PUBLICATIONS
Refereed Journal Articles [student(s) underlined, G = Graduate student, U = Undergraduate student, P = Post-doc]
130. A. PandaG and A. L. Garner, “Bifurcation and Hysteresis in Vacuum Diodes,” Physical Review E, Accepted 22 October 2026.
129. S. Shrestha, P. Ghosh, A. L. Garner, and R. P. Joshi, “Evaluating Electron Photoemission Current from a Metal Emitter Based on the Lucky Drift Model,” Journal of Vacuum Science and Technology B 44, 064202 (2026).
128. A. L. Garner, J. K. WrightG, and N. R. Sree HarshaP, “A capacitance-based approach for determining the space-charge limited current density and electric potential in a crossed-field gap,” AIP Advances 16, 065213 (2026).
127. A. PandaG, J. Browning, and A. L. Garner, “Virtual Cathode Behavior in a Crossed-Field Gap,” Physical Review E 113, 065202 (2026).
126. N. R. Sree HarshaG,P, X. ZhuG, D. Smithe, M. E. McFeelyU, A. PandaG, and A. L. Garner, “A general formulation of multi-dimensional space-charge-limited current density with nonzero monoenergetic initial velocity,” Journal of Physics D: Applied Physics 59, 215502 (2026).
125. L. I. BreenG and A. L. Garner, “Theoretical assessment of the transition between electron emission mechanisms in a collisional crossed-field gap,” Physics of Plasmas 33, 052107 (2026).
124. [FEATURED] J. K. WrightG, A. M. Darr, C. EckardtU, and A. L. Garner, “Calculating the space-charge-limited current density for nonplanar geometries by simulating the charge-free electric field,” Physics of Plasmas 33, 052101 (2026).
123. J. K. WrightG, S. T. UnzickerU, and A. L. Garner, “Calculating the Volume-Averaged Space-Charge-Limited Current Density by Simulating Vacuum Capacitance,” IEEE Transactions on Electron Devices 73, 2207-2213 (2026).
122.E. WongU, S. Roy, S. Chatzidakis, A. FernandesU, A. GomezU, A. L. Garner, and P. Bermel, “A Comparison of Lead and Polyethylene Versus Tungsten and Hexagonal-Boron Nitride for Space Radiation Shielding,” IEEE Transactions on Nuclear Science 73, 372 - 382 (2026).
121. Y. M. PokhrelG, A. L. Garner, and R. P. Joshi, “A Microscopic Study into the Role of Grain Boundaries in Field Assisted Protrusion Growth and Potential for Current Fluctuations in Electron Nanoemitters,” Journal of Applied Physics 138, 143303 (2025).
120. M. Pearlman, D. Smithe, M. Worthington, A. L. Garner, and J. Browning, “Noise Generation Mechanisms in Re-Entrant Backward Wave Crossed-Field Amplifiers,” IEEE Transactions on Electron Devices 72, 6256-6263 (2025).
119. R. Bhattcharya, C. S. Del Rio, W. Chern, J. West, I. Wolstenholme, M. Cannon, G. Herrera, M. Pearlman, A. I. Akinwande, A. L. Garner, and J. Browning, “Radio Frequency Amplification in a Linear Crossed-field Amplifier using Cold Cathodes,” IEEE Transactions on Electron Devices 72, 5209-5215 (2025).
118. J. K. WrightG, N. R. Sree HarshaP, and A. L. Garner, “A generalized framework for the critical current for a one-dimensional crossed-field gap in an orthogonal coordinate system,” Physics of Plasmas 32, 072115 (2025).
117. A. L. Garner, N. R. Sree HarshaP, and A. M. Loveless, “Extending the Mott-Gurney law to one-dimensional nonplanar diodes using point transformations,” Journal of Applied Physics 137, 234501 (2025).
116. A. L. Garner and N. R. Sree HarshaP, “The implications of collisions on the spatial profile of electric potential and the space-charge limited current,” IEEE Transactions on Electron Devices 72, 1419-1426 (2025).
115. T. D. CrawfordG, A. J. RomesU, S. Sengupta, and A. L. Garner, “Ferromagnetic Hysteresis Behavior of Ferroic and Multiferroic Ceramics from 100 K to 400 K for Nonlinear Pulse Forming Line Applications,” IEEE Transactions on Magnetics 61, 2800206 (2025).
114. J. M. HalpernU, N. R. Sree HarshaG,P, A. M. DarrG, and A. L. Garner, “Space-charge-limited current for nonplanar relativistic diodes with nonzero monoenergetic initial velocity using point transformations,” Physics of Plasmas 32, 012106 (2025).
113. T. D. CrawfordG, S. I. EversU, B. H. SapoffU, and A. L. Garner, "A coaxial solid state nonlinear pulse forming line with an exponentially tapered ferrite composite core,” Review of Scientific Instruments 95, 124709 (2024).
112. A. G. SinelliU, L. I. BreenG, N. R. Sree HarshaP, A. M. Darr, A. M. KomrskaG, and A. L. Garner, “Theoretical Assessment of the Transition Between Electron Emission Mechanisms for Nonplanar Diodes,” IEEE Transactions on Electron Devices 72, 397-403 (2025).
111. C. BakerG, A. Willis, W. Milestone, M. Baker, A. L. Garner, and R. P. Joshi, “Numerical assessments of geometry, proximity and multi-electrode effects on electroporation in mitochondria and the endoplasmic reticulum to nanosecond electric pulses,” Scientific Reports 14, 23854 (2024).
110. S. J. WyssG, W. Milestone, R. P. Joshi, and A. L. Garner, “Maps of Membrane Pore Dynamics from Picosecond to Millisecond Pulse Durations,” IEEE Transactions on Biomedical Engineering 72, 768-776 (2025).
109. L. I. BreenG, K. L. Cartwright, A. M. Loveless, and A. L. Garner, “Limiting current in a collisional crossed-field gap,” Physics of Plasmas 31, 092108 (2024).
108. S. MahajanG, H. WangG, A. M. Loveless, A. Semnani, A. Venkattraman, and A. L. Garner, “Scaling Laws for AC Gas Breakdown in Microscale Gaps,” Journal of Applied Physics 135, 243301 (2024).
107. M. Pearlman, D. Smithe, M. Worthington, J. Watrous, A. L. Garner, and J. Browning, “Spoke Characterization in Re-Entrant Backward Wave Crossed-Field Amplifiers via Simulation, IEEE Transactions on Electron Devices 71, 5020-5027 (2024).
106. X. ZhuG, J. K. WrightG, N. R. Sree HarshaG, and A. L. Garner, “Critical current in a two-dimensional non-magnetically-insulated crossed-field gap with monoenergetic emission,” Physics of Plasmas 31, 072101 (2024).
105. L. I. BreenG and A. L. Garner, “Collisional space-charge limited current with monoenergetic velocity: From Child-Langmuir to Mott-Gurney,” Physics of Plasmas 31, 032102 (2024).
104. X. ZhuG, J. K. WrightG, N. R. Sree HarshaG, J. Browning, and A. L. Garner, “Electron Trajectories and Critical Current in a Two-Dimensional Planar Magnetically Insulated Crossed-field Gap,” IEEE Access 12, 11378-11387 (2024).
103.A. M. LovelessP, S. J. WyssG, W. Milestone, R. P. Joshi, and A. L. Garner, “A Simplified Electrical-Based Model for Electroporation Dynamics,” IEEE Access 12, 8004-8021 (2024).
102. X. ZhuG, N. R. Sree HarshaG, and A. L. Garner, “Uniform space-charge-limited current for a two-dimensional planar emitter with nonzero monoenergetic initial velocity,” Journal of Applied Physics 134, 113301 (2023). [Erratum: “Uniform space-charge-limited current for a two-dimensional planar emitter with nonzero monoenergetic initial velocity” [J. Appl. Phys. 134, 113301 (2023)]], Journal of Applied Physics 134, 239902 (2023).
101. L. I. BreenG, A. M. LovelessP, A. M. DarrG, K. L. Cartwright, and A. L. Garner, “The Transition from Field Emission to Collisional Space-Charge Limited Current with Nonzero Initial Velocity,” Scientific Reports 13, 14505 (2023).
