All Stories

  1. Modeling photocathode stoichiometric effects on quantum efficiency
  2. Algorithm to calculate the field and temperature dependence of average electron injection velocities from non-planar metallic cathodes
  3. Analysis of photocurrent measurements from LaB6 and CeB6 at high temperatures
  4. Model of photoemission and framework for relating quantum efficiency to stoichiometry
  5. Erratum: “Tutorial: The equations of electron emission and their evaluation” [J. Appl. Phys. 135, 111101 (2024)]
  6. Tutorial: The equations of electron emission and their evaluation
  7. A delta barrier in a well and the exact time evolution of its eigenstates
  8. Physics-Based Model for Nonuniform Thermionic Electron Emission from Polycrystalline Cathodes
  9. An exact tunneling model and its application to transmission and reflection delay times
  10. Influence of thermal contact resistance on the field emission characteristics of a carbon nanotube
  11. Erratum: “Spatial dependence of the temperature profile along a carbon nanotube during thermal-field emission” [J. Appl. Phys., 128, 025107 (2020)]
  12. Thermal-field emission from cones and wires
  13. Reevaluating the Hartman effect for field emission
  14. A new multiscale approach to rapidly determine the local emission current density of nanoscale metallic field emitters
  15. Cesium-Coated Halide Perovskites as a Photocathode Material: Modeling Insights
  16. Development and Application of Emission Models in the MICHELLE Beam Optics Simulation Code
  17. Wigner wave packets: Transmission, reflection, and tunneling
  18. Semi-analytic model of a carbon fiber thermal-field emitter
  19. Spatial dependence of the temperature profile along a carbon nanotube during thermal-field emission
  20. An extended moments model of quantum efficiency for metals and semiconductors
  21. Analytic model of electron transport through and over non-linear barriers
  22. On constructing a dielectric function for cesium lead halide perovskites
  23. A Thermal-Field-Photoemission Model and Its Application
  24. Analytic model of a compound thermal-field emitter and its performance
  25. Quantum Efficiency Enhancement of Bialkali Photocathodes by an Atomically Thin Layer on Substrates
  26. Analytic Wigner distribution function for a split potential well
  27. Demonstration of 3-D-Printed Field-Emission Cathodes
  28. A reformulated general thermal-field emission equation
  29. Thermal-field and photoemission from meso- and micro-scale features: Effects of screening and roughness on characterization and simulation
  30. Verifications of Schottky's Conjecture
  31. Investigation of the Schottky Conjecture for compound structures modeled with line charges
  32. Analytic Wigner distribution function for tunneling and trajectory models
  33. Multiscale Modeling of Field Emission Properties of Carbon-Nanotube-Based Fibers
  34. Optimizing the Field Emission Properties of Carbon-Nanotube-Based Fibers
  35. Perspectives on Designer Photocathodes for X-ray Free-Electron Lasers: Influencing Emission Properties with Heterostructures and Nanoengineered Electronic States
  36. A tutorial on electron sources
  37. Free‐Standing Bialkali Photocathodes Using Atomically Thin Substrates
  38. Combining theory and experiment to model electron emission from polycrystalline tungsten cathode surfaces
  39. Analytical models of transmission probabilities for electron sources
  40. A photoemission moments model using density functional and transfer matrix methods applied to coating layers on surfaces: Theory
  41. Introduction to the Physics of Electron Emission
  42. Modeling emission lag after photoexcitation
  43. Calculation of density of states for modeling photoemission using method of moments
  44. Density of states of Cs3Sb calculated using density-functional theory for modeling photoemission
  45. Deposition and spin polarization study of Fe4N thin films with (111) orientation
  46. Current from a nano-gap hyperbolic diode using shape-factors: Theory
  47. Field emission properties of arrays of carbon-nanotube-based fibers
  48. Nanogap diode current using shape factor methods
  49. Active bialkali photocathodes on free-standing graphene substrates
  50. Practical considerations in the modeling of field emitter arrays with line charge distributions
  51. Development of a multiscale model for the field electron emission properties of carbon-nanotube-based carbon fibers
  52. Single layer graphene protective gas barrier for copper photocathodes
  53. High efficiency, long-life photocathodes
  54. Theoretical analysis of 1D resonant tunneling behavior in ion-enhanced cold field and thermo-field emission
