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Low-temperature Plasmas - NCPST - Page 4

Low-temperature Plasmas

Our low-temperature plasma research develops solutions for global challenges in high-tech manufacturing, environment, and medicine, through coupling advanced plasma sensing with simulations.

About the Research Area

Low-temperature plasmas (LTPs) have the ability to generate and deliver reactive atomic and molecular species, UV, charged particles, and electric fields to biological targets under ambient conditions. LTPs can stimulate specific biological responses by producing Reactive Oxygen and Nitrogen Species (RONS), which mediate many physiological processes such as cell-to-cell signalling, immune response, wound healing, and cell death. These plasma-produced species are expected to mimic the functions of their native counterparts and offer unique synergies capable of stimulating specific biological responses. Our research focuses on understanding the plasma-driven mechanisms of action and engineering controllable plasma delivery strategies to enhance clinical therapies. We collaborate with many partners on this theme.

Low-temperature Plasmas Publications

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Low-temperature Plasmas, Diagnostics and Sensors

Two-photon absorption laser induced fluorescence measurement of atomic oxygen density in an atmospheric pressure air plasma jet. Conway, J; Gogna, G.S; Gaman, C; Turner, M.M; Daniels, S. Plasma Sources Science and Technology 2016

Low-temperature Plasmas, Simulations and Modelling

Bridging the gap between global models and full fluid models: A fast 1D semi-analytical fluid model for electronegative plasmas. Hurlbatt, A; O’Connell, D; Gans, T. Plasma Sources Science and Technology 2016

Low-temperature Plasmas, Materials Growth and Processing

Pulsed-Plasma Physical Vapor Deposition Approach Toward the Facile Synthesis of Multilayer and Monolayer Graphene for Anticoagulation Applications. Vijayaraghavan, R.K; Gaman, C; Jose, B; McCoy, A.P; Cafolla, T; McNally, P.J; Daniels, S. ACS Applied Materials and Interfaces 2016

Diagnostics and Sensors, Low-temperature Plasmas

Measurement of deposition rate and ion energy distribution in a pulsed dc magnetron sputtering system using a retarding field analyzer with embedded quartz crystal microbalance. Sharma, S; Gahan, D; Scullin, P; Doyle, J; Lennon, J; Vijayaraghavan, R.K; Daniels, S; Hopkins, M.B. Review of Scientific Instruments 2016

Low-temperature Plasmas, Environmental Applications

Erratum: In-package atmospheric pressure cold plasma treatment of strawberries (Journal of Food Engineering (2014) 125 (131-138)). Misra, N.N; Patil, S; Moiseev, T; Bourke, P; Mosnier, J.P; Keener, K.M; Cullen, P.J. Journal of Food Engineering 2015

Low-temperature Plasmas

Erratum: Tailoring the nonlinear frequency coupling between odd harmonics for the optimisation of charged particle dynamics in capacitively coupled oxygen plasmas (Applied Physics Letters (2015) 106 (054102)). Gibson, A.R; Greb, A; Graham, W.G; Gans, T. Applied Physics Letters 2015

Low-temperature Plasmas, Simulations and Modelling

Two-Dimensional Integrated Model for Interaction of Liquid Droplets with Atmospheric Pressure Plasma. Iqbal, M.M; Stallard, C.P; Dowling, D.P; Turner, M.M. Plasma Processes and Polymers 2015

Low-temperature Plasmas, Biomedical Applications

Low-temperature plasma treatment induces DNA damage leading to necrotic cell death in primary prostate epithelial cells. Hirst, A.M; Simms, M.S; Mann, V.M; Maitland, N.J; O’connell, D; Frame, F.M. British Journal of Cancer 2015

Low-temperature Plasmas

Strong ionization asymmetry in a geometrically symmetric radio frequency capacitively coupled plasma induced by sawtooth voltage waveforms. Bruneau, B; Gans, T; O’Connell, D; Greb, A; Johnson, E.V; Booth, J.-P. Physical Review Letters 2015

