33results about How to "Preferable quality" patented technology

A solar cell with a superlattice structure and a fabricating method thereof are provided, which includes fabricating a superlattice structure of GaAsN / GaInAs, GaAsN / GaSbAs, or GaAsN / GaInSbAs between a base and an emitter of a middle cell of a triple junction solar cell by a strain-compensation technology. The provided solar cell not only decreases crystalline defects and increases the critical thickness of the crystal, but also makes the energy bandgap of GaAsN and GaInAs reach around the energy of 1.0 eV (electron volt). Hence, the absorption region can be raised to around the energy of 1.0 eV to enhance the efficiency of the solar cell.

A method for filling silicon nitride materials into a trench includes providing a substrate having a plurality of trenches, performing a first deposition process to form a first silicon nitride layer in the trenches, and performing a second deposition process to form a second silicon nitride layer in the trenches. The reactant gas of the first deposition process has a first O3 / TEOS flow ratio larger than a second O3 / TEOS flow ratio of the reactant gas of the second deposition process.

A salicide process contains providing a silicon substrate that comprises at least a predetermined salicide region, performing a cluster ion implantation process to form an amorphized layer in the predetermined salicide region of the silicon substrate near, forming a metal layer on the surface of the amorphized layer, and reacting the metal layer with the amorphized layer to form a silicide layer on the surface of the silicon substrate.

An optical microresonator is configured as an optical microbubble formed along a section of an optical microcapillary. The curvature of the outer surface of the microbubble creates an optical resonator with a geometry that encourages the circulating WGMs to remain confined in the central region of the bubble, creating a high Q optical resonator. The resonator may be tuned by modifying the physical properties of the microbubble, allowing the resonator to be used as an optical filter. The resonator may also be used as a sensor or laser by introducing the material to be sensed (or the active laser material) into the microcapillary along which the microbubble is formed.

The present invention provides a magneto-optical recording method capable of securing a sufficient phase margin, even if a recording power or medium temperature fluctuates, and obtaining a reproduction signal having a preferable quality, wherein the time phases of a laser pulse and a modulation magnetic field are set to a time phase of maximizing in which a recording power margin.

A solar cell with a superlattice structure and a fabricating method thereof are provided, which includes fabricating a superlattice structure of GaAsN / GaInAs, GaAsN / GaSbAs, or GaAsN / GaInSbAs between a base and an emitter of a middle cell of a triple junction solar cell by a strain-compensation technology. The provided solar cell not only decreases crystalline defects and increases the critical thickness of the crystal, but also makes the energy bandgap of GaAsN and GaInAs reach around the energy of 1.0 eV (electron volt). Hence, the absorption region can be raised to around the energy of 1.0 eV to enhance the efficiency of the solar cell.

An optical microresonator is configured as an optical microbubble formed along a section of an optical microcapillary. The curvature of the outer surface of the microbubble creates an optical resonator with a geometry that encourages the circulating WGMs to remain confined in the central region of the bubble, creating a high Q optical resonator. The resonator may be tuned by modifying the physical properties of the microbubble, allowing the resonator to be used as an optical filter. The resonator may also be used as a sensor or laser by introducing the material to be sensed (or the active laser material) into the microcapillary along which the microbubble is formed.

The invention discloses an improved structure of light-source module, which arranges a reflection piece of light-source module in an image picking-up device of optical scanner. The invention applies the design of improved reflection piece to generate a compensatory function to the light source to reduce the waste formed by the light dissipation, which will be gathered by the reflection piece and be reflected to the document to be scanned. With the design of appropriate angle and position, the reflection piece may completely reflect the light onto the document to be scanned for obtaining a preferable quality of scanned image. Wherein, the reflection piece may be designed as two pieces, one of which may reach the function of light compensation, or one reflection piece may be designed as two reflection parts, one of which may reach the function of light compensation.

A method for filling silicon oxide materials into a trench includes providing a substrate having a plurality of trenches, performing a first deposition process to form a first silicon oxide layer in the trenches, and performing a second deposition process to form a second silicon oxide layer in the trenches. The reactant gas of the first deposition process has a first O3 / TEOS flow ratio larger than a second O3 / TEOS flow ratio of the reactant gas of the second deposition process.

A continuous spectrum generation apparatus including a laser light source and a plurality of condensed state transparent plates is provided. The laser light source is configured to emit a laser beam. The condensed state transparent plates are disposed on the transmission path of the laser beam in sequence, and configured to successively extend the spectral bandwidth of the laser beam in sequence. An assembling method of a continuous spectrum generation apparatus is also provided.

