Push–pull configuration of high-power MOSFETs for generation of nanosecond pulses for electropermeabilization of cells
Allbwn ymchwil: Cyfraniad at gyfnodolyn › Erthygl › adolygiad gan gymheiriaid
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Yn: International Journal of Microwave and Wireless Technologies, Cyfrol 11, Rhif 7, 30.09.2019, t. 645-657.
Allbwn ymchwil: Cyfraniad at gyfnodolyn › Erthygl › adolygiad gan gymheiriaid
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T1 - Push–pull configuration of high-power MOSFETs for generation of nanosecond pulses for electropermeabilization of cells
AU - Davies, Ilan
AU - Merla, C.
AU - Tanori, M.
AU - Zambotti, A.
AU - Mancuso, M.
AU - Bishop, J.
AU - White, M.
AU - Palego, Cristiano
AU - Hancock, Chris
PY - 2019/9/30
Y1 - 2019/9/30
N2 - A power MOSFET-based push–pull configuration nanosecond-pulse generator has been designed, constructed, and characterized to permeabilize cells for biological and medical applications. The generator can deliver pulses with durations ranging from 80 ns up to 1 μs and pulse amplitudes up to 1.4 kV. The unit has been tested for in vitro experiments on a medulloblastoma cell line. Following the exposure of cells to 100, 200, and 300 ns electric field pulses, permeabilization tests were carried out, and viability tests were conducted to ver- ify the performance of the generator. The maximum temperature rise of the biological load was also calculated based on Joule heating energy conservation and experimental validation. Our results indicate that the developed device has good capabilities to achieve well-controlled electro-manipulation in vitro.
AB - A power MOSFET-based push–pull configuration nanosecond-pulse generator has been designed, constructed, and characterized to permeabilize cells for biological and medical applications. The generator can deliver pulses with durations ranging from 80 ns up to 1 μs and pulse amplitudes up to 1.4 kV. The unit has been tested for in vitro experiments on a medulloblastoma cell line. Following the exposure of cells to 100, 200, and 300 ns electric field pulses, permeabilization tests were carried out, and viability tests were conducted to ver- ify the performance of the generator. The maximum temperature rise of the biological load was also calculated based on Joule heating energy conservation and experimental validation. Our results indicate that the developed device has good capabilities to achieve well-controlled electro-manipulation in vitro.
U2 - 10.1017/S1759078719000576
DO - 10.1017/S1759078719000576
M3 - Article
VL - 11
SP - 645
EP - 657
JO - International Journal of Microwave and Wireless Technologies
JF - International Journal of Microwave and Wireless Technologies
SN - 1759-0795
IS - 7
ER -