Abstract in simplified Chinese:本发明涉及一种电子发射设备,其包括复数电子发射单元间隔设置,所述电子发射单元包括依次层叠设置的一第一电极,一半导体层,一绝缘层及一第二电极,其中,所述电子发射单元还包括设置于所述半导体层与所述绝缘层之间的一电子收集层,所述电子收集层为一导电层,任意相邻的电子发射单元中的第一电极相互间隔,任意相邻的电子发射单元中的第二电极相互间隔。本发明还提供一种电子发射显示器。
Abstract in simplified Chinese:本发明涉及一种电子发射设备,其包括复数条形第一电极及复数条形第二电极交叉且间隔设置,所述复数条形第一电极相互间隔并沿一第一方向延伸,所述复数条形第二电极相互间隔并沿一第二方向延伸,位于交叉位置处的条形第一电极与条形第二电极之间设置一绝缘层,所述条形第一电极为一奈米碳管复合结构,所述奈米碳管复合结构包括一奈米碳管层及一半导体层复合层叠设置,所述半导体层设置于所述奈米碳管层与所述绝缘层之间。本发明涉及一种电子发射设备的制备方法及采用上述电子发射设备的显示器。
Abstract in simplified Chinese:一种射极(50,100)包含一电子源(60)及一阴极(14)。该阴极具有一发射表面(26)。该射极(50,100)更包含一连续的非等向性导电层(56)设在该电子源(60)与该阴极(14)的发射表面(26)之间。该非等向性导电层(56)具有非等向性的片电阻率廓线,而能于该射极(50,100)的整个发射表面(26)上提供几乎一致的电子发射。
Abstract in simplified Chinese:本发明系提供一种冷阴极型平板型显示器之相关技术,其系在构成对于薄膜型电子源数组的上部电极之供电线之上部电极供电配线的下方,形成第二层间绝缘层而能防止短路不良之情形。进而借由以第二层间绝缘膜而限制电子放出部,即能将偏于电子加速层和第一层间绝缘层的边界之缺陷予以覆盖,并能抑止因时间而产生之绝缘破坏之不良现象。
Abstract in simplified Chinese:本发明有关于特别是使用MIN型隧道二极管构造之电子线源之显示设备。主要乃,具有:在表面形成萤光体层之第2基板,及与上述第2基板互相面对,而形成电子线源之第1基板,而上述电子线源系在于第1基板上形成了叠层之第1导电膜-绝缘膜-第2导电膜构造之显示设备中,上述绝缘膜系使用具有醇性羟基之化合物等之有机溶媒,及含有由无机羰酸之酸及有机羧酸之盐所选用之至少一种溶质之非水系化成液,而将上述第1导电膜予以阳极氧化所形成之绝缘膜,此种显示设备系可改善构成MIM型二极管构造之电子线源组件之隧道绝缘层之绝缘膜之膜质而提高动作寿命也。
Abstract:
The present invention relates to a field emission electron source that emits electron beam through strong electric field emission using a semiconductor material, and its production and use, and is an improvement of the U.S. patent application No. 09/140,647 (field emission electron source array, and its production and use) of which contents are incorporated herein. The present invention provides an array of field emission electron sources and a method of preparing the array which discharges electrons from desired regions of a surface electrode of field emission electron sources. The field emission electron source 10 comprises an electrically conductive substrate of p-type silicon substrate 1; n-type regions 8 of stripes of diffusion layers on one of principal surfaces of the p-type silicon substrate, strong electric field drift layers 6 formed on the n-type regions 8 which is made of oxidized porous poly-silicon for drifting electrons injected from the n-type region 8; poly-silicon layers 3 between the strong field drift layers 6; surface electrodes 7 of the stripes of thin conductive film formed in a manner to cross over the stripes of the strong field drift layer 6 and the poly-silicon layers 3. By selecting a pair of the n-type regions 8 and the surface electrodes 7 and thereby making electron emitted from the crossing points due to combination of the surface electrode 7 to be electrically applied and the n-type region 8 to be electrically applied, electrons can be discharged from desired regions of the surface electrodes 7.