A circuit board including a board body, at least one first connector, and at least one second connector is provided. The board body has an edge and at least one auxiliary scribed line. The auxiliary scribed line is substantially parallel to the edge. The first connector is disposed on the board body and adjacent to the edge. The second connector is disposed on the board body and adjacent to the auxiliary scribed line. The second connector is electrically connected to the first connector. The first connector and the second connector are located on the different sides of the auxiliary scribed line.

Provided is image display apparatus, in which a surface to be scanned is two-dimensionally scanned with a light beam which is modulated based on image information and emitted from a light source means and an image formed on the surface to be scanned is observed through an optical system, wherein a synchronization light detection device to obtain synchronization signal related to a scanning start position on the surface to be scanned is disposed on the surface to be scanned, on the vicinity thereof, or on a surface optically conjugate therewith, so that a synchronization signal can be detected with high precision and a preferable quality image can be displayed for observation, and image taking apparatus including the image display apparatus.

A continuous spectrum generation apparatus including a laser light source and a plurality of condensed state transparent plates is provided. The laser light source is configured to emit a laser beam. The condensed state transparent plates are disposed on the transmission path of the laser beam in sequence, and configured to successively extend the spectral bandwidth of the laser beam in sequence. An assembling method of a continuous spectrum generation apparatus is also provided.

A brightness enhancement sheet including a light transmissive substrate, a plurality of strip prisms, and a plurality of protruding structures is provided. The light transmissive substrate has a first surface and a second surface opposite to the first surface. The strip prisms are disposed on the first surface. Each of the strip prisms has two prism surfaces, and a junction of the two prism surfaces forms a crest line, and a valley line is formed between each of the two adjacent strip prisms. Each of the protruding structures has two wing portions. The two wing portions are respectively disposed on two prism surfaces of the corresponding strip prism. A junction of the two wing portions forms a protruding end. The protruding end protrudes from the crest line of the corresponding strip prism. Each of the wing portions extends from the protruding end to the valley line.

A wavelength conversion module, a method of forming the same and a projection apparatus are provided. The wavelength conversion module includes a substrate and a wavelength conversion layer. The substrate has a rough surface including two first regions and a second region located between the two first regions in a radial direction on the substrate. The wavelength conversion layer is located on the substrate and includes a wavelength conversion material, a bonding material and diffuse reflection particles. The wavelength conversion material is distributed in the bonding material. The diffuse reflection particles are located on the rough surface of the substrate and between the wavelength conversion material and the substrate. A second density of the diffuse reflection particles in the second region is greater than a first density of the same in one of the two first regions.

A circuit board including a board body, at least one first connector, and at least one second connector is provided. The board body has an edge and at least one auxiliary scribed line. The auxiliary scribed line is substantially parallel to the edge. The first connector is disposed on the board body and adjacent to the edge. The second connector is disposed on the board body and adjacent to the auxiliary scribed line. The second connector is electrically connected to the first connector. The first connector and the second connector are located on the different sides of the auxiliary scribed line.

A method of manufacturing an eutectic crystalline sorbitol / maltitol that represents a single melting peak obtained by differential scanning calorimetry. The method includes combining a liquid composition containing two or more kinds of the sugar alcohol at a predetermined ratio with a powder containing crystals of the same two or more kinds of the sugar alcohol at substantially the same usage ratio as that of the sugar alcohol to obtain a mixture, and kneading and aging the mixture.

A solid-liquid separator using a roller system includes a casing, rollers disposed within the casing and each provided with a screen that is formed in an outer periphery thereof with plural pores, a supply device disposed outside the rollers for supplying into the casing under appropriate pressure a solid-liquid mixture to be separated into a solid component via the plural pores and a liquid component filtered inside, a casing wall disposed adjacent to the rollers after the solid-liquid mixture supplied with the supply device is passed through the rollers rotated, a discharge window formed in the casing wall for discharging the solid component, and a pressure application lid formed on the casing wall for stably applying prescribed pressure in a direction of closing the discharge window with a pressure application device. The liquid component is separated from the solid-liquid mixture by means of the rollers and the solid component is discharged from the discharge window on which pressure has been exerted by means of the pressure application lid.

A pixel structure is provided and disposed in a pixel region divided up by a dummy line. The pixel structure includes a pixel electrode. The pixel electrode includes first branches and second branches located at opposite sides and disposed symmetrically with respect to the dummy line. One first branch has an extending portion and an end portion. A direction is directing from a front end toward a terminal end of the extension portion, and the terminal end of the extension portion is connected to a front end of the end portion. A bending direction is directing from the front end to a terminal end of the end portion. The direction is toward the dummy line and the bending direction is parallel to or away from the dummy line, or the direction is away from the dummy line and the bending direction is parallel to or toward the dummy line.