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Research output data provided by the Research Excellence Framework (REF)
Click here to see the results for all UK universitiesDr Damon Huber received a BSc in Microbiology, with minors in Chemistry and Music, from Iowa State University in 2000. During his undergraduate studies, he worked in the lab of Greg Phillips, which sparked his interest in bacterial genetics. He then pursued a PhD in Microbiology and Molecular Genetics at Harvard University, studying under Jon Beckwith at Harvard Medical School, where he developed a fascination with the connection between protein folding and the transport of proteins across biological membranes, culminating in his doctoral research in 2006. Following his PhD, Dr Huber became an Alexander von Humboldt Fellow in Bernd Bukau’s lab at the University of Heidelberg in Germany, where he discovered a novel pathway for the cotranslational recognition of substrate proteins by the Sec translocation pathway. In 2012, he was selected for a Birmingham Fellowship and joined the newly established Institute for Microbiology and Infection at the University of Birmingham in 2013, where he is currently an Assistant Professor in Biochemistry. Dr Huber''s research focuses on the transport of proteins across the cytoplasmic membrane in bacteria, specifically through the Sec machinery, and the relationship between protein folding and transport.
Dr Damon Huber''s research focuses on the transport of proteins across the cytoplasmic membrane in bacteria, specifically through the Sec machinery. His lab investigates the mechanistic details of Sec-dependent protein transport in Escherichia coli, combining biochemistry and molecular genetics to address complex biological problems. Key areas of interest include understanding how the Sec pathway recognises newly synthesised protein substrates and the molecular mechanisms of substrate recognition by SecA, an ATPase that interacts with the ribosome. Additionally, Dr Huber explores how the mechanism of delivery to SecYEG affects the folding of substrate proteins in the periplasm, particularly in relation to cotranslational export and its potential to lead to misfolding and defective assembly.