Abstract: A structure of semiconductor device includes a first semiconductor layer; an intermediate layer on a surface of said first semiconductor layer; a second semiconductor layer on said intermediate layer, wherein said intermediate layer and said second semiconductor layer are integrated to a set of sub-structures; and a semiconductor light emitting device on said second semiconductor layer.

Abstract: A method for manufacturing a polychromatic light emitting diode device, comprising steps of providing an epitaxial substrate and forming a multiple semiconductor layer on the epitaxial substrate, wherein the multiple semiconductor layer comprises an n-type semiconductor layer, a p-type semiconductor layer and an active layer. The active layer emits light of a first wavelength. Thereafter a first wavelength conversion layer is formed on the multiple semiconductor layer. The first wavelength conversion layer is made of semiconductor and absorbs a portion of the light of a first wavelength and emits light of a second wavelength, wherein the second wavelength is longer than the first wavelength.

Abstract: A method for fabricating flip-chip semiconductor optoelectronic devices initially flip-chip bonds a semiconductor optoelectronic chip attached to an epitaxial substrate to a packaging substrate. The epitaxial substrate is then separated using lift-off technology.

Abstract: A lateral thermal dissipation LED and a fabrication method thereof are provided. The lateral thermal dissipation LED utilizes a patterned metal layer and a lateral heat spreading layer to transfer heat out of the LED. The thermal dissipation efficiency of the LED is increased, and the lighting emitting efficiency is accordingly improved.

Abstract: A method for fabricating flip-chip semiconductor optoelectronic devices initially flip-chip bonds a semiconductor optoelectronic chip attached to an epitaxial substrate to a packaging substrate. The epitaxial substrate is then separated using lift-off technology.

Abstract: A method for manufacturing a polychromatic light emitting diode device, comprising steps of providing an epitaxial substrate and forming a multiple semiconductor layer on the epitaxial substrate, wherein the multiple semiconductor layer comprises an n-type semiconductor layer, a p-type semiconductor layer and an active layer. The active layer emits light of a first wavelength. Thereafter a first wavelength conversion layer is formed on the multiple semiconductor layer. The first wavelength conversion layer is made of semiconductor and absorbs a portion of the light of a first wavelength and emits light of a second wavelength, wherein the second wavelength is longer than the first wavelength.

Abstract: A wavelength conversion layer is formed on a surface of a light emitting device for transforming a portion of light emitted from the light emitting device into light of a different wavelength. The transformed light is mixed with the untransformed light, and thus the light emitting device can emit light having preferred CIE coordinates.

Abstract: A semiconductor device fabrication method is disclosed. A buffer layer is provided and a first semiconductor layer is formed on the buffer layer. Next, a first intermediate layer is formed on the first semiconductor layer by dopant with high concentration during an epitaxial process. A second semiconductor layer is overlaid on the first intermediate layer. A semiconductor light emitting device is grown on the second semiconductor layer. The formation of the intermediate layer and the second semiconductor layer is a set of steps.

Abstract: A structure of semiconductor device includes a first semiconductor layer; an intermediate layer on a surface of said first semiconductor layer; a second semiconductor layer on said intermediate layer, wherein said intermediate layer and said second semiconductor layer are integrated to a set of sub-structures; and a semiconductor light emitting device on said second semiconductor layer.

Abstract: A method of fabricating a photoelectric device of Group III nitride semiconductor, where the method comprises the steps of: forming a first Group III nitride semiconductor layer on a surface of a temporary substrate; patterning the first Group III nitride semiconductor layer using photolithography and etching processes; forming a second Group III nitride semiconductor layer on the patterned first Group III nitride semiconductor layer; forming a conductive layer on the second Group III nitride semiconductor layer; and releasing the temporary substrate by removing the first Group III nitride semiconductor layer to obtain a composite of the second Group III nitride semiconductor layer and the conductive layer.

Abstract: A semiconductor light-emitting device includes a substrate, a buffer layer, an n-type semiconductor layer, a conformational active layer and a p-type semiconductor layer. The n-type semiconductor layer includes a first surface and a second surface, and the first surface directly contacts the buffer layer. The second surface includes a plurality of recesses, and a conformational active layer formed on the second surface and within the plurality of recesses. Widths of upper portions of the recesses are larger than widths of lower portions of the recesses. Therefore, the stress between the n-type semiconductor layer and the conformational active layer can be released with the recesses.

Abstract: A semiconductor includes a semiconductor layer, a plurality of recesses and a blocking layer. The recesses are formed on a surface of the semiconductor layer by etching fragile locations of the semiconductor layer where dislocation occurs. The blocking layer is filled in each recess. The semiconductor further includes a re-epitaxial semiconductor layer grown from a surface of the semiconductor layer without the covering of blocking layer, and the re-epitaxial semiconductor layer laterally overgrows toward areas of the recesses for overlaying the blocking layer.

Abstract: The present invention provides a method for blocking the dislocation propagation of a semiconductor. A semiconductor layer is formed by epitaxial process on a substrate. A plurality of recesses is formed on the semiconductor layer by etching fragile locations of the semiconductor layer where dislocation occurs. Thereafter, a blocking layer is formed on each of the plurality of recesses. The aforesaid semiconductor layer undergoes epitaxial process again on the aforesaid semiconductor layer, and laterally overgrows to redirect the dislocation defects.

Abstract: A method for separating an epitaxial substrate from a semiconductor layer initially forms a patterned silicon dioxide layer between a substrate and a semiconductor layer, and then separates the substrate from the patterned silicon dioxide layer using two wet etching processes.

Abstract: A method for fabricating flip-chip semiconductor optoelectronic devices initially flip-chip bonds a semiconductor optoelectronic chip attached to an epitaxial substrate to a packaging substrate. The epitaxial substrate is then separated using lift-off technology.

Abstract: A lateral thermal dissipation LED and a fabrication method thereof are provided. The lateral thermal dissipation LED utilizes a patterned metal layer and a lateral heat spreading layer to transfer heat out of the LED. The thermal dissipation efficiency of the LED is increased, and the lighting emitting efficiency is accordingly improved.

Abstract: A semiconductor optoelectronic device with enhanced light extraction efficiency includes a major luminescent area and a secondary luminescent area, wherein the major luminescent area is surrounded by a secondary luminescent area. The secondary luminescent area not only can improve the light extraction efficiency of the major luminescent area, but per se also can luminesce. In addition, one embodiment of the present invention provides a fabricating method for forming the secondary luminescent area.

Abstract: A semiconductor optoelectronic device with enhanced light extraction efficiency includes at least one protrusion structure, which can be formed around a light-emitting region of the device. The at least one protrusion structure can include a plurality of protrusion structures in one embodiment. In addition, a fabricating method for forming a semiconductor optoelectronic device with enhanced light extraction efficiency is provided in the present invention.

Abstract: A method for bonding two materials uses radio frequency energy to swiftly induce heat in a high permeability material for heating a medium to the bonding temperature of the medium so as to bond the two materials with each other.

Abstract: The present invention provides a method for blocking the dislocation propagation of a semiconductor. A semiconductor layer is formed by epitaxial process on a substrate. A plurality of recesses is formed on the semiconductor layer by etching fragile locations of the semiconductor layer where dislocation occurs. Thereafter, a blocking layer is formed on each of the plurality of recesses. The aforesaid semiconductor layer undergoes epitaxial process again on the aforesaid semiconductor layer, and laterally overgrows to redirect the dislocation defects.