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) mathematics, computer science, and theoretical physics are also strongly encouraged to apply, even without prior specific experience in GBS or quantum computing. Research environment The project will be carried
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Additive Manufactured Metals—MicroAM’. The MicroAM project aims to develop (i) a laboratory-based X-ray microscope capable of mapping local residual stresses, (ii) a multi-scale AM process–microstructure
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date is preferred. The position is limited to 2 years. The Project The main objective of the project is to investigate emergent physics in solid state hybrid systems, such as superconductor-semiconductor
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. Uncovering these mechanisms will inform the process design for next-generation biofertilizers, and beyond. Responsibilities and qualifications Your role will be to develop novel, robust, and scalable
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] that process information in temporal rather than spatial modes to reduce their footprint. The project involves a collaboration between DTU Electro (Senior Researcher Mikkel Heuck) and Harvard University (Dr
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publications Relevant work experience Other relevant professional activities A curious mind-set with a strong interest, theoretical understanding and practical experience in chemistry and analytical chemistry
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Engineering of Additive Manufactured Metals—MicroAM’. The MicroAM project aims to develop (i) a laboratory-based X-ray microscope capable of mapping local residual stresses, (ii) a multi-scale AM process
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should not be submitted as part of the application process, but must be provided if you are invited to an interview. Qualification requirements Applicants should hold a PhD or equivalent academic
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empathic person with a PhD degree in mechatronics engineering, MEMS, neurotechnologies, applied physics, nanotechnology, neural interfaces, biomedical engineering or similar. Advanced skills in electronics
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causing these variations in A and F stars. Using asteroseismology, we aim to detect and analyze near-core and surface magnetic fields. This involves comparing theoretical models with photometric