This post will contribute to a multidisciplinary team using real anatomical data to replicate micro vessel structures in materials that are both mechanically and acoustically similar to tissue. The researcher will be expected to:

  • Test, develop and optimise 3D printing protocols to produce vessel-like structures using hydrogel materials
  • Incorporate the vessel-like structures they print within fluid flow systems to mimic real-life flow conditions in micro vessels
  • Work with acoustic engineers to assess hydrogel acoustic properties and incorporate acoustic excitation of the fluid contained within the micro vessels
  • Work with cell biologists to incorporate additive cell culture within the micro vessel mimics for future experimental investigation

For informal enquiries, please contact Dr Helen Mulvana ()

For further information see https://www.jobs.ac.uk/job/CAJ917/research-associate-303111

Closing date: 1st July 2020

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This post will contribute to a multidisciplinary team using real anatomical data to replicate micro vessel structures in materials that are both mechanically and acoustically similar to tissue. The researcher will be expected to:

  • Test, develop and optimise 3D printing protocols to produce vessel-like structures using hydrogel materials
  • Incorporate the vessel-like structures they print within fluid flow systems to mimic real-life flow conditions in micro vessels
  • Work with acoustic engineers to assess hydrogel acoustic properties and incorporate acoustic excitation of the fluid contained within the micro vessels
  • Work with cell biologists to incorporate additive cell culture within the micro vessel mimics for future experimental investigation

For informal enquiries, please contact Dr Helen Mulvana ()

For further information see https://www.jobs.ac.uk/job/CAJ917/research-associate-303111

Closing date: 1st July 2020