Cell geometry designs for efficient plasma display panels

Abstract

Evaluation of improved efficiency with a diamond coating for a plasma display panel electrode J. Appl. Phys. 93, 5043 (2003); 10.1063/1.1567034 Simulation studies of the coplanar electrode and other plasma display panel cell designs J. Appl. Phys. 91, 9502 (2002); 10.1063/1.1478143 Diagnostics and modeling of a macroscopic plasma display panel cellWe investigate the performance of several nonstandard plasma display panel cell geometry designs involving two-dimensional variations of the standard coplanar-electrode design. A cell design with a modified shape of sustain electrodes is found to have ϳ20% larger visible light generation efficiency without substantial increase of the operating voltages. Similar performance improvement is achieved by designs with different shapes of the upper dielectric, or by those involving two different dielectric layers. The dependence of cell performance on the design parameters of these structures is investigated.

P-109: Three-Dimensional Simulation and ICCD Experiment in 25 inch SVGA Shadow Mask PDP

“…where k , n , v , ε are excited species emitting UV photons, density of particle k , inverse of radiation lifetime and energy of emitted photons respectively [7][8]. The energy dissipated in the (6) where e J and i J are the electron and ion current densities respectively, E is the local electric field.…”

Two-dimensional simulation of the effects of the driving waveforms on the shadow mask PDP cell discharge

“…where k, n, v and ε are excited species emitting UV photons, density of particle k, inverse of radiation lifetime and energy of emitted photons, respectively [7,8]. The energy dissipated in the discharge W D is…”

A study of the discharge characteristics and energy balance of a Ne/Xe pulsed planar dielectric barrier: simulation via the one-dimensional particle-in-cell with Monte Carlo collision method

“…Rauf and Kushner [58] show that the efficiency decreases with increasing He content; however, Lee et al [59,60] find it to decrease. For the improvement of the luminous efficiency from the structural point of view, several approaches have been tried so far [61][62][63][64][65][66][67][68][69][70][71][72][73][74][75][76][77][78]. The increase of the distance between the sustain electrodes (gap), the thickness of the dielectric that covers them or the decrease of their permittivity induces a better luminous efficiency [57,[79][80][81][82][83][84][85].…”