100. [EDITOR'S PICK] H. WangG, A. Venkattraman, A. M. LovelessP, and A. L. Garner, “Particle-in-cell simulations of the ionization process in microwave argon microplasmas,” Journal of Applied Physics 134, 103303 (2023).
99. R. Bhattacharya, A. M. DarrG, W. Chern, J. McClarin, B. Sainz, I. Wolstenholme, A. Yue, M. Cannon, G. Herrera, A. I. Akinwande, A. L. Garner, and J. Browning, “Experimental Analysis of Beam Perturbation in a Planar Crossed-Field Structure,” IEEE Transactions on Plasma Science 51, 2229-2236 (2023).
98. W. MilestoneG, C. BakerG, A. L. Garner, and R. P. Joshi, “Electroporation from mitochondria to cell clusters: model development towards analysis of electrically driven bioeffects over a large spatial range,” Journal of Applied Physics 133, 244701 (2023).
97. C. BakerG, W. MilestoneG, A. L. Garner, and R. P. Joshi, “Selective Electroporation of Tumor Cells Under AC Radiofrequency Stimulation,” IEEE Transactions on Biomedical Engineering 71, 114-121 (2024).
96. [INVITED, GOLDEN ANNIVERSARY] R. P. Joshi, A. L. Garner, and R. Sundararajan, “Review of Developments in Bioelectrics as an Application of Pulsed Power Technology,” IEEE Transactions on Plasma Science 51, 1682-1717 (2023).
95. [EDITOR'S PICK] B-S. ChenG, A. L. Garner, and S. P. M. Bane, “Numerical Analysis of a Nanosecond Repetitively Pulsed Plasma Assisted Counter-flow Diffusion Flame,” Journal of Applied Physics 133, 203302 (2023).
94. A. L. Garner, A. M. KomrskaU, L. I. BreenG, A. M. LovelessP, and K. L. Cartwright, “Electron Trajectories in a Collisional Crossed-Field Gap,” Applied Physics Letters 122, 194101 (2023).
93. W. MilestoneG, Q. Hu, A. L. Garner, and R. P. Joshi, “Sinusoidal RF Simulations for Optimized Electroporation Protocols,” Journal of Applied Physics 133, 174702 (2023).
92. N. R. Sree HarshaG, J. M. HalpernU, A. M. DarrG, and A. L. Garner, “Space-charge-limited current density for nonplanar diodes with monoenergetic emission using Lie-point symmetries,” Physical Review E 106, L063201 (2022).
91. [EDITOR'S PICK] H. WangG, A. M. LovelessP, A. M. DarrG, and A. L. Garner, “Transitions between field emission, space-charge limited emission, and vacuum breakdown in nanoscale gaps,” Journal of Vacuum Science and Technology B 40, 062805 (2022).
90. M. Pearlman, D. Smithe, C. Roark, M. Worthington, J. Watrous, A. Garner, and J. Browning, “Simulation of the pulsed 4.7 MW, L-band crossed-field amplifier,” IEEE Transactions on Electron Devices 69, 7053-7058 (2022).
89. T. D. CrawfordG and A. L. Garner, “Nonlinear Transmission Line Performance as a Combined Pulse Forming Line and High-Power Microwave Source as a Function of Line Impedance,” Applied Sciences 12, 10305 (2022).
88. X. ZhuG, A. J. FairbanksG, T. D. CrawfordG, and A. L. Garner, “Nonlinear Effective Dielectric Properties of Barium Strontium Titanate Composites from 300 MHz to 4 GHz,” Applied Composite Materials 30, 93-109 (2023).
87. J. M. HalpernU, A. M. DarrG, N. R. Sree HarshaG, and A. L. Garner, “A coordinate system invariant formulation for space-charge limited current with nonzero injection velocity,” Plasma Sources Science and Technology 31, 095002 (2022).
86. W. MilestoneG, Q. Hu, A. M. LovelessP, A. L. Garner, and R. P. Joshi, “Modeling coupled single cell electroporation and thermal effects from nanosecond electric pulse trains,” Journal of Applied Physics 132, 094701 (2022).
85. H. WangG, A. Venkattraman, A. M. LovelessP, C. J. BuerkeU, and A. L. Garner, “An empirical relationship for ionization coefficient for microscale gaps and high reduced electric fields,” Journal of Applied Physics 132, 073302 (2022).
84. A. M. DarrG and A. L. Garner, “Modifications of Limiting Current and Magnetic Insulation in a Crossed-Field Diode by a Series Resistor,” IEEE Access 10, 60438-60446 (2022).
83. A. L. Garner, B. Neculaes, and D. V. Dylov, “Infrared laser-based single cell permeabilization by plasma membrane temperature gradients,” Membranes 12, 574 (2022).
82. B. Neculaes, A. L. Garner, S. Klopman, and E. A. LongmanU, “Dependence of electric pulse mediated growth factor release on the platelet rich plasma separation method,” Applied Sciences 12, 4965 (2022).
81. [INVITED] A. L. Garner, A. M. DarrG, and N. R. Sree HarshaG, “A Tutorial on Calculating Space-Charge Limited Current Density for General Geometries and Multiple Dimensions,” IEEE Transactions on Plasma Science 50, 2528-2540 (2022).
80. [INVITED] A. M. LovelessP, A. M. DarrG, and A. L. Garner, “Theoretical Linkage of Thermionic, Field, and Space-Charge Limited Emission for a Vacuum Crossed-Field Gap,” IEEE Transactions on Plasma Science 50, 2609-2620 (2022).
79. H. WangG, R. S. Brayfield IIG, A. M. LovelessP, A. M. DarrG, and A. L. Garner, “Experimental study of gas breakdown and electron emission in nanoscale gaps at atmospheric pressure,” Applied Physics Letters 120, 124103 (2022).
78. A. L. Garner and T. A. Mehlhorn, “A Review of Cold Atmospheric Pressure Plasmas for Trauma and Acute Care,” Frontiers in Physics 9, 786381 (2021).
77. [FEATURED] N. R. Sree HarshaG, M. PearlmanP, J. Browning, and A. L. Garner, “A multi-dimensional Child-Langmuir law for any diode geometry,” Physics of Plasmas 28, 122103 (2021).
76. S. A. LangG, A. M. DarrG, and A. L. Garner, “Incorporating photoemission into the theoretical unification of electron emission and space-charge limited current,” Journal of Vacuum Science & Technology B 39, 062808 (2021).
75. A. M. DarrG, N. R. Sree HarshaG, and A. L. Garner, “Response to Comment on “A coordinate system invariant formulation for space-charge limited current in vacuum” [APL 119, 206101 (2021)],” Applied Physics Letters 119, 206102 (2021).
74. N. R. Sree HarshaG and A. L. Garner, “Analytic Solutions for Space-Charge-Limited Current Density from a Sharp Tip,” IEEE Transactions on Electron Devices 68, 6525-6531 (2021).
73. [INVITED] A. J. FairbanksG, T. D. CrawfordG, M. E. VaughanU, and A. L. Garner, “Simulated and Measured Output from a Composite Nonlinear Transmission Line Driven by a Blumlein Pulse Generator,” IEEE Transactions on Plasma Science 49, 3383-3391 (2021).
72. A. J. FairbanksG, T. D. CrawfordG, and A. L. Garner, “Nonlinear transmission line implemented as a combined pulse forming line and high-power microwave source,” Review of Scientific Instruments 92, 104702 (2021).
71. X. ZhuG, A. J. FairbanksG, T. D. CrawfordG, and A. L. Garner, “Modelling Effective Electromagnetic Properties of Composites Containing Barium Strontium Titanate and/or Nickel Zinc Ferrite Inclusions from 1-4 GHz,” Composites Science and Technology 214, 108978 (2021).
70. A. M. DarrG, R. BhattacharyaP, J. Browning, and A. L. Garner, “Space-Charge Limited Current in Planar and Cylindrical Crossed-Field Diodes using Variational Calculus,” Physics of Plasmas 28, 082110 (2021).
