PhD Studentship - Engineered Materials for Wearable and Accessible Hemodialysis: An Interdisciplinary Approach

; The University of Edinburgh, United Kingdom

Updated: 3 months ago
Location: Edinburgh, SCOTLAND
Job Type: FullTime
Deadline: 31 Mar 2024

Hemodialysis (HD) is the life-saving treatment for millions of patients with end stage kidney disease, but it has several clinical and technological downsides. Its discontinuity causes poor life quality and health issues, and it is also extremely wasteful (about 500 liters of water per session).

The research group at the school of engineering has been looking at ways to transform the HD technology by fabricating novel materials which can enable the miniaturisation of HD and the regeneration of the water used. Such approach would simultaneously curb water consumption and achieve more accessible forms of treatment such as the wearable artificial kidney. Interaction with the group of dr. Laura Denby from Centre for Cardiovascular Science and with the renal unit at the Royal Infirmary will allow to test the materials in more realistic conditions and to assess their biocompatibility.

  • At the SoE, the student will be trained on the synthesis and characterization of the materials and computational methods to evaluate the materials performance
    The student will develop novel material formulations based on the result of computational modeling and previous results from the research group.
  • The materials will be tested at SoE for urea and uremic toxins removal capacity using synthetic aqueous solutions.
  • The best materials selected will  be tested in realistic conditions using real dialysate provided by partners
  • The biocompatibility of the materials will be assessed in conjunction

    • The aim of the project is to fabricate a device able to remove the majority of uremic toxins from dialysate and develop a wearable artificial kidney.

    At the School of Engineering, the student will access a lab fully equipped for the preparation of the materials and the test of their performance.  Computational resources for the fast evaluation and screening of novel nanoporous materials and performance-structure correlations will also be made available.

    The PhD project will be developed in the framework of projects led by the  Supervisors and funded by Kidney Research UK (KRUK).
    The candidate will attend the events organized by KRUK such as conferences and courses. The student will also attend conferences of the materials and dialysis sector *e.g. Euromembrane, ICOM etc.