Abstract:
PROBLEM TO BE SOLVED: To make directly formable an electric contact area on an n-conductive AlGaInP based or AlGaInAs based semiconductor layer. SOLUTION: A method includes: adjusting by epitaxial growth semiconductor layers having the n-conductive AlGaInP based or AlGaInAs based outer layers and an active zone that emits electromagnetic radiation; making an electric contact material having Au and at least one doping substance adhered to the outer layer; and tempering the outer layer. The doping substance used in the step of making the electric contact material adhered to the outer layer contains at least one element selected from the group consisting of Ge, Si, Sn, and Te. COPYRIGHT: (C)2004,JPO&NCIPI
Abstract:
PROBLEM TO BE SOLVED: To improve the degree of confinement of charge carrier in a radiation forming semiconductor body of InGaAlP base. SOLUTION: At least one side of confinement layers comprises In x Al y Ga 1-x-y P u N 1-u [0≤x≤1, 0≤y≤1, 0≤x+y≤1 and 0≤u z In x Al y Ga 1-x-y-z P u N 1-u [0≤x≤1, 0≤y≤1, 0 COPYRIGHT: (C)2005,JPO&NCIPI
Abstract translation:要解决的问题:提高InGaAlP基体的辐射形成半导体体中的载流子的限制程度。 解决方案:约束层的至少一侧包括:在 u> b> sub> SB> &lt;&lt; SB&gt; [0≤x≤1,0≤y≤1,0≤x+y≤1且0≤u<1],和/或B SB>在 X SB>铝ý SB> GA 1-XYZ SB> P û SB>名词 1-U SB > [0≤x≤1,0≤y≤1,0
Abstract:
The component has n- and p-doped confinement layers (14,22) and n active, photon emitting layer (18) between them. The n-doped confinement layer is doped with a first n-doping material to produce high active doping and/or a sharp doping profile and the active layer is doped with a second different doping material to improve the layer quality of the active layer.
Abstract:
The invention relates to a luminescent diode (1) comprising an active area (7) which emits electromagnetic radiation in the direction of the main radiation (15). The active area (7) in the direction of the main radiation (15) is arranged downstream from a reflection-reducing layer sequence (16). Said reflection-reducing layer sequence contains a DBR mirror which is formed from at least one pair of layers (11, 12), a reflection coating (9) which is arranged downstream from the DBR-mirror (13) in the direction of the main radiation (15) and an intermediate layer (14) which is arranged between the DBR-mirror (13) and the reflection coating (9).
Abstract:
The invention relates to a radiation-emitting semi-conductor element provided with a layered structure, comprising an n-doped confinement layer (14), a p-doped confinement layer (22), and an active layer (18) emitting photons, said layer being arranged between the n-doped confinement layer (14) and the p-doped confinement layer (22). According to the invention, the n-doped confinement layer (14) is doped with a first n-dopant (or two n-dopants which are different from each other) in order to produce a high active doping and a precise doping profile, and the active layer (18) is doped with exclusively one second n dopant, which is different form the first dopant, in order to improve the layer quality of the active layer (18).
Abstract:
Es wird ein optoelektronischer Halbleiterkörper (1) angegeben, der eine Halbleiterschichtenfolge (2) mit einem zur Erzeugung von Strahlung vorgesehenen aktiven Bereich (20), einem ersten Barrierebereich (21) und einem zweiten Barrierebereich (22) aufweist. Der aktive Bereich (20) ist zwischen dem ersten Barrierebereich (21) und dem zweiten Barrierebereich (22) angeordnet. In dem ersten Barrierebereich (21) ist zumindest eine Ladungsträgerbarriereschicht (3) angeordnet, die zugverspannt ist. Weiterhin wird ein Halbleiterchip (10) mit einem solchen Halbleiterkörper angegeben.
Abstract:
A luminescence diode ( 1 ) having an active zone ( 7 ) which emits electromagnetic radiation in a main radiating direction ( 15 ). A reflection-reducing layer sequence ( 16 ) is arranged downstream of the active zone ( 7 ) in the main radiating direction ( 15 ). The reflection-reducing layer sequence includes a DBR mirror ( 13 ), which is formed by at least one layer pair ( 11, 12 ), an antireflective layer ( 9 ) downstream of the DBR mirror ( 13 ) in the main radiating direction ( 15 ) and an intermediate layer ( 14 ) arranged between the DBR mirror ( 13 ) and the antireflective layer ( 9 ).