69. L. XuG, H. Hou, B. Farkas, K. M. Keener, A. L. Garner, and B. Tao, “High voltage atmospheric cold plasma modification of bovine serum albumin,” LWT Food Science & Technology 149, 111995 (2021).
68. A. M. DarrG, N. R. Sree HarshaG, and A. L. Garner, “Response to “Comment on ‘A coordinate system invariant formulation for space-charge limited current in vacuum’” [Appl. Phys. Lett. 118, 266101 (2021)]," Applied Physics Letters 118, 266102 (2021).
67. A. J. FairbanksG, T. D. CrawfordG, J. A. HernandezG, J. D. MatejaU, X. ZhuG, T. N. Tallman, and A. L. Garner, “Electromagnetic Properties of Multiphase Composites Containing Barium Strontium Titanate and Nickel Zinc Ferrite Inclusions from 1-4 GHz,” Composites Science and Technology 211, 108826 (2021).
66. A. J. FairbanksG, T. D. CrawfordG, J. A. HernandezG, J. D. MatejaU, X. ZhuG, T. N. Tallman, and A. L. Garner, “Electromagnetic measurements of composites containing barium strontium titanate or nickel zinc ferrite inclusions from 1-4 GHz,” Composites Science and Technology 210, 108798 (2021).
65. T. D. CrawfordG, A. J. FairbanksG, J. A. HernandezG, T. N. Tallman, and A. L. Garner, “Nonlinear Permeability Measurements for Nickel Zinc Ferrite and Nickel Zinc Ferrite/Barium Strontium Titanate Composites from 1-4 GHz,” IEEE Transactions on Magnetics 57, 6100810 (2021).
64. A. M. LovelessG, A. M. DarrG, and A. L. Garner, “Linkage of Electron Emission and Breakdown Mechanism Theories from Quantum Scales to Paschen’s Law,” Physics of Plasmas 28, 042110 (2021).
63. R. BhattacharyaP, A. M. DarrG, A. L. Garner, and J. Browning, “Analysis of Injected Electron Beam Propagation in a Planar Crossed-Field Gap,” Applied Sciences 11, 2540 (2021).
62. B. Neculaes, A. L. Garner, S. Klopman, C. Morton, and A. S. Torres, “A Multi-Donor Ex Vivo Platelet Activation and Growth Factor Release Study Using Electric Pulses With Durations Up to 100 Microseconds,” IEEE Access 9, 31340 – 31349 (2021).
61. [INVITED PERSPECTIVE, FEATURED] P. Zhang, Y. S. Ang, A. L. Garner, Á. Valfells, J. W. Luginsland, and L. K. Ang, “Space-charge limited current in nanodiodes: Ballistic, collisional and dynamical effects,” Journal of Applied Physics 129, 100902 (2021).
60. A. M. LovelessG,P, L. I. BreenU, and A. L. Garner, “Analytic theory for field emission driven microscale gas breakdown for a pin-to-plate geometry,” Journal of Applied Physics 129, 103301 (2021).
59. N. R. Sree HarshaG and A. L. Garner, “Applying Conformal Mapping to Derive Analytical Solutions of Space-Charge-Limited Current Density for Various Geometries,” IEEE Transactions on Electron Devices 68, 264-270 (2021).
58. [INVITED PERSPECTIVE] A. L. Garner, G. Meng, Y. Fu, A. M. LovelessG,P, R. S. Brayfield IIG, and A. M. DarrG, “Transitions between electron emission and gas breakdown mechanisms across length and pressure scales,” Journal of Applied Physics 128, 210903 (2020).
57. S. A. LangG, A. M. DarrG, and A. L. Garner, “Theoretical analysis of the transition from field emission to space-charge-limited emission in liquids and gases,” Journal of Applied Physics 128, 185104 (2020).
56. J. R. MalayterU and A. L. Garner, “Theoretical Assessment of Surface Waviness on Work Function,” AIP Advances 10, 095110 (2020).
55. A. J. FairbanksG, A. M. DarrG, and A. L. Garner, “A Review of Nonlinear Transmission Line System Design,” IEEE Access 8, 148606 – 148621 (2020).
54. L. XuG, X. YepezG, B. Applegate, K. M. Keener, B. Tao, and A. L. Garner, “Penetration and Microbial Inactivation by High Voltage Atmospheric Cold Plasma in Semi-Solid Material,” Food and Bioprocess Technology 13,1688–1702 (2020).
53. A. L. Garner, A. S. Torres, S. Klopman, and B. Neculaes, “Electrical stimulation of whole blood for growth factor release and potential clinical implications,” Medical Hypotheses 143, 110105 (2020).
52. A. M. DarrG, C. R. DarrU, and A. L. Garner, “Theoretical Assessment of Transitions across Thermionic, Field, and Space-Charge Limited Emission,” Physical Review Research 2, 033137 (2020).
51. [INVITED MINI-COURSE] A. L. Garner, A. M. LovelessG, J. N. Dahal, and A. Venkattraman, “A Tutorial on Theoretical and Computational Techniques for Gas Breakdown in Microscale Gaps,” IEEE Transactions on Plasma Science 48, 808-824 (2020).
50. R. A. VadlamaniG, A. DhanabalG, D. Detwiler, R. PalG, J. McCarthy, M. N. Seleem, and A. L. Garner, “Nanosecond electric pulses rapidly enhance the inactivation of Gram-negative bacteria using Gram-positive antibiotics,” Applied Microbiology and Biotechnology 104, 2217–2227 (2020).
49. C. H. GeisslerU, M. L. MulliganU, Z. E. ZmolaU, S. RayG, J. A. Morgan, and A. L. Garner, “Nanosecond and Microsecond Electric Pulse Pretreatment for Enhanced Lipid Recovery from Chlorella protothecoides,” BioEnergy Research 13, 499-506 (2020).
48. [INVITED MINIREVIEW] A. L. Garner, “Pulsed Electric Field Inactivation of Microorganisms: From Fundamental Biophysics to Synergistic Treatments,” Applied Microbiology and Biotechnology 103, 7917-7929 (2019).
47. [FEATURED ARTICLE] A. M. DarrG and A. L. Garner, “A Coordinate System Invariant Formulation for Space-Charge Limited Current in Vacuum,” Applied Physics Letters 115, 054101 (2019). [Selected for Featured Article: https://doi.org/10.1063/1.5121645]
46. B-S. ChenG, A. L. Garner, and S. P. M. Bane, “Simulation of Flame Speed Enhancement of a Hydrocarbon Flame with an Applied Electric Field,” Combustion and Flame 207, 250-264 (2019).
45. S. D. DynakoU, A. M. DarrG, and A. L. Garner, “Incorporating Resistance into the Transition from Field Emission to Space Charge Limited Emission with Collisions ,” IEEE Journal of the Electron Devices Society 7, 650-654 (2019).
44. R. A. VadlamaniG, Y. NieP, D. A. Detwiler, A. DhanabalG, A. M. KraftU, S. Kuang, T. P. Gavin, and A. L. Garner, “Nanosecond Electric Pulse Induced Proliferation and Differentiation of Osteoblasts and Myoblasts,” Journal of the Royal Society Interface 16, 20190079 (2019).
43. R. S. Brayfield, IIG, A. J. FairbanksG, A. M. LovelessG, S. GaoG, A. DhanabalG, W. LiU, C. DarrU, W. Wu, and A. L. Garner, “The Impact of Cathode Surface Roughness and Multiple Breakdown Events on Microscale Gas Breakdown at Atmospheric Pressure,” Journal of Applied Physics 125, 203302 (2019).
42. A. M. LovelessG, G. Meng, Q. Ying, F. Wu, K. Wang, Y. Cheng, and A. L. Garner, “The Transition to Paschen’s Law for Microscale Gas Breakdown at Subatmospheric Pressure,” Scientific Reports 9, 5669 (2019).
41. A. L. Garner, A. L. Frelinger III, A. J. Gerrits, T. Gremmel, E. E. Forde, S. L. Carmichael, A. D. Michelson, and V. B. Neculaes, “Using Extracellular Calcium Concentration and Electric Pulse Conditions to Tune Platelet-Rich Plasma Growth Factor Release and Clotting,” Medical Hypotheses 125, 100-105 (2019).
