摘要:
A nitrogen-group III compound semiconductor satisfying the formula Al.sub.x Ga.sub.y In.sub.1-x-y N, inclusive of x=0, y=0 and x=y=0, and a method for producing the same comprising the steps of forming a zinc oxide (ZnO) intermediate layer on a sapphire substrate, forming a nitrogen-group III semiconductor layer satisfying the formula Al.sub.x Ga.sub.y In.sub.1-x-y N, inclusive of x=0, y=0 and x=y=0 on the intermediate ZnO layer, and separating the intermediate ZnO layer by wet etching with an etching liquid only for the ZnO layer.
摘要翻译:满足式Al x Ga y In 1-x-y N,包括x = 0,y = 0和x = y = 0的氮 - 基III族化合物半导体及其制造方法包括以下步骤:形成氧化锌(ZnO) 在中间ZnO层上形成满足式Al x Ga y In 1-x-y N的氮基III半导体层,包括x = 0,y = 0和x = y = 0,并分离中间体ZnO 通过仅用于ZnO层的蚀刻液进行湿法蚀刻。
摘要:
A process for producing a semiconductor emitting device of group III nitride semiconductor having a crystal layer (Al.sub.x Ga.sub.1-x).sub.1-y In.sub.y N (0.ltoreq.x.ltoreq.1, 0.ltoreq.y.ltoreq.1) includes; a step of forming at least one pn-junction or pin-junction and a crystal layer (Al.sub.x Ga.sub.1-x).sub.1-y In.sub.y N (0.ltoreq.x.ltoreq.1, 0.ltoreq.y.ltoreq.1) to which a group II element is added; and a step of forming electrodes on the crystal layer. The process further includes an electric-field-assisted annealing treatment in which the pn-junction or pin-junction is heated to the predetermined temperature range while forming and maintaining an electric field across the pn-junction or pin-junction for at least partial time period of the predetermined temperature range via the electrodes.
摘要翻译:一种用于制造半导体具有晶体层(的AlxGa1-x)的1-yInyN(0 = X = 1,0 = Y = 1)包括发光III族氮化物半导体的器件的方法; 形成至少一个pn结或pin结和一个液晶层(的AlxGa1-X)的步骤1-yInyN(0 = X = 1,0 = Y = 1)到其上 添加第二组元素; 以及在所述晶体层上形成电极的步骤。 该过程还包括电场辅助退火处理,其中,同时形成和跨越pn结或pin结保持的电场至少部分时间的pn结或pin结被加热到预定的温度范围 经由电极的预定温度范围的周期。
摘要:
A method for forming a resonator in a semiconductor laser device comprises the steps of; filling with a resin a gap surrounding the side surfaces of the waveguide for a resonator other than the end-surface to be polished; polishing the end-surface and the resin surrounding it; forming a predetermined optical coating on the polished end-surface and the resin in the state of the laser waveguide and the electrode being embedded; and removing the embedding resin. Both the bending of polished end-surfaces and the entering of the thin film into the side surface of the laser waveguide is prevented so that a high smooth end-surface of mirror coating for resonator is achieved. Furthermore, any crystals are used for a substrate carrying a semiconductor laser structure with a resonator even if that crystal is of non-cleavage, according to that method.
摘要:
There are disclosed two types of gallium nitride LED having the pn junction. An LED of gallium nitride compound semiconductor (Al.sub.x Ga.sub.1-x N, where 0.ltoreq.x
摘要翻译:公开了具有pn结的两种类型的氮化镓LED。 氮化镓化合物半导体(Al x Ga 1-x N,其中0 <= x <1)的LED包括n层; 在掺杂p型杂质和照射电子线时显示p型导电的p层,p层与n层的接合; 用于n层的第一电极,以连接到n层,穿过形成在从p层延伸到n层的p层中的孔; 以及p层的第二电极,其形成在由p层中形成的沟槽分隔开的区域中,以便从p层的上表面延伸到所述n层。 LED包括n层; 掺有p型杂质的i层,i层与n层结合; 用于所述n层的第一电极,以连接到n层,穿过形成在从i层的上表面延伸到n层的i层中的孔; 在i层的特定区域中的p型部分,其通过用电子射线转换成p型导电,所述p型部分被形成为使得所述第一电极被所述i层绝缘和分离; 和用于所述p型部件的第二电极。
摘要:
An electroluminescent semiconductor device comprising bodies of conductive and resistive crystalline gallium nitride (GaN) which are successively epitaxially deposited on a surface of a heat-treated sapphire substrate, and a body of insulative crystalline gallium nitride epitaxially deposited on the resistive body.
摘要:
An electroluminescent element comprising an n-type GaAs substrate, a GaAsP grading layer and an n-type GaAsP constant layer both of which are grown on the substrate epitaxially in this order, and an In.sub.x Ga.sub.1-x As.sub.y P.sub.1-y layer formed on top of the constant layer where 0.002.ltoreq.x.ltoreq.0.08 and 0.2.ltoreq.y.ltoreq.0.4.
摘要翻译:一种电致发光元件,包括在基板上以该顺序外延生长的n型GaAs衬底,GaAsP分级层和n型GaAsP恒定层,以及形成在恒定的顶部上的In x Ga 1-x As y P 1-y层 其中0.002≤x≤0.08且0.2≤y≤0.4。
摘要:
A light emitting diode is provided which can obtain emission at the shorter wavelength side of the emission range of normal 6H-type SiC doped with B and N. A porous layer 124 consisting of single crystal 6H-type SiC of porous state is formed on a SiC substrate 102 of a light emitting diode element 100. Visible light is created from blue color to green color when the porous layer 124 is excited by ultra violet light emitted from the nitride semiconductor layer.
摘要:
A structure includes a substrate, a template layer formed on the surface of the substrate and including an AlN layer, and a device structure portion formed by stacking AlGaN semiconductor layers on the template layer. For the structure, the AlN layer is irradiated from a side close to the substrate with a laser light with a wavelength by which the laser light passes through the substrate and the laser light is absorbed by the AlN layer, in a state in which the AlN layer receives compressive stress from the substrate. This allows the AlN layer to expand more than the surface of the substrate on at least an interface between the AlN layer and the substrate so as to increase the compressive stress, in order to remove the substrate from the AlN layer.
摘要:
[PROBLEM] To provide a light emitting diode which can obtain emission at shorter wavelength side of emission range of normal 6H-type SiC doped with B and N, and a method for manufacturing the same.[MEANS FOR SOLVING] Porous layer 124 consisting of single crystal 6H-type SiC of porous state is formed on a SiC substrate 102 of a light emitting diode element 100 such that visible light which is from blue color to green color when the porous layer 124 is excited by ultra violet light emitted from nitride semiconductor layer.
摘要:
The present invention discloses a light-emitting semiconductor device, includes: a first electrode that is made of a high reflective metal; a second electrode; a tunnel junction layer coupling to the first electrode through a first ohmic contact and generating a tunnel current by applying a reverse bias voltage between the first electrode and the second electrode; a light-emitting layer provided between the tunnel junction layer and the second electrode.