  55. Delayed photo-emission model for beam optics codes
  56. 2D/3D image charge for modeling field emission
  57. Field emission characteristics of a small number of carbon fiber emitters
  58. Planar graphene vacuum transistor performance potential
  59. Control of bulk and edge screening effects in two-dimensional arrays of ungated field emitters
  60. Schottky’s conjecture, field emitters, and the point charge model
  61. Edge enhancement control in linear arrays of ungated field emitters
  62. Secondary Electron Transmission Studies of the Electron Diffusion and Thermalization Processes in Thin CVD Diamond Films
  63. Modelling field emitter arrays using line charge distributions
  64. Effective field enhancement factor and the influence of emitted space charge
  65. Dependence of optimal spacing on applied field in ungated field emitter arrays
  66. Enhancing secondary yield of a diamond amplifier using a nitrogen layer
  67. Discrete space charge affected field emission: Flat and hemisphere emitters
  68. Shielding in ungated field emitter arrays
  69. Emittance, surface structure, and electron emission
  70. Heating of microprotrusions in accelerating structures
  71. Modeling the resupply, diffusion, and evaporation of cesium on the surface of controlled porosity dispenser photocathodes
  72. Sub-gap photo-enhanced secondary electron emission from single-crystal CVD diamond
  73. Thermal field emission from a log-normal distribution: Impact on space charge and emittance
  74. Emittance and emission from arrays with statistical variation
  75. Modeling the evaporation rate of cesium off tungsten based controlled porosity dispenser photocathodes
  76. Scattering and the relationship between quantum efficiency and emittance
  77. Development of a diamond transmitted secondary electron source
  78. Publisher’s Note: “A quantum dipole–modified work function for a simplified electron emission barrier” [J. Appl. Phys. 111, 054916 (2012)]
  79. A transit time model of space charge and its comparison to experimental data
  80. Development of biased diamond current amplifier
  81. Diamond bonding and metallization for electron transmission cathodes
  82. Electrostatic time-domain PIC simulations of RF density-modulated electron sources with MICHELLE
  83. “Much ado about nothing”: Electron sources and transport in vacuum
  84. Scattering and the prediction of Quantum Efficiency and response time characteristics
  85. Space charge and quantum effects on electron emission
  86. A quantum dipole–modified work function for a simplified electron emission barrier
  87. Modeling the quantum efficiency of controlled porosity dispenser photocathodes
  88. Enhanced lifetime hybrid-diffuser cesium reservoir photocathode
  89. Perpendicular magnetic anisotropy and high spin-polarization ratio in epitaxial Fe-N thin films
  90. Design and use of controlled porosity reservoir cathodes
  91. Multiple scattering effects on quantum efficiency and response time for cesiated metal photocathodes
  92. Secondary electron amplification using single-crystal CVD diamond film
  93. Space charge, emittance, trajectories, and the modeling of field emitter arrays
  94. Fabrication and Characterization of Single-crystal CVD Diamond Current Amplifier
  95. Characterization of electron bunches from a diamond current amplifier
  96. Bunch characteristics of an electron beam generated by a diamond secondary emitter amplifier
  97. Emittance of a photocathode: Effects of temperature and field
  98. 5.1: Space charge, emittance, trajectories and the modeling of field emitter arrays
  99. 11.3: Emittance, space charge, and sharp electron sources
  100. 11.5: Electron transport and emission from thin film semiconductors
  101. 11.6: Emission characterization of diamond current amplifier
  102. 19.1: Status of the MICHELLE code and applications
  103. 19.2: Modeling emission processes in the finite-element MICHELLE gun & collector simulation code
  104. 6.4: Photoemission images of cesium coated p- and n-type GaN
  105. 6.5: Electron emission from alkali-coated metal photocathodes
  106. Erratum: “Space-charge effects in field emission: Three-dimensional theory” [J. Appl. Phys. 107, 014905 (2010)]
  107. Field, Current and Heat Propagation inside Microprotrusions in High Gradient Structures
  108. Emittance of a field emission electron source
  109. Space charge effects in field emission: One dimensional theory
  110. Space charge effects in field emission: Three dimensional theory
  111. MMW to upper-MMW vacuum electronics research at NRL
  112. Photoemission Theory and the Development of High Performance Photocathodes
  113. The Quantum Mechanical Extension of the Drude Zener Theory and the Optical Constants of an Alpha Semiconductor
