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Field
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through terrestrial IoT networks is an attractive solution. Given the mobility and resource constraint of the underwater sensors, UAVs, and satellites, along with their sensitivity to environmental
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monitoring. These applications rely on remote sensors to capture PCs and wirelessly transmit them to edge servers for downstream tasks, such as registration, i.e., aligning multiple PCs within the same 3D
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materials. This class of materials has unique properties which make them promising candidates for next-generation electronic devices, energy storage systems, sensors, and catalysts. However, they also pose
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the division of Geoscience and Remote Sensing we conduct research to tackle global environmental problems and to understand processes of the Earth system. We develop sensors, gather and analyse data
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, GC-MS, NMR, metabolomics) will be combined with chemoinformatics approaches (e.g. molecular networks). Bioactivity is assessed using a combination of enzymatic and cell-based (pharmaceutically relevant
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simulation skills while gaining deep expertise in electromagnetic propagation, sensor technology, and applied physics. Why Cranfield? Cranfield University is a recognised leader in defence, aerospace, and
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dynamic and uncertain environments [1]. A key application of such systems is in the Internet of Things (IoT), where networked sensors and actuators enable real-time adaptation to environmental changes
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successfully conducting research as well as postgraduate and undergraduate education within areas such as autonomous systems, complex networks, data-driven modeling, learning control, optimization, and sensor
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combining advances in animal-mounted, environmental and ‘next gen’ satellite sensor technologies, this PhD position will bring the extensive upland farm into the precision livestock framework by addressing
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experiment. This PhD position is embedded in the EU Horizon Europe Marie Sklodowska-Curie Doctoral Network (MSCA DN) SMARTTEST project. This position is based on Doctoral Candidate 8 (DC08). Check the website