40. G. Meng, Q. Ying, A. M. LovelessG, F. Wu, K. Wang, Y. Fu, A. L. Garner, and Y. Cheng “Spatio-temporal Dynamics of Pulsed Gas Breakdown in Microgaps,” Physics of Plasmas 26, 014506 (2019).
39. A. M. DarrG, A. M. LovelessG, and A. L. Garner, “Unification of field emission and space charge limited emission with collisions,” Applied Physics Letters 114, 014103 (2019).
38. L. MittalG, V. RamanG, I. G. Camarillo, A. L. Garner, and R. Sundararajan, “Viability and Cell Cycle Studies of Metastatic Triple Negative Breast Cancer Cells Using Low Voltage Electrical Pulses and Herbal Curcumin,” Biomedical Physics and Engineering Express 5, 025040 (2019).
37. S. DynakoU, A. M. LovelessG, and A. L. Garner, “Sensitivity of Modeled Microscale Gas Breakdown Voltage due to Parametric Variation,” Physics of Plasmas 25, 103505 (2018).
36. J. Castle, A. L. Garner, R. Smith, B. Davis, S. Klopman, S. R. Dinn, A. S. Torres, and V. B. Neculaes, “Hematopoietic Stem Cell and Fibroblast Proliferation during Electrically Stimulated Platelet Activation,” IEEE Access 6, 56395-56401 (2018).
35. P. Norgard, S. Kovaleski, R. S. Brayfield, IIG, and A. L. Garner, “Non-Equilibrium High Pressure Helium Plasma Produced in the Local Electric Fields of a Piezoelectric Transformer,” IEEE Transactions on Plasma Science 47, 128-135 (2019).
34. [FEATURED ARTICLE] G. Meng, X. Gao, A. M. LovelessG, C. Dong, D. Zhang, K. Wang B. Zhu, Y. Chen, and A. L. Garner, “Demonstration of Field Emission Driven Microscale Gas Breakdown for Pulsed Voltages using In-situ Optical Imaging,” Physics of Plasmas 25, 082116 (2018). [Selected for Featured Article: https://publishing.aip.org/publications/latest-content/researchers-unravel-the-path-of-electrical-discharges-on-scales-that-are-phenomenally-small-and-fleetingly-brief-shedding-light-on-future-innovations/ ]
33. A. VadlamaniG, D. A. Detwiler, A. DhanabalG, and A. L. Garner, “Synergistic Bacterial Inactivation by Combining Antibiotics with Nanosecond Electric Pulses,” Applied Microbiology and Biotechnology 102, 7589-7596 (2018).
32. T. ParupudiG, R. RahimiP, M. Ammirati, R. Sundararajan, A. L. Garner, and B. Ziaie, “Fabrication and characterization of implantable flushable electrodes for electric field-mediated drug delivery in a brain tissue-mimic agarose gel,” Electrophoresis 39, 2262-2269 (2018).
31. S. SuwalP, C. P. Coronel-Aguilera, J. Auer, B. Applegate, A. L. Garner, J-Y. Huang, “Mechanism Characterization of Bacterial Inactivation of Atmospheric Air Plasma Gas and Activated Water using Bioluminescence Technology,” Innovative Food Science and Emerging Technologies 53, 18-25 (2019).
30. R. S. Brayfield II, A. Jassem, M. V. Lauria, A. J. Fairbanks, K. M. Keener, and A. L. Garner, “Characterization of High Voltage Cold Atmospheric Plasma Generation in Sealed Packages as a Function of Container Material and Fill Gas,” Plasma Chemistry and Plasma Processing 38, 379-395 (2018).
29. A. M. Loveless and A. L. Garner, “A Universal Theory for Gas Breakdown from Microscale to the Classical Paschen Law,” Physics of Plasmas 24, 113522 (2017). [Erratum: “A universal theory for gas breakdown from microscale to the classical Paschen law” [Phys. Plasmas 24, 113522 (2017)], Physics of Plasmas 29, 099901 (2022)].
28. A. M. Loveless and A. L. Garner, “Scaling Laws for AC Gas Breakdown and Implications for Universality,” Physics of Plasmas 24, 104501 (2017).
27. A. L. Garner, A. Caiafa, Y. Jiang, S. Klopman, C. Morton, A. S. Torres, A. M. Loveless, and V. B. Neculaes, “Experimental Validation of a Compact, Flexible Pulsed Power Architecture for Ex Vivo Platelet Activation,” PLOS ONE 12(7), e0181214 (2017).
26. L. Xu, A. L. Garner, B. Tao, and K. M. Keener, “Microbial Inactivation and Quality Changes in Orange Juice Treated by High Voltage Atmospheric Cold Plasma,” Food and Bioprocess Technology 10(10), 1778-1791 (2017).
25. V. S. Robinson, A. L. Garner, A. M. Loveless, and V. B. Neculaes, "Calculated Plasma Membrane Voltage Induced by Applying Electric Pulses using Capacitive Coupling," Biomedical Physics & Engineering Express 3, 025016 (2017).
24. [INVITED] A. M. Loveless and A. L. Garner, “Generalization of Microdischarge Scaling Laws for All Gases at Atmospheric Pressure," IEEE Transactions on Plasma Science 45(4), 574-583 (2017).
23. J. Song, A. L. Garner, and R. P. Joshi, "Molecular Dynamics Assessment of the Role of Thermal Gradients Created by Electromagnetic Fields on Cell Membrane Electroporation," Physical Review Applied 7, 024003 (2017).
22. A. L. Frelinger III, A. J. Gerrits, A. L. Garner, A. S. Torres, A. Caiafa, C. A. Morton, M. A. Berny-Lang, S. L. Carmichael, V. B. Neculaes, and A. D. Michelson, “Modification of Pulsed Electric Field Conditions Results in Distinct Activation Profiles of Platelet-Rich Plasma,” PLoS ONE 11(8), e0160933 (2016).
21. A. M. Loveless and A. L. Garner, “Scaling Laws for Gas Breakdown for Nanoscale to Microscale Gaps at Atmospheric Pressure,” Applied Physics Letters 108(23), 234103 (2016).
20. A. L. Garner, G. J. Parker, and D. L. Simone, “A Semi-Empirical Approach for Predicting the Performance of Multiphase Composites at Microwave Frequencies,” IEEE Transactions on Dielectrics and Electrical Insulation 23(2), 1126-1134 (2016).
19. A. L. Garner, V. B. Neculaes, M. Deminsky, D. V. Dylov, C. Joo, E. R. Loghin, S. Yazdanfar, and K. R. Conway, “Plasma Membrane Temperature Gradients and Multiple Cell Permeabilization Induced by Low Peak Power Density Femtosecond Lasers," Biochemistry and Biophysics Reports 5, 168-174 (2016).
18. A. L. Garner, G. J. Parker, and D. L. Simone, "Accounting for Conducting Inclusion Permeability in the Microwave Regime in a Modified Generalized Effective Medium Theory,” IEEE Transactions on Dielectrics and Electrical Insulation 22, 2064-2072 (2015).
17. A. M. Loveless, T. G. Schaaff, and A. L. Garner, "Age-dating Uranium Metal Using Microstructural Damage,” Annals of Nuclear Energy 83, 298-301 (2015).
16. V. B. Neculaes, A. Torres, A. Caiafa, C. Morton, A. Larriera, S. Klopman, K. Conway, and A. L. Garner, "Ex Vivo Platelet Activation with Extended Duration Pulse Electric Fields” EWMA Journal 15(1), 15-19 (2015).
15. A. S. Torres, A. Caiafa, A. L. Garner, S. Klopman, N. LaPlante, K. Conway, A. D. Michelson, A. Frelinger, and V. B. Neculaes, "Platelet Activation using Electric Pulse Stimulation: Growth Factor Profile and Clinical Implications," Journal of Trauma and Acute Care Surgery 77(3S2), S94-S100 (2014).
