71 parallel-processing Postdoctoral positions at University of Oxford in United Kingdom
Sort by
Refine Your Search
-
knowledge in the discipline to work within established research programmes. You will have experience in either: modelling of permafrost processes and associated hydrological processes, modelling changes in
-
of disease. Application Process Applications for this vacancy are to be made online. You will be required to upload a covering letter with a supporting statement, CV and the details of two referees as part of
-
language processing (large language models) to investigate the brain computations supporting planning in humans, and how this can go awry in psychosis. What We Offer As an employer, we genuinely care about our
-
collaborations will also be forged. The successful applicant will work with researchers in Dr Oswal’s group as well as researchers across the wider BNDU to develop and lead the process of recruiting, safety
-
discounts also includes free entry to the Botanic Gardens and University colleges, and discounts at University museums. See https://hr.admin.ox.ac.uk/staff-benefits Application Process Applications
-
nanotubes, enables the exploration of thermodynamic processes at the nanoscale. Carbon nanotubes serve as exceptional nanomechanical resonators due to their low mass, high stiffness, and quality factor
-
for the experimental approaches to morpho-phonological representation and processing, focusing on neurolinguistic and psycholinguistic experimental research on the comprehension of words and phrases. What We Offer As an
-
experimental and computational approaches are employed to shine light into key biological processes during the life of parasitic flatworms. Large-scale sequencing datasets (‘omics’) are generated and analyzed
-
on process development, electrode manufacture and performance assessment, but depending on the skills of the successful applicant, may also involve some aspects of modelling or data science. The post is funded
-
with cutting-edge models and technologies—including patient-derived glioblastoma organoids, CRISPR-based screens, mass cytometry, and advanced microscopy—to dissect these complex biological processes