Low-temperature Plasmas, Materials Growth and Processing

Influence of surface conditions on plasma dynamics and electron heating in a radio-frequency driven capacitively coupled oxygen plasma. Greb, A; Gibson, A.R; Niemi, K; O’Connell, D; Gans, T. Plasma Sources Science and Technology 2015

Low-temperature Plasmas

Effect of gas properties on the dynamics of the electrical slope asymmetry effect in capacitive plasmas: Comparison of Ar, H2 and CF4. Bruneau, B; Lafleur, T; Gans, T; O’Connell, D; Greb, A; Korolov, I; Derzsi, A; Donkó, Z; Brandt, S; Schüngel, E; Schulze, J; Diomede, P; Economou, D.J; Longo, S; Johnson, E; Booth, J.-P. Plasma Sources Science and Technology 2015

Low-temperature Plasmas, Simulations and Modelling

Tailoring the nonlinear frequency coupling between odd harmonics for the optimisation of charged particle dynamics in capacitively coupled oxygen plasmas. Gibson, A.R; Greb, A; Graham, W.G; Gans, T. Applied Physics Letters 2015

Low-temperature Plasmas, Biomedical Applications

Gas and heat dynamics of a micro-scaled atmospheric pressure plasma reference jet. Kelly, S; Golda, J; Turner, M.M; Schulz-Von Der Gathen, V. Journal of Physics D: Applied Physics 2015

Low-temperature Plasmas

Electron dynamics and frequency coupling in a radio-frequency capacitively biased planar coil inductively coupled plasma system. Zaka-ul-Islam, M; O’Connell, D; Graham, W.G; Gans, T. Plasma Sources Science and Technology 2015

Low-temperature Plasmas, Simulations and Modelling

Numerical experiment to estimate the validity of negative ion diagnostic using photo-detachment combined with Langmuir probing. Oudini, N; Sirse, N; Benallal, R; Taccogna, F; Aanesland, A; Bendib, A; Ellingboe, A.R. Physics of Plasmas 2015

Low-temperature Plasmas

Collisionless sheath heating in current-driven capacitively coupled plasma discharges via higher order sinusoidal signals. Sharma, S; Mishra, S.K; Kaw, P.K; Das, A; Sirse, N; Turner, M.M. Plasma Sources Science and Technology 2015

Low-temperature Plasmas, Biomedical Applications

Cold-air atmospheric pressure plasma against clostridium difficile spores: A potential alternative for the decontamination of hospital inanimate surfaces. Claro, T; Cahill, O.J; O’Connor, N; Daniels, S; Humphreys, H. Infection Control and Hospital Epidemiology 2015

Low-temperature Plasmas

Effect of mass and charge of ionic species on spatio-temporal evolution of transient electric field in CCP discharges. Sharma, S; Mishra, S.K; Kaw, P.K; Turner, M.M; Karkari, S.K. Contributions to Plasma Physics 2015

Low-temperature Plasmas

Influence of Gap Spacing between Dielectric Barriers in Atmospheric Pressure Discharges. Iqbal, M.M; Turner, M.M. Contributions to Plasma Physics 2015

Low-temperature Plasmas, Environmental Applications

Effects of atmospheric air plasma treatment of graphite and carbon felt electrodes on the anodic current from Shewanella attached cells. Epifanio, M; Inguva, S; Kitching, M; Mosnier, J.-P; Marsili, E. Bioelectrochemistry 2015

Low-temperature Plasmas

Control and enhancement of the oxygen storage capacity of ceria films by variation of the deposition gas atmosphere during pulsed DC magnetron sputtering. Eltayeb, A; Vijayaraghavan, R.K; McCoy, A; Venkatanarayanan, A; Yaremchenko, A.A; Surendran, R; McGlynn, E; Daniels, S. Journal of Power Sources 2015