14. A. L. Garner and K. Lewis, "Buckingham Pi Analysis of Railgun Multiphysics," IEEE Transactions on Plasma Science 42, 2104-2112 (2014).
13. A. L. Garner, M. Deminksy, V. B. Neculaes, V. Chashihin, A. Knizhnik, and B. Potapkin, "Cell Membrane Thermal Gradients Induced by Electromagnetic Fields," Journal of Applied Physics 113, 214709 (2013).
12. A. L. Garner, G. J. Parker, and D. L. Simone, "Predicting effective permittivity of composites containing conductive inclusions at microwave frequencies," AIP Advances 2, 032109 (2012).
11. A. L. Garner and V. B. Neculaes, "Extending membrane pore lifetime with AC fields: A modeling study," Journal of Applied Physics 112, 014701 (2012).
10. E. Kvam, B. Davis, F. Mondello, and A. L. Garner, "Non-thermal atmospheric plasma rapidly disinfects multidrug-resistant microbes by inducing cell surface damage," Antimicrobial Agents and Chemotherapy 56, 2028-2036 (2012).
9. A. L. Garner, "Cathode spot motion in an oblique magnetic field," Applied Physics Letters 92, 011505 (2008).
8. N. Chen, A. L. Garner, G. Chen, Y. Jing, Y. Deng, R. J. Swanson, J. F. Kolb, S. J. Beebe, R. P. Joshi, and K. H. Schoenbach, "Nanosecond electric pulses penetrate the nucleus and enhance speckle formation," Biochemical and Biophysical Research Communications 364, 220-225 (2007).
7. A. L. Garner, G. Chen, N. Chen, V. Sridhara, J. F. Kolb, R. J. Swanson, S. J. Beebe, R. P. Joshi, and K. H. Schoenbach, "Ultrashort electric pulse induced changes in cellular dielectric properties," Biochemical and Biophysical Research Communications 362, 139-144 (2007).
6. A. L. Garner, Y. Y. Lau, D. W. Jordan, M. D. Uhler, and R. M. Gilgenbach, "Implications of a simple mathematical model to cancer cell population dynamics," Cell Proliferation 39, 15-28 (2006).
5. A. L. Garner, Y. Y. Lau, T. L. Jackson, M. D. Uhler, D. W. Jordan, and R. M. Gilgenbach, "Incorporating spatial dependence into a multicellular tumor spheroid growth model," Journal of Applied Physics 98, 124701 (2005).
4. A. L. Garner, N. Chen, J. Yang, J. Kolb, R. J. Swanson, K. C. Loftin, S. J. Beebe, R. P. Joshi, and K. H. Schoenbach, "Time domain dielectric spectroscopy measurements of HL-60 cell suspensions after microsecond and nanosecond electrical pulses," IEEE Transactions on Plasma Science 32, 2073-2084 (2004).
3. N. Chen, K. H. Schoenbach, J. F. Kolb, R. J. Swanson, A. L. Garner, J. Yang, R. P. Joshi, and S. J. Beebe, "Leukemic cell intracellular responses to nanosecond electric fields," Biochemical and Biophysical Research Communications 317, 421-427 (2004).
2. A. L. Garner, Y. Y. Lau, and D. Chernin, "Collapse of cycloidal electron flows induced by misalignments in a magnetically insulated diode," Physics of Plasmas 5, 2447-2453 (1998).
1. P. J. Christenson, D. P. Chernin, A. L. Garner, and Y. Y. Lau, "Resistive destabilization of cycloidal electron flow and universality of (near-) Brillouin flow in a crossed-field gap," Physics of Plasmas 3, 4455-4462 (1996).
Conference Papers
30. J. K. WrightG, C. EckardtU, A. M. Darr, and A. L. Garner, “Space Charge Limited Current Density for an Array of Multiple Tips,” Proceedings of the 2026 IEEE International Vacuum Electronics Conference, Monterey, CA, 2026 pp. 79-80.
29. A. M. KomrskaG, M-J. F. DeganusG, K. Torfason, A. Valfells, and A. L. Garner, “Molecular Dynamics Simulations for Benchmarking Electron Emission Theories in Nonplanar Nanoscale Devices,” Proceedings of the 2026 IEEE International Vacuum Electronics Conference, Monterey, CA, 2026 pp. 77-78.
28. L. I. BreenG, J. K. WrightG, and A. L. Garner, “The Transition between Electron Emission Mechanisms in a Nonplanar Vacuum Crossed-Field Gap,” Proceedings of the 2026 IEEE International Vacuum Electronics Conference, Monterey, CA, 2026 pp. 26-27.
27. J. K. WrightG, N. R. Sree HarshaG, and A. L. Garner, “Space-charge limited current for nonplanar crossed-field diodes,” 2024 IEEE International Vacuum Electronics Conference, P1.15, 25 April 2024, https://doi.org/10.1109/IVECIVESC60838.2024.10694948
26. N. R. Sree HarshaG and A. L. Garner, “Effect of Self-Affine Surface Roughness on Space-Charge Limited Current,” 2024 IEEE International Vacuum Electronics Conference, Monterrey, CA, 23 April 2024, https://doi.org/10.1109/IVECIVESC60838.2024.10694947
25. M. Pearlman, J. Watrous, D. Smithe, M. Worthington, A. Garner, and J. Browning, “Simulation Analysis of Noise Generation in a Re-Entrant Crossed-Field Amplifier,” 2024 IEEE International Vacuum Electronics Conference, Monterrey, CA, 23 April 2024, https://doi.org/10.1109/IVECIVESC60838.2024.10694825 \
24. J. Marquardt, A. Garne, J. Prager, L. Lucas, and S. Chatzidakis, “Machine Learning-Accelerated Exploration in Medicinal Pulsed Plasma using Bayesian Optimization,” 2023 IEEE Pulsed Power Conference, https://doi.org/10.1109/PPC47928.2023.10311006
23. N. R. Sree HarshaG and A. L. Garner, “Analytical Solution for Space Charge Limited Current Emission from a Sharp Tip Using Variational Methods,” IEEE International Vacuum Electronics Conference, P8.22, 22 October 2020, pp. 395-396.
22. X. ZhuG, A. J. FairbanksG, T. D. CrawfordG, and A. L. Garner, “Predicting Effective Dielectric Properties of Composites for Nonlinear Transmission Lines Using Effective Medium Theories and CST Microwave Studios,” IEEE International Vacuum Electronics Conference, P5.2, 22 October 2020, pp. 305-306.
21. T. D. CrawfordG, A. J. FairbanksG, X. ZhuG, J. A. HernandezG, T. N. Tallman, and A. L. Garner, “Development of Composites for Nonlinear Transmission Lines,” IEEE International Vacuum Electronics Conference, P5.1, 22 October 2020, PP. 303-304.
20. A. M. LovelessP, A. M. DarrG, and A. L. Garner, “Transitions in Electron Emission and Gas Breakdown from Nanoscale to Microscale,” IEEE Vacuum Electronics Conference, 20 October 2020, pp. 63-64.
19. A. M. LovelessG, A. M. DarrG, R. S. Brayfield IIG, J. R. MalayterU, S. A. LangG, and A. L. Garner, “Nanoscale Feature Implications on Electron Emission and Gas Breakdown,” Trans. Am. Nucl. Soc. 121, 399-401 (2019).
18. T. Parupudi, A. L. Garner, and R. Sundararajan, “Electrical Impedance Measurement as Biomarker for Brain Tumors,” Proc. 2018 Electrostatics Joint Conference, Oral G5, 19 June 2018, Boston, MA (2018).
17. A. M. Loveless and A. L. Garner, "AC Gas Breakdown Scaling Laws," 2017 Annual Report Conference on Electrical Insulation and Dielectric Phenomena, pp. 807-809 (2017).
16. L. Mittal, V. Raman, I. G. Camarillo, A. L. Garner, A. J. Fairbanks, G. A. Dunn, and R. Sundararajan, "Synergy of Micro and Nanosecond Electrical Pulses with Chemotherapeutics on Human Cancer Cell Viability," 2017 Annual Report Conference on Electrical Insulation and Dielectric Phenomena, pp. 596-599 (2017).
