Paul Gaynor staff profile

Associate ProfessorPaul Gaynor

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Qualifications & Memberships

Research Interests

Research interests include:
-Electric field biomedical treatments: research focuses on applications of electroporation and dielectrophoreisis. Electroporation is a term that is used for the observed increase in permeability of biological membranes to macromolecules through application of high magnitude electric field pulses. The increased membrane permeability allows the transport of material across the membrane that would otherwise be blocked. This effect has significant applications in research including genetic engineering, gene therapy, cancer chemotherapy and cloning. Dielectrophoresis is defined as medium magnitude AC non-linear electric field induced movement of cells. The movement can be used to separate mixed cell types, transport cells from place to place, and arrange cells into structures. This effect has applications in disease diagnosis, immunology, cell characterisation, and cloning.
-Power electronics applications: research is primarily involved with the design and construction of high voltage power electronics. Of particular interest are high voltage electronics associated with electroporation research, and small-scale electrical power generation using sustainable energy sources.
-Electro-biotechnology: Bio-feedback rehabilitation devices, electrostatic allergen control, electro-surgery, and neural stimulation.

Recent Publications

  • Omar A., Wood A., Laird H. and Gaynor P. (2023) Real-Time Emulation of a PMSM-Loaded MMC With BESS. IEEE Access 11: 55035-55045.
  • Omar A., Wood A., Laird H. and Gaynor P. (2022) Single-Phase Charging of EV Embedded Batteries in an MMC with Submodule Override Capability. Energies 15(6)
  • Cronje T. and Gaynor PT. (2019) Electroporation of Ishikawa cells: analysis by flow cytometry. IET Nanobiotechnology 13(1): 58-65.
  • Benhal P., Chase JG., Gaynor P., Oback B. and Wang WH. (2015) Multiple-cylindrical Electrode System for Rotational Electric Field Generation in Particle Rotation Applications. International Journal of Advanced Robotic Systems 12(84): 12pp-12pp.
  • Benhal P., Chase JG., Gaynor P., Oback B. and Wang W. (2014) AC electric field induced dipole-based on-chip 3D cell rotation. Lab on a Chip 14(15): 2717-2727.