{"id":52179,"date":"2020-09-16T03:00:21","date_gmt":"2020-09-16T01:00:21","guid":{"rendered":"https:\/\/www.cde.ual.es\/?p=52179"},"modified":"2021-11-17T10:54:13","modified_gmt":"2021-11-17T09:54:13","slug":"phd-position-advanced-3d-bioprinting-biofabrication-and-modelling-in-australia","status":"publish","type":"post","link":"https:\/\/www.cde.ual.es\/en\/phd-position-advanced-3d-bioprinting-biofabrication-and-modelling-in-australia\/","title":{"rendered":"PhD position Advanced 3D bioprinting, biofabrication and modelling in Australia"},"content":{"rendered":"

The Melbourne School of Engineering of the University of Melbourne is offering a PhD position in: Advanced 3D bioprinting, biofabrication and modelling at the intersection of computational optimisation, microscale physics, tissue engineering<\/strong><\/p>\n

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Project<\/h3>\n

This job offer is for a PhD position in the Collins BioMicrosystems Laboratory (CBML) in the Department of Biomedical Engineering at the University of Melbourne, Australia’s #1 University. This is an open call for students interested topics related to 3D bioprinting and microscale manipulation, especially those interested in building new technologies and approaches.<\/p>\n

One potential application space is in tissue organoids, collections of 100-10,000 cells replicating the function of macro-scale organs, are an emerging technology that is enabling rapid drug discovery and the development of implantable tissues. The techniques used to form these organoids, however, are highly limited in terms of the tissue structures that can be created; the ability to spatially define these organ-analogues with an order of magnitude higher precision in terms of their heterogeneous composition and shape will make tissue organoids an even more powerful tool for\u00a0biomedical science. In this project, the successful applicant will seek to combine approaches in computational optimisation, potentially including artificial intelligence, genetic algorithms and the like\u00a0to design systems that can generate defined organoid topologies. A PhD in this area is an attractive area to work due to the significance of applications and the wide range of skillsets that will be developed.<\/p>\n

Because this interdisciplinary project lies at the intersection of a number of different research fields, self-motivated students with an interest or experience in microfabrication, mechatronics, computational optimization, analytical modelling and\/or microscale physics, with the potential to develop skillsets in cell culture, are strongly encouraged to apply. Interested candidates may contact Dr. Collins for additional information.<\/p>\n

Requirements<\/h3>\n
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