15. J. Castle, R. Smith, B. Davis, S. Klopman, A. Torres, V. S. Robinson, V. B. Neculaes, and A. L. Garner, “Pilot Study Assessing the Impact of Platelet Activation Electric Stimulation Protocols on Hematopoietic and Mesenchymal Stem Cell Proliferation,” in Proc. 2016 IEEE International Power Modulator and High Voltage Conference (IPMHVC), pp. 88-90 (2016).
14. A. M. Loveless and A. L. Garner, “Predicting breakdown voltage for microscale and nanoscale gaps as a function of pressure,” Proc. 2016 Electrostatics Joint Conference, Oral R1, 16 June 2016, West Lafayette, IN.
13. A. M. Loveless and A. L. Garner, “Calculating Field Enhancement Factor using the Boundary Element Method,” Proc. 2016 Electrostatics Joint Conference, Poster G3, 14 June 2016, West Lafayette, IN.
12. A. L. Garner, J. J. Maciejewski, A. Vadlamani, and R. J. Byer, “Electric Pulse Shape Impact on Biological Effects: A Modeling Study,” in 2015 Annual Report Conference on Electrical Insulation and Dielectric Phenomena, pp. 632-635 (2015).
11. A. J. Fairbanks, A. Vadlamani, T. Whitmer, and A. L. Garner, “Nanosecond Electric Pulse Induced Changes in Cell Suspension Conductivity,” in 2015 Annual Report Conference on Electrical Insulation and Dielectric Phenomena, pp. 628-631 (2015).
10. V. Raman, I. Camarillo, A. Garner, P. Diwakar, S. Madhivanan, M. Raakesh, and R. Sundararajan, “Irreversible Electroporation of Aggressive Triple-Negative Breast Cancer Cells,” in 2015 Annual Report Conference on Electrical Insulation and Dielectric Phenomena, pp. 624-627 (2015).
9. T. Whitmer, A. Vadlamani, P. Bardos, and A. L. Garner, “Modification of Cell Population Dynamics by Pulsed Electric Fields,” in Proc. 2014 IEEE International Power Modulator and High Voltage Conference (IPMHVC), pp. 408-410 (2014).
8. S. Sommakia, S. Wyatt, K. Otto, A. Vadlamani, and A. L. Garner, “Nanosecond Pulsed Electric Field Interactions with Microglia and Astrocytes,” in Proc. 2014 IEEE International Power Modulator and High Voltage Conference (IPMHVC), pp. 405-407 (2014).
7. A. Vadlamani, J. Zhuang, J. F. Kolb, and A. L. Garner, “Measuring Dielectric Properties of Biological Cells as a Function of Temperature,” in Proc. 2014 IEEE International Power Modulator and High Voltage Conference (IPMHVC), pp. 402-404 (2014).
6. A. J. Fairbanks, A. Vadlamani, T. Whitmer, and A. L. Garner, “Real Time Measurements of Cell Suspension Conductivity Changes Due to Pulsed Electric Fields,” in Proc. 2014 IEEE International Power Modulator and High Voltage Conference (IPMHVC), pp. 399-401 (2014).
5. A. Caiafa, V. B. Neculaes, A. L. Garner, Y. Jiang, S. Klopman, A. Torres, and N. LaPlante, “Compact Solid State Pulsed Power Architecture for Biomedical Workflows; Modular Topology, Programmable Pulse Output and Experimental Validation on Ex Vivo Platelet Activation,” in Proc. 2014 IEEE International Power Modulator and High Voltage Conference (IPMHVC), pp. 35-40 (2014).
4. [INVITED] A. L. Garner, M. Deminsky, V. B. Neculaes, and B. Potapkin, "AC Field Induced Cell Membrane Temperature Gradients,” Optical Interactions with Tissue and Cells XXV; and Terahertz for Biomedical Applications, ed. E. D. Jansen, R. J. Thomas, G. J. Wilmink, B. L. Ibey, Proc. SPIE, Vol. 8941, 89411Q-1 (2014).
3. G. Chen, N. Chen, A. L. Garner, J. Kolb, R. J. Swanson, S. Beebe, R. P. Joshi, K. H. Schoenbach, “Conductivity in Jurkat Cell Suspension after Ultrashort Electric Pulsing,” Proceedings of the 3rd International Workshop on Biological Effect of EMFs, Kos, Greece, 1, 56-65 (2004).
2. A. L. Garner, J. Yang, N. Chen, J. Kolb, K. C. Loftin, R. J. Swanson, S. Beebe, R. P. Joshi, K. H. Schoenbach, "Effects of electrical pulses on the dielectric properties of biological cells," 2003 Annual Report Conference on Electrical Insulation and Dielectric Phenomena, 52-55 (2003).
1. K. H. Schoenbach, J. Cooper, A. Garner, B. Goan, R. P. Joshi, J. Kolb, S. Katsuki, S. Kono, M. Laroussi, F. Leipold, X. Lu, C. Mallot, J. Quian, S. Xiao, "Electrical breakdown of submillimeter water gaps," BEAMS 2002: 14th International Conference on High-Power Particle Beams," 650, 111-114 (2002).
Books and Book Chapters
1. A. L. Garner, A. M. LovelessPD, A. M. DarrG, and H. WangG, “Gas Discharge and Electron Emission for Microscale and Smaller Gaps,” in Pulsed Discharge Plasmas: Characteristics and Applications, edited by T. Shao and C. Zhang, (Springer, Singapore Pte Ltd., 2023), Chap. 3, pp. 75-95.
Invited Seminars and Colloquia
93. A. L. Garner, "Extending Electron Emission Models Beyond Planar, Single Mechanism Devices," Department of Nuclear Engineering and Radiological Sciences, University of Michigan, Ann Arbor, MI, 09 October 2026.
92. A. L. Garner, “Mathematical Models and Applications of Intense Electromagnetic Radiation,” School of Health Sciences Seminar, Purdue University, West Lafayette, IN, 21 September 2026.
91. A. L. Garner, "Theoretical Techniques to Extend Electron Emission and Gas Breakdown Theories to More Realistic Geometries," Physics and Theoretical Divisions Colloquium, Los Alamos National Laboratory, Los Alamos, NM, 18 June 2026.
90. A. L. Garner, “Extending Electron Emission Equations to More Realistic Conditions,” Sandia National Laboratories, Albuquerque, NM, 17 June 2026.
89. A. L. Garner, “Generalizing Electron Emission Theories Using Electric Potential,” Air Force Research Laboratory, Space Warfare Directorate, Albuquerque, NM, 16 June 2026.
88. A. L. Garner, “Theoretical Analyses of Electron Emission Physics in Crossed Field Geometries,” Air Force Research Laboratory, High Power Electromagnetics Division, Albuquerque, NM, 15 June 2026.
87. A. L. Garner, “Biological Cell Response to Electric fields: Models and Applications,” PANTHER online symposium, 06 April 2026.
86. A. L. Garner, “Extending Electron Emission Theories to More Realistic Conditions,” Distinguished Lecture, Naval Surface Warfare Center Crane Division, Crane, IN 02 March 2026.
85. A. L. Garner, “Electrical Manipulation of Biological Cells: Models and Applications,” Department of Biomedical Engineering, University of Wisconsin, Madison, WI, 15 September 2025.
84. A. L. Garner, “Extending Electron Emission Theories to More Realistic Conditions,” Air Force Institute of Technology, Wright-Patterson AFB, OH, 17 July 2025.
83. A. L. Garner, “Generalizing Space-Charge Limited Current Theories for Geometry and Collisions,” Naval Research Laboratory, Washington, DC, 23 June 2025.
82. A. L. Garner, “Extending Electron Emission and Gas Breakdown Theories toward Devices,” Elve Speed, Inc., Davis, CA, 13 June 2025.
81. A. L. Garner, “Mathematical Techniques for Assessing Electron Emission and Gas Breakdown,” Applied Materials, Santa Clara, CA, 12 June 2025.
