Abstract:
A multi type electron emission element comprises a plurality of electrodes formed on a deposition surface of an insulating material and each having a conical portion of a single crystal, an insulating layer formed on the deposition surface and having openings respectively centered on the conical portions, and a deriving electrodes, part of which is formed near at least the conical portions, the deriving electrode being formed on the insulating layer.
Abstract:
The present invention discloses an electrode material that eases electron injection and does not react with contact substances. The structure of the material includes a conductive substrate plane on the top of which an emissive material is coated. The emissive coating bonds strongly with the substrate plane. The emissive material is of low work function and high chemical stability.
Abstract:
An electron-emitting device (10) includes an electroconductive member (3) and a lanthanum boride layer (5) disposed on the electroconductive member and further includes an oxide layer (4) between the electroconductive member and the lanthanum boride layer. The oxide layer can contain a lanthanum element. A lanthanum oxide layer (6) can be disposed on the lanthanum boride layer.
Abstract:
A nanodevice structure according to the present invention includes a substrate (10) having alignment marks (16) formed thereon, a plurality of nanomaterial layers (20) applied on the substrate, and electrodes formed to be in partial contact with the upper surface of the nanomaterial layer (20) in order to obtain easy application of the nanomaterial layer (20) and low contact resistance between the electrodes and the nanomaterial layer (20).
Abstract:
Provided are carbide derived carbon materials prepared by thermochemically reacting carbide compounds and a halogen containing gas and extracting all atoms of the carbide compounds except carbon atoms, wherein the intensity ratios of the graphite G band at 1590 cm -1 to the disordered-induced D band at 1350 cm-1 are in the range of 0.3 through 5 when the carbide derived carbon is analyzed using Raman peak analysis, wherein the BET surface area of the carbide derived carbon is 1000 m 2 /g or more, wherein a weak peak or wide single peak of the graphite (002) surface is seen at 2θ = 25° when the carbide derived carbon is analyzed using X-ray diffractometry, and wherein the electron diffraction pattern of the carbide derived carbon is the halo pattern typical of amorphous carbon when the carbide derived carbon is analyzed using electron microscopy.
Title translation:ELEKTRONENEMITTER,FELDEMISSIONSANZEIGEEINHEIT,KALTKATHODEN-FLUORESZENZSÄULE,BELEUCHTUNGSEINRICHTUNG DES FLACHTYPS UND ELEKTRONEN EMITTIERENDES MATERIAL
Abstract:
To provide an electron emitter, a field emission display unit, a cold cathode fluorescent tube and a flat type lighting device, which employ an electron emitting material producible at a low cost and in a large amount. A conductive mayenite type compound powder containing at least 50 mol% of a mayenite type compound represented by a chemical formula of either 12CaO·7Al 2 O 3 or 12SrO·7Al 2 O 3 and having a maximum particle size of at most 100 µm, is used as an electron emitter, whereby an electron emitter, a field emission display unit, a cold cathode fluorescent tube and a flat type lighting device, are realized that are easy to produce and capable of emitting electrons even at a low applied voltage and whereby a large current can be obtained per the same applied voltage surface.
Abstract translation:提供采用低成本,大量生产的电子发射材料的电子发射器,场致发射显示单元,冷阴极荧光管和平面照明装置。 含有至少50mol%的由12CaO·7Al 2 O 3或12SrO·7Al 2 O 3的化学式表示的最大粒径至多为100μm的钙铝石型化合物的导电钙铝石型化合物粉末为 用作电子发射体,由此即使在低的施加电压下也易于生成并能够发射电子的电子发射器,场致发射显示单元,冷阴极荧光管和平面照明装置, 每个相同的施加电压表面可以获得大电流。
Abstract:
An electron emission source includes a carbon-based material and a resultant material formed by curing and heat treating at least one silicon-based material represented by formula (1), (2), and/or (3) below:
where R 1 through R 22 are each independently a substituted or unsubstituted C 1 -C 20 alkyl group, a substituted or unsubstituted C 1 -C 20 alkoxy group, a substituted or unsubstituted C 1 -C 20 alkenyl group, a halogen atom, a hydroxyl group or a mercapto group, and m and n are each integers from 0 to 1,000. An electron emission device and an electron emission display device include the electron emission source. A composition for forming electron emission sources includes the carbon-based material and the silicon-based material. A method of forming the electron emission source includes applying the composition to a substrate; and heat treating the applied composition. The adhesion between the electron emission source including the cured and heat treated resultant material of the silicon-based material and a substrate is excellent, and thus the reliability of the electron emission device including the cured and heat treated resultant material of the silicon-based material can be enhanced.
Abstract translation:电子发射源包括通过固化和热处理由式(1),(2),和/或(3)表示的至少一个基于硅的材料形成的基于碳的材料和所得到的材料:其中R 1至 R 22各自独立地为substituiertem奥德unsubstituiertem C 1 -C 20烷基,substituiertem奥德unsubstituiertem C 1 -C 20烷氧基,substituiertem奥德unsubstituiertem C 1 -C 20链烯基,卤素原子,羟基基团或 巯基,并且m和n各自为整数0〜1000。 的电子发射装置和向电子发射显示装置包括电子发射源。 一种用于形成电子发射源的组合物包含碳基材料和硅系材料。 形成电子发射源的方法,包括将组合物施加到衬底; 和热处理的应用组合物。 电子发射源包括之间的粘附性的固化和热处理的硅基材料的所得材料和基材是优秀的,并且因此该电子发射装置,包括可靠性固化和热处理的硅基材料的所得材料 可以得到增强。
Abstract:
The object of the present invention is to provide a material excellent in field electron emission which can withstand the high intensity of electric field, allows the enhanced emission of electrons resulting in a high density of current, and does not degrade during long use. The solving means consists of providing a membrane body of sp 3 -bonded boron nitride excellent in field electron emission obtained by a method comprising the steps of introducing a reactive gas including a boron source and a nitrogen source into a reaction system; adjusting the temperature of a substrate in the reaction chamber to fall between room temperature to 1300ºC; radiating a UV beam onto the substrate with or without the concomitant existence of plasma; and forming via vapor-phase reaction a membrane on the substrate in which a surface texture allowing excellent field electron emission is formed in a self-organized manner.