platforms. The research will build on Surrey’s world-leading work in content authenticity and media provenance. You will develop new Computer Vision, AI and multimedia
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and digital media. You will work closely with the Project Investigators, contributing to all stages of the research process, including design, data collection, analysis and dissemination. The role will
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, and development their professional network and career growth. The main project objectives are: Design efficient nanoscale catalysts and robust mechanochemical process to recycle PET into monomer
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. The research will involve developing analytical models, performing large-scale numerical simulations of open quantum systems, investigating decoherence and noise processes, and exploring new architectures and
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, their fabrication and characterisation in order to be translated to industry with our partners. This includes laboratory experimentation, critical evaluation and interpretation, computer-based theoretical modelling