80. A. L. Garner, “Reenvisioning space-charge limited current and electron emission,” School of Nuclear Engineering, Purdue University, West Lafayette, IN, 26 March 2025.
79. A. L. Garner, “Theoretical Techniques for Extending Electron Emission Theories to More Realistic Geometries,” BR&T/IVS/Structures Technology, Boeing, Tukwila, WA, 10 January 2025.
78. A. L. Garner, “Theoretical Techniques for Extending Electron Emission Theories to More Realistic Geometries,” Avalanche Energy Designs, Tukwila, WA, 09 January 2025.
77. A. L. Garner, “Generalizing Higher Order Differential Equations for Geometry: Applications to Electron Emission,” Pacific Northwest National Laboratory, Richland, WA, 7 January 2025.
76. A. L. Garner, “New Perspectives on Electron Emission Physics,” Department of Nuclear, Plasma, and Radiological Engineering, University of Illinois, Urbana, IL, 22 October 2024.
75. A. L. Garner, “Linking Electron Emission and Gas Breakdown Across Length and Pressure Scales,” Argonne National Laboratory, Lemont, IL, 23 February 2024.
74. A. L. Garner, “Experiments and Theories Linking Electron Emission to Avalanche Formation,” Los Alamos National Laboratory, Los Alamos, NM, 19 December 2023.
73. A. L. Garner, “Interactions and Applications of Electric Waveforms with Cells and Tissues,” Naval Surface Warfare Center Dahlgren Division, Dahlgren, VA, 12 December 2023.
72. A. L. Garner, “Electroporation: Fundamental Biophysics to Medical Applications,” Frank Reidy Research Center for Bioelectrics, Old Dominion University, Norfolk, VA, 14 November 2023.
71. A. L. Garner, “Nonionizing Radiation: Biophysical Mechanisms and Applications,” School of Health Sciences Seminar, Purdue University, West Lafayette, IN, 31 October 2023.
70. A. L. Garner, “Theoretical Analyses of Electron Physics in Crossed-Field Geometries,” Avalanche Energy Designs, Tukwila, WA, 07 September 2023.
69. A. L. Garner, “Incorporating Geometry, Multiple Dimensions, and Collisions into the Child-Langmuir Law,” Air Force Research Laboratory, Albuquerque, NM, 30 August 2023.
68. A. L. Garner, “Extending Crossed-Field Device Physics to Collisional and Nonplanar Conditions,” Sandia National Laboratories, Albuquerque, NM, 29 August 2023.
67. A. L. Garner, “Electron Emission Theories for More Realistic Geometries and Conditions,” Center for Applied Optics, University of Alabama at Huntsville, Huntsville, AL, 01 August 2023.
66. A. L. Garner, “Transitions between breakdown and electron emission from DC to AC,” Naval Surface Warfare Center Dahlgren Division, Dahlgren, VA, 27 July 2023.
65. A. L. Garner, “Vacuum and Collisional Crossed-Field Device Physics,” Naval Research Laboratory, Washington, DC, 26 July 2023.
64. A. L. Garner, R. Sundararajan, and I. Camarillo, “Electroporation: Fundamental Biophysics to Medical Applications,” Abbott, Delivered Virtually, 23 February 2023.
63. A. L. Garner, “Space-charge limited current: Extending beyond the Child-Langmuir law,” Lawrence Livermore National Laboratory, Livermore, CA, 12 December 2022.
62. A. L. Garner, “Electromagnetic field exposure: Modeling and application,” Lawrence Livermore National Laboratory, Livermore, CA, 12 December 2022.
61. A. L. Garner, “Transitions Between Gas Breakdown and Electron Emission Mechanisms at Nanoscale,” Department of Nuclear, Plasma, and Radiological Engineering, University of Illinois, Urbana, IL, 05 April 2022.
60. A. L. Garner, “Extending Space-Charge Limited Current Theories to Nonplanar and Multidimensional Geometries,” Science, Mathematics and Technology Online Research Seminar, Singapore University of Technology and Design (SUTD), Singapore, 24 February 2022.
59. A. L. Garner, “Cellular Manipulation Using Intense Electromagnetic Radiation: From Fundamental Biophysics to Practical Application,” Department of Cell Systems & Anatomy, UT Health San Antonio, San Antonio, TX 26 October 2021 (Delivered virtually due to COVID-19).
58. A. L. Garner, “Gas Breakdown and Electron Emission at Nanoscale,” Joint Webinar Series by Purdue University, USA and VIT, Vellore India, 23 September 2021 (Delivered virtually due to COVID-19).
57. A. L. Garner, “Directed Energy: From Source to Molecular Interactions,” School of Nuclear Engineering, Purdue University, West Lafayette, IN 10 March 2021 (Delivered virtually due to COVID-19).
56. A. L. Garner, “Intense Electromagnetic Field Interactions with Biological Cells,” Army Research Laboratory, Aberdeen, MD, 20 October 2020. (Delivered virtually due to COVID-19).
55. A. L. Garner, “Modified Paschen's law for Microscale and Nanoscale Gaps,” Michigan Institute of Plasma Science and Engineering, Ann Arbor, MI, 13 October 2020. (Delivered virtually due to COVID-19).
54. A. L. Garner, “Re-envisioning Electron Emission Physics,” Sandia National Laboratories, Albuquerque, NM, 17 August 2020 (Delivered virtually due to COVID-19).
53. A. L. Garner, “Electric pulses: Fundamental Biophysics and Emerging Biomedical Applications,” Department of Chemistry, SRM Institute of Science and Technology, Kattankulathur, Kanceepuram 603203, Tamil Nadu, India, 16 July 2020 (Delivered virtually due to COVID-19).
52. A. L. Garner, “Electromagnetic Manipulation of Biological Cells,” Department of Electrical Engineering and Computer Science, University of Toledo, Toledo, OH, 10 April 2020 (Delivered virtually due to COVID-19).
51. A. L. Garner, “Unified Electron Emission Theory and Experimental Validation,” Oak Ridge National Laboratory, Oak Ridge, TN, 03 March 2020.
50. A. L. Garner, “Unified Electron Emission Theory and Experimental Validation,” Department of Electrical and Computer Engineering, University of New Mexico, Albuquerque, NM, 06 December 2019.
49. A. L. Garner, “Theoretical and Experimental Unification of Electron Emission Mechanisms,” Department of Electrical and Computer Engineering, Boise State University, Boise, ID, 04 December 2019.
48. A. L. Garner, “Electron Emission and Gas Breakdown from Quantum to Classical Lengths,” Plasma Seminar Series, University of Washington, Seattle, WA, 02 December 2019.
47. A. L. Garner, “Biological Manipulation with Intense Electromagnetic Radiation,” Department of Biomedical Engineering and Mechanics,” Virginia Tech University, Blacksburg, VA, 29 October 2019.
46. A. L. Garner, “Intense Electromagnetic Manipulation of Biological Cells and Systems,” Weldon School of Biomedical Engineering, Purdue University, West Lafayette, IN, 25 September 2019.
45. A. L. Garner, “Progress Toward a Universal, Unified Electron Emission Theory,” Air Force Research Laboratory, Air Force Research Laboratory, Albuquerque, NM, 11 July 2019.
44. A. L. Garner, “Unification of Electron Emission and Gas Breakdown Mechanisms: Experiment and Theory,” Sandia National Laboratories, Albuquerque, NM, 10 July 2019.
43. A. L. Garner, “Unification of Breakdown Theories across Gap and Pressure,” Army Research Laboratory, Aberdeen, MD, 12 July 2018.
42. A. L. Garner, “The Influence of Gap Size and Electrode Surface on Gas Breakdown and Electron Emission,” Naval Surface Warfare Center Dahlgren Division, Dahlgren, VA, 11 July 2018.
41. A. L. Garner, “The Influence of Gap Size and Electrode Surface on Gas Breakdown and Electron Emission,” Varex Imaging, Salt Lake City, UT, 07 June 2018.
40. A. L. Garner, “Intense Electromagnetism for Biological Manipulation,” Luna Innovations, Inc., Charlottesville, VA, 22 May 2018.