  114. An analytical model of the emittance of a field emission array cathode for high performance free electron lasers
  115. Development of a transmission-mode diamond secondary electron source
  116. Applications and status of the finite-element MICHELLE gun & collector simulation code
  117. Applications and current status of the finite-element MICHELLE gun & collector simulation code
  118. Diamond current amplifier for spatially-distributed beam generation
  119. Towards a Robust, Efficient Dispenser Photocathode: the Effect of Recesiation on Quantum Efficiency
  120. Electron emission contributions to dark current and its relation to microscopic field enhancement and heating in accelerator structures
  121. Theory of photoemission from cesium antimonide using an alpha-semiconductor model
  122. Application of a general electron emission equation to surface nonuniformity and current density variation
  123. Factors affecting performance of dispenser photocathodes
  124. Photoemission from metals and cesiated surfaces
  125. General formulation of thermal, field, and photoinduced electron emission
  126. A theoretical photocathode emittance model including temperature and field effects
  127. Prototype dispenser photocathode: Demonstration and comparison to theory
  128. Application of a general electron emission equation to surface non-uniformity and current density variation
  129. Development of a general thermal-field-photoemission model and its relation to current density, emittance, and beam brightness
  130. Electron Emission Physics
  131. Fabrication and measurement of efficient, robust cesiated dispenser photocathodes
  132. Foreword
  133. Electron Emission Physics
  134. Theoretical model of the intrinsic emittance of a photocathode
  135. A photoemission model for low work function coated metal surfaces and its experimental validation
  136. Emission nonuniformity due to profilimetry variation in thermionic cathodes
  137. General thermal-field emission equation
  138. Field-enhanced photoemission from metals and coated materials
  139. Shot noise power spectrum of planar field emitters
  140. Time dependent models of field-assisted photoemission
  141. The quantum efficiency of dispenser photocathodes: Comparison of theory to experiment
  142. Influence of image force potential on the shot noise properties of field emitters
  143. Infrared photoelectron emission from Scandate dispenser cathodes
  144. Measurement and analysis of thermal photoemission from a dispenser cathode
  145. Advanced photocathode simulation and theory
  146. On the application of quantum transport theory to electron sources
  147. Electron emission theory and its application: Fowler–Nordheim equation and beyond
  148. Emission statistics and the characterization of array current
  149. Generalized electron emission model for field, thermal, and photoemission
  150. An analytical solution for microtip field emission current and effective emission area
  151. New results in the theory of Fowler–Nordheim plots and the modelling of hemi-ellipsoidal emitters
  152. Photon assisted field emission from a silicon emitter
  153. Equivalent circuit parameters of resonant tunneling diodes extracted from self-consistent Wigner-Poisson simulation
  154. New route to electron emission
  155. Analysis of a photon assisted field emission device
  156. A comparison of flicker noise and shot noise on a hot cathode
  157. Migration and escape of barium atoms in a thermionic cathode
  158. Emitter quantization and double hysteresis in resonant-tunneling structures: A nonlinear model of charge oscillation and current bistability
  159. ORIGIN OF HYSTERESIS AND PLATEAU-LIKE BEHAVIOR OF THE I-V CHARACTERISTICS OF RESONANT TUNNELING DIODES
  160. Simulation of resonant tunneling structures: Origin of the I–V hysteresis and plateau-like structure
  161. Erratum: “Exchange-correlation, dipole, and image charge potentials for electron sources: Temperature and field variation of the barrier height” [J. Appl. Phys. 85, 2667 (1999)]
  162. Quantum entangled supercorrelated states in the Jaynes–Cummings model
  163. Field emitter arrays for plasma and microwave source applications
  164. Exchange-correlation, dipole, and image charge potentials for electron sources: Temperature and field variation of the barrier height
  165. Semianalytical model of electron source potential barriers
  166. Analysis of Measured I(V) Relations for Electron Emission from Insulating Diamond Films on Various SI Substrates
  167. Advanced emitters for next generation rf amplifiers
  168. An analytical model of an emission-gated Twystrode using a field emitter array
