摘要:
Methods of achieving high breakdown voltages in semiconductor devices by suppressing the surface flashover using high dielectric strength insulating encapsulation material are generally described. In one embodiment of the present invention, surface flashover in AlGaN/GaN heterostructure field-effect transistors (HFETs) is suppressed by using high dielectric strength insulating encapsulation material. Surface flashover in as-fabricated III-Nitride based HFETs limits the operating voltages at levels well below the breakdown voltages of GaN.
摘要:
Methods of achieving high breakdown voltages in semiconductor devices by suppressing the surface flashover using high dielectric strength insulating encapsulation material are generally described. In one embodiment of the present invention, surface flashover in AlGaN/GaN heterostructure field-effect transistors (HFETs) is suppressed by using high dielectric strength insulating encapsulation material. Surface flashover in as-fabricated III-Nitride based HFETs limits the operating voltages at levels well below the breakdown voltages of GaN.
摘要:
An ultraviolet light emitting semiconductor chip, its use in a LED, and methods of its fabrication are disclosed. The semiconductor chip can include a buffer layer of AlxGa1-xN, where 0
摘要翻译:公开了一种紫外光发射半导体芯片,其在LED中的应用及其制造方法。 该半导体芯片可以包括Al x Ga 1-x N的缓冲层,其中0
摘要:
An ultraviolet light emitting semiconductor chip, its use in a LED, and methods of its fabrication are disclosed. The semiconductor chip can include a buffer layer of AlxGa1-xN, where 0
摘要翻译:公开了一种紫外光发射半导体芯片,其在LED中的应用及其制造方法。 半导体芯片可以包括Al x Ga 1-x N的缓冲层,其中0
摘要:
Methods for forming a HEMT device are provided. The method includes forming an ultra-thin barrier layer on the plurality of thin film layers. A dielectric thin film layer is formed over a portion of the ultra-thin barrier layer to leave exposed areas of the ultra-thin barrier layer. A SAG S-D thin film layer is formed over the exposed areas of the ultra-thin barrier layer while leaving the dielectric thin film layer exposed. The dielectric thin film layer is then removed to expose the underlying ultra-thin barrier layer. The underlying ultra-thin barrier layer is treating with fluorine to form a treated area. A source and drain is added on the SAG S-D thin film layer, and a dielectric coating is deposited over the ultra-thin barrier layer treated with fluorine such that the dielectric coating is positioned between the source and the drain.
摘要:
An improved high breakdown voltage semiconductor device and method for manufacturing is provided. The device has a substrate and a AlaGa1-aN layer on the substrate wherein 0.1≦a≦1.00. A GaN layer is on the AlaGa1-aN layer. An In1-bGabN/GaN channel layer is on the GaN layer wherein 0.1≦b≦1.00. A AlcIndGa1-c-dN spacer layer is on the In1-bGabN/GaN layer wherein 0.1≦c≦1.00 and 0.0≦d≦0.99. A AleIn1-eN nested superlattice barrier layer is on the AlcIndGa1-c-dN spacer layer wherein 0.10≦e≦0.99. A AlfIngGa1-f-gN leakage suppression layer is on the AleIn1-eN barrier layer wherein 0.1≦f≦0.99 and 0.1≦g≦0.99 wherein the leakage suppression layer decreases leakage current and increases breakdown voltage during high voltage operation. A superstructure, preferably with metallic electrodes, is on the AlfIngGa1-f-gN leakage suppression layer.
摘要:
An improved high breakdown voltage semiconductor device and method for manufacturing is provided. The device has a substrate and a AlaGa1-aN layer on the substrate wherein 0.1≦a≦1.00. A GaN layer is on the AlaGa1-aN layer. An In1-bGabN/GaN channel layer is on the GaN layer wherein 0.1≦b≦1.00. A AlcIndGa1-c-dN spacer layer is on the In1-bGabN/GaN layer wherein 0.1≦c≦1.00 and 0.0≦d≦0.99. A AleIn1-eN nested superlattice barrier layer is on the AlcIndGa1-c-dN spacer layer wherein 0.10≦e≦0.99. A AlfIngGa1-f-gN leakage suppression layer is on the AleIn1-eN barrier layer wherein 0.1≦f≦0.99 and 0.1≦g≦0.99 wherein the leakage suppression layer decreases leakage current and increases breakdown voltage during high voltage operation. A superstructure, preferably with metallic electrodes, is on the AlfIngGa1-f-gN leakage suppression layer.
摘要翻译:提供了一种改进的高击穿电压半导体器件及其制造方法。 该器件在衬底上具有衬底和AlaGa1-aN层,其中0.1 @ a @ 1.00。 Ala层在AlaGa1-aN层上。 In 1-bGabN / GaN沟道层位于GaN层上,其中0.1 @ b @ 1.00。 AlcIndGa1-c-dN间隔层位于In1-bGabN / GaN层上,其中0.1 @ c @ 1.00和0.0 @ d @ 0.99。 AlInInGa1-c-dN间隔层上的AleIn1-eN嵌层超晶格势垒层,其中0.10 @ e @ 0.99。 AlInInGaGa1-f-gN泄漏抑制层位于AleIn1-eN阻挡层上,其中0.1 @ f @ 0.99和0.1 @ g @ 0.99,其中泄漏抑制层降低泄漏电流并增加高电压操作期间的击穿电压。 在AlfIngGa1-f-gN泄漏抑制层上,优选具有金属电极的上层结构。
摘要:
Ultraviolet light emitting illuminator, and method for fabricating same, comprises an array of ultraviolet light emitting diodes and a first and a second terminal. When an alternating current is applied across the first and second terminals and thus to each of the diodes, the illuminator emits ultraviolet light at a frequency corresponding to that of the alternating current. The illuminator includes a template with ultraviolet light emitting quantum wells, a first buffer layer with a first type of conductivity and a second buffer layer with a second type of conductivity, all deposited preferably over a strain-relieving layer. A first and second metal contact are applied to the semiconductor layers having the first and second type of conductivity, respectively, to complete the LED. The emission spectrum ranges from 190 nm to 369 nm. The illuminator may be configured in various materials, geometries, sizes and designs.
摘要:
An improved process for forming a UV emitting diode is described. The process includes providing a substrate. A super-lattice is formed directly on the substrate at a temperature of at least 800 to no more than 1,300° C. wherein the super-lattice comprises AlxInyGa1-x-yN wherein 0
摘要翻译:描述了用于形成UV发光二极管的改进方法。 该方法包括提供基底。 超晶格在至少800至不超过1300℃的温度下直接形成在衬底上,其中超晶格包括Al x In y Ga 1-x-y N,其中0
摘要:
A vertically conducting LED comprising, in a layered arrangement: a highly thermally conductive submount wherein the highly conductive submount has a thermal conductivity of at least 100 W/m0K; a p-type layer comprising Al1-x-yInyGax N wherein 0≦x≦1 and 0≦y≦1; a quantum well layer comprising Al1-x-yInyGaxN wherein 0≦x≦1 and 0≦y≦1; an n-type layer comprising Al1-x-yInyGaxN wherein 0≦x≦1 and 0≦y≦1; and an n-type contact layer wherein the LED has a peak emission at 200-365 nm.