39. A. L. Garner, “Gas Breakdown and Electron Emission for Microscale and Smaller Gaps,” Naval Surface Warfare Center Crane, Crane, IN, 03 May 2018.
38. A. L. Garner, “Pulsed Power and Plasmas: Electromagnetism for Medicine and Agriculture,” Department of Electrical and Computer Engineering Seminar, Michigan State University, East Lansing, MI, 29 January 2018.
37. A. L. Garner, “Pulsed Power and Plasmas: Tools for Medicine and Agriculture,” Department of Biological Systems Engineering Seminar, Washington State University, Pullman, WA, 30 November 2017.
36. A. L. Garner, “Electromagnetic Biomedical Manipulation: Theory and Application,” Department of Electrical and Computer Engineering Seminar, University of New Mexico, Albuquerque, NM, 29 September 2017.
35. A. L. Garner, “Bioelectrics: From Fundamental Physics to Application,” Department of Electrical and Computer Engineering Seminar, Boise State University, Boise, ID, 27 September 2017.
34. A. L. Garner, “Directed Energy Technology: From Fundamental Electrophysics to Bioelectrics,” Association of the Old Crows, Windy City Chapter, Rolling Meadows, IL, 07 June 2017.
33. A. L. Garner, “Pulsed Power and Plasmas: From Fundamental Electrophysics to Bioelectrics,” Atlanta Joint Chapter of IEEE Antennas and Propagation and IEEE Microwave Theory and Techniques Societies, Smryna, GA, 09 May 2017.
32. A. L. Garner, “Bioelectrics: From Fundamental Physics to Application,” State University of New York at Buffalo, Buffalo, NY, 01 May 2017.
31. A. L. Garner, “Plasmas, Pulsed Power, and Lasers for Biology and Medicine,” Notre Dame Radiation Laboratory, University of Notre Dame, South Bend, IN, 27 March 2017.
30. A. L. Garner, “Nonionizing Radiation for Biomedical Manipulation,” School of Health Sciences, Purdue University, West Lafayette, IN, 31 January 2017.
29. A. L. Garner, “Directed Energy for Biomedical Manipulation,” Department of Engineering Physics Seminar, Air Force Institute of Technology, Wright-Patterson AFB, OH, 19 January 2017.
28. A. L. Garner, “Intense Electromagnetism for Cellular Manipulation and Cancer Treatment,” Department of Biochemistry, Department of Biochemistry and Molecular Biology, University of Nebraska Medical Center, Omaha, NE, 22 August 2016.
27. A. L. Garner, “Bioelectrics: Pulsed Power, Plasma, and Laser Induced Biological Phenomena and Applications,” Department of Electrical and Computer Engineering Seminar, Texas Tech University, Lubbock, TX, 26 February 2016.
26. A. L. Garner, “Directed Energy – Induced Biological Effects and Manipulation,” Army Research Laboratory, Aberdeen Proving Grounds, Aberdeen, MD, 23 February 2016.
25. A. L. Garner, “Intense Electromagnetism for Biology: Mechanisms and Applications,” Department of Nuclear Engineering and Radiological Sciences Colloquium, University of Michigan, Ann Arbor, MI, 15 January 2016.
24. A. L. Garner, “Biological Manipulation with Intense Electromagnetic Radiation,” School of Engineering and Science, Reykjavik University, Reykjavik, Iceland, 14 October 2015.
23. A. L. Garner, “Electromagnetism for Biological Manipulation,” Department of Electrical and Computer Engineering Graduate Seminar, University of Texas at San Antonio, San Antonio, TX, 11 September 2015.
22. A. L. Garner, “Plasmas and Pulsed Power for Combustion and Ignition,” Air Force Research Laboratory, Wright-Patterson Air Force Base, Dayton, OH, 24 June 2015.
21. A. L. Garner, “Bioelectrics: Electric Pulses, Plasmas, and Lasers for Biological Manipulation,” EP Technologies, Akron, OH, 23 June 2015.
20. A. L. Garner, “Cellular Manipulation and Control by Electromagnetism,” XSD Special Presentation, Advanced Photon Source, Argonne National Laboratory, Argonne, IL, 20 April 2015.
19. A. L. Garner, “Electromagnetic Manipulation of Biological Cells: Effects across the Electromagnetic Spectrum,” Department of Electrical and Computer Engineering Seminar, University of Missouri, Columbia, MO, 17 April 2015.
18. A. L. Garner, “Bioelectrics: Cellular Manipulation by Intense Electromagnetic Radiation,” Department of Electrical and Computer Engineering Seminar, Old Dominion University, Norfolk, VA, 10 April 2015.
17. A. L. Garner, “Biological Manipulation by Electromagnetism,” Department of Biomedical Engineering Seminar, University of Florida, Gainesville, FL, 19 March 2015.
16. A. L. Garner, “Intense Electromagnetic Radiation for Biomedical Applications,” Nuclear Engineering Division Seminar, Argonne National Laboratory, Argonne, IL, 08 January 2015.
15. A. L. Garner, “Electromagnetic Actuation for Biology,” Fields and Optics Seminar, School of Electrical and Computer Engineering, Purdue University, West Lafayette, IN, 02 December 2014.
14. A. L. Garner, “Biological Actuation by Intense Electromagnetic Radiation,” Clinical Systems and Signal Processing Directorate Seminar Series, GE Global Research, Niskayuna, NY, 29 July 2014.
13. A. L. Garner, “Pulsed Power and Plasmas -- New Tools for Biomedical Applications,” Diversified Technologies, Inc., Bedford, MA, 28 July 2014.
12. A. L. Garner, “Intense Electromagnetic Radiation for Biological Actuation,” Naval Surface Warfare Center, Dahlgren Division, Dahlgren, VA, 17 June 2014.
11. A. L. Garner, “Bioelectrics: Pulsed Power, Plasmas, and Lasers for Biology and Medicine,” High Energy Density Physics Seminar, Sandia National Laboratories, Albuquerque, NM, 05 June 2014.
10. A. L. Garner, “Directed Energy Biological Interactions: Effects and Applications,” Air Force Research Laboratory, Kirtland Air Force Base, Albuquerque, NM, 18 December 2013.
9. A. L. Garner, “Bioelectrics: Biomedical Applications of Pulsed Power, Plasmas, and Lasers,” Accelerator Operations and Technology Division, Los Alamos National Laboratory, Los Alamos, NM, 07 August 2013.
8. A. L. Garner, “Bioelectrics: Pulsed Electric Fields and Plasmas for Cellular Manipulation,” Radiofrequency Radiation Branch, Human Effectiveness Directorate, Fort Sam Houston, San Antonio, TX, 06 August 2013.
7. A. L. Garner and K. M. Keener, “Generating Atmospheric Cold Plasma Inside a Sealed Container,” Code 6700, Naval Research Laboratory, Washington DC, 08 March 2013.
6. A. L. Garner, “Pulsed Power and Plasmas: New Tools in Healthcare,” Department of Nuclear, Plasma, and Radiological Engineering, University of Illinois, Urbana, IL, 01 May 2012.
5. A. L. Garner, “Pulsed Power: A New Tool in Healthcare,” School of Nuclear Engineering, Purdue University, West Lafayette, IN, 18 April 2012.
4. A. L. Garner, “Electromagnetic Radiation as a Tool for Biological Manipulation,” GE Global Research Center, RF Instrumentation and Systems Laboratory, Niskayuna, NY, 18 November 2011.
3. A. L. Garner, “Bioelectrics: A Cross-Disciplinary Research Area,” Department of Nuclear Engineering, North Carolina State University, Raleigh, NC, 22 April 2010.
2. R. Gilgenbach, A. Garner, D. Jordan, H. Y. Chan, Y. Y. Lau, and M. Uhler, “Ultrawideband Electrochemotherapy Experiments & Theory at UM,” Biological Effects of ElectroMagnetics (BEEM) Workshop, University of Missouri, Columbia, MO, 20 February 2006.
1. A. L. Garner, “Biological Cell Response to Ultrashort Electrical Pulses: An Engineer’s Perspective,” GE Global Research Center, Niskayuna, NY, 15 February 2006.