  169. Field emitter array development for high frequency applications
  170. Theoretical Analysis of Fowler Nordheim Parameterization and RLC Characteristics for Ring Cathode Field Emitter Arrays for Next Generation RF Amplifiers
  171. Space charge effects on the current-voltage characteristics of gated field emitter arrays
  172. Electron emission from a single spindt-type field emitter: Comparison of theory with experiment
  173. Effects of space charge on the current-voltage characteristics of field emitter arrays
  174. Design and construction of apparatus for characterization of gated field emitter array electron emission
  175. Operation and optimization of gated field emission arrays in inductive output amplifiers
  176. Electron emission from a single Spindt‐type field emitter structure: Correlation of theory and experiment
  177. A, B, and C characterization of gated field emission arrays for radio frequency device performance
  178. Analytical and seminumerical models for gated field emitter arrays. I. Theory
  179. Analytical and seminumerical models for gated field emitter arrays. II. Comparison of theory to experiment
  180. Analytical expressions for emission characteristics as a function of experimental parameters in sharp field emitter devices [J. Vac. Sci. Technol. B 13, 511 (1995)]
  181. Optimization of field emission arrays for inductive output amplifiers
  182. Graded electron affinity electron source
  183. Analytic expressions for emission in sharp field emitter diodes
  184. Analytic expressions for emission characteristics as a function of experimental parameters in sharp field emitter devices
  185. Improved Fowler–Nordheim equation for field emission from semiconductors
  186. Simulation of time-dependent quantum transport in field emission from semiconductors: Complications due to scattering, surface density, and temperature
  187. Field emission from an elliptical boss: Exact and approximate forms for area factors and currents
  188. Time dependent, self-consistent simulations of field emission from silicon using the Wigner distribution function
  189. Field emission from an elliptical boss: Exact versus approximate treatments
  190. Numerical simulation of field emission and tunneling: A comparison of the Wigner function and transmission coefficient approaches
  191. SIMULATION OF FIELD EMISSION FROM SILICON: SELF‐CONSISTENT CORRECTIONS USING THE WIGNER DISTRIBUTION FUNCTION
  192. Numerical simulation of field emission from silicon
  193. A COMPARISON OF THE TRANSMISSION COEFFICIENT AND THE WIGNER FUNCTION APPROACHES TO FIELD EMISSION
  194. INTRINSIC HIGH‐FREQUENCY OSCILLATIONS AND EQUIVALENT CIRCUIT MODEL IN THE NEGATIVE DIFFERENTIAL RESISTANCE REGION OF RESONANT TUNNELING DEVICES
  195. QUANTUM TRANSPORT: NOVEL APPROACHES IN THE FORMULATION AND APPLICATIONS TO QUANTUM‐BASED SOLID‐STATE DEVICES
  196. Numerical simulation of intrinsic bistability and high-frequency current oscillations in resonant tunneling structures
  197. The methodology of simulating particle trajectories through tunneling structures using a Wigner distribution approach
  198. Lattice Weyl-Wigner formulation of exact many-body quantum-transport theory and applications to novel solid-state quantum-based devices
  199. The effects of scattering on current‐voltage characteristics, transient response, and particle trajectories in the numerical simulation of resonant tunneling diodes
  200. Numerical aspects on the simulation ofI‐Vcharacteristics and switching times of resonant tunneling diodes
  201. Numerical calculation of particle trajectories and tunneling times for resonant tunneling barrier structures
  202. Numerical simulation of transient response and resonant‐tunneling characteristics of double‐barrier semiconductor structures as a function of experimental parameters
  203. A General Thermal-Field Emission Equation
  204. A Study of Macroscopic Emission Non-Uniformity in Thermionic Cathodes Due to Profilimetry Variation
  205. Experimental Validation of a Photoemission Model for End-to-End Beam Simulations and Custom Photocathode Designs
  206. Photoelectron Emission and Secondary Electron Emission Characteristics of Cesiated p-type GaN
  207. Development of Advanced Models for 3D Photocathode PIC Simulations
  208. Fabrication and Measurement of Low Workfunction Cesiated Dispenser Photocathodes
  209. Field-enhanced photoemission from metals and coated materials
  210. Time-dependent models of field-assisted photoemission
  211. Influence of image force potential on the shot noise properties of field emitters
  212. Development of dispenser photocathodes for RF photoinjectors
  213. Emission statistics and the characterization of array current