I study the development and physiology of insect osmoregulatory organs, to understand how insects are adapted to survive in diverse environments. Dr Robin Beaven Postdoctoral FellowHugh Robson Building15 George SquareEdinburgh, EH8 9XDContact details Work: +44 0131 650 9879 Email: Robin.Beaven@ed.ac.uk Web: Dehholm Research Group Personal profile2016 - present - Postdoctoral Researcher, Denholm lab, CDBS, University of Edinburgh.2013-2016 - Postdoctoral Researcher, Wellcome Trust Centre for Cell Biology, Hiro Ohkura laboratory, University of Edinburgh.2008-2012 - PhD in Cell Biology, Andreas Prokop laboratory, University of Manchester.2005-2008 - BSc (Honours) Genetics, University of York.ResearchMy background is in developmental and cell biology, and I currently explore how insect osmoregulatory organs develop. I focus on the cryptonephridial complex of beetles, in which their renal tubules associate with their rectum to recycle water back into the body. I have gained insights into its morphogenesis and developmental patterning, as well as physiology and endocrine control. This is shedding light on how tenebrionid beetles are adapted to survive in arid environments, contributing to the remarkable evolutionary success of this group. Through comparative developmental studies in other insects, I am also investigating how this system has evolved. I am now working to establish the rose chafer as a model system for embryological and molecular studies, to learn how a similar complex has evolved independently in Scarabaeoid beetles. This species could also be more generally useful to understand the unique biology of Scarabaeoid beetles; a very large and ecologically important group. I am also interested in the history of science, and gaining a longer view on how our current ideas and approaches have arisen.Recent publicationsBeaven, R.¶, Denholm B. (2025) The cryptonephridial/rectal complex: an evolutionary adaptation for water and ion conservation. Biol Rev Camb Philos Soc. 100, 647-671Beaven, R.¶, Denholm, B., Fremlin, M. and Scaccini, D. (2025) Evidence for the independent evolution of a rectal complex within the beetle superfamily Scarabaeoidea. Arthropod Struct Dev. 84, 101406Beaven, R.§, Koyama, T., Naseem, M.T., Halberg, K.V., Denholm, B. (2024) Something old, something new: the origins of an unusual renal cell underpinning a beetle water-conserving mechanism. Development. 151, dev202994 (Featured in Special Issue: Uncovering Developmental Diversity)Beaven, R., Halberg, K.V. and Denholm, B. (2023) The insect cryptonephridial complex. Current Biology. 33: R748-R749. (Quick guide)Naseem, M.T., Beaven, R., Koyama, T., Naz, S., Su, S.Y., Leader, D.P., Klaerke, D.A., Calloe, K., Denholm, B. and Halberg, K.V. (2023) NHA1 is a cation/proton antiporter essential for the water-conserving functions of the rectal complex in Tribolium castaneum. Proc Natl Acad Sci U S A. 120: e2217084120Beaven, R. ¶ (2023) The take-off of Drosophila research in 1930-1950s Edinburgh. J R Coll Physicians Edinb. 53: 119-127Zechini, L., Camilleri-Brennan, J., Walsh, J., Beavan, R., Moran, O., Hartley, P., Diaz, M. and Denholm, B. (2022). Piezo buffers mechanical stress via modulation of intracellular Ca 2+ handling in the Drosophila heart. Frontiers in Physiology. 13:1003999Beaven, R. and Denholm, B. (2022) Early patterning followed by tissue growth establishes distal identity in Drosophila Malpighian tubules. Front Cell Dev Biol. 10:947376Beaven, R., and Denholm, B. (2018) Release and spread of Wingless is required to pattern the proximo-distal axis of Drosophila renal tubules. eLife. 7, e35373¶ corresponding author§ co-corresponding author This article was published on 2022-10-17