Abstract: A method for manufacturing a housing of an electronic device includes the following steps. An area not to be etched is shielded and an etching area is exposed. The etching area is etched by photolithography and forming a plurality of heat dissipation holes of nanometer scale in the etching area. The area not to be etched is cleaned for removing the shielding.

Abstract: A method for manufacturing composite of resin and other materials includes the following steps. A shaped piece made by materials different with resin is provided, and is degreased and cleaned. A resist layer with a lot of location holes is formed on the surface of the heterogeneous member by nano-imprint lithography, and a lot of small holes are formed on the surface of the heterogeneous member while the resist layer is removed. Then the heterogeneous member is inserted in an injection mold, and molten crystalline thermoplastic resin is injected into the mold, thus the resin embedded into the holes and bonding with the shaped piece. The method is environmentally friendly and suitable for mass production.

Abstract: A method for manufacturing a housing of an electronic device includes the following steps. An area not to be etched is shielded and an etching area is exposed. The etching area is etched by photolithography and forming a plurality of heat dissipation holes of nanometer scale in the etching area. The area not to be etched is cleaned for removing the shielding.

Abstract: An electronic device includes a housing, a mother board received in the housing, and a plurality of heat-generating members received in the housing. A dissipation area is formed in the housing, and a plurality of dissipation holes are defined in an outer surface of the dissipation area. Each dissipation hole is in a nanometer scale. The disclosure also supplies a method for manufacturing a housing of the electronic device.

Abstract: A method for surface treating an aluminum alloy workpiece having zinc and magnesium includes: providing the aluminum alloy workpiece; polishing the aluminum alloy to achieve a mirror effect; degreasing the aluminum alloy workpiece; stripping a black film formed on the aluminum alloy workpiece; anodizing the aluminum alloy workpiece in an anodizing solution which includes acidic solution and an additive with a concentration of 0.5 mg/L to 25 g/L to form an oxidation film on the surface of the aluminum alloy workpiece, wherein the additive including at least one compound selected from a group consisting of adipic acid, 1,2,3-Benzotriazole, oxalic acid, sodium malate, and glycerin; and sealing the aluminum alloy workpiece. This disclosure further provides an anodizing solution applied in the method for surface treating an aluminum alloy workpiece and a method for anodizing the aluminum alloy workpiece using the same.

Abstract: A method for manufacturing composite of resin and other materials includes the following steps. A shaped piece made by materials different with resin is provided, and is degreased and cleaned. A resist layer with a lot of location holes is formed on the surface of the heterogeneous member by nano-imprint lithography, and a lot of small holes are formed on the surface of the heterogeneous member while the resist layer is removed. Then the heterogeneous member is inserted in an injection mold, and molten crystalline thermoplastic resin is injected into the mold, thus the resin embedded into the holes and bonding with the shaped piece. The method is environmentally friendly and suitable for mass production.

Abstract: An electronic device includes a housing, a mother board received in the housing, and a plurality of heat-generating members received in the housing. A dissipation area is formed in the housing, and a plurality of dissipation holes are defined in an outer surface of the dissipation area. Each dissipation hole is in a nanometer scale. The disclosure also supplies a method for manufacturing a housing of the electronic device.

Abstract: A method for manufacturing curved glass sheet includes the following: an equipment, including a matching first mold core and a second mold core, is provided; a raw glass sheet is provided and placed on the second mold core covering second mold cavity; a pressure is controlled in the first and second mold cavities to a first pressure; the mold cores are closed and heated, to raise the raw glass sheet to a temperature of about glass transition temperature of raw glass sheet; a gas is supplied into the first mold cavity to raise the pressure in the first mold cavity to a second pressure which is greater than first pressure, in which the raw glass sheet is bent to the second forming surface of second mold core under pressure; mold cores are opened and cooled down to obtain the curved glass sheet.

Abstract: A coated article, includes a substrate, an anti-corrosion layer deposited on the substrate, the anti-corrosion layer being composed of ZrW2O8 and AlON. The disclosure also describes a method to make the coated article.

Abstract: A method for manufacturing curved glass sheet includes the following steps: providing a mold which includes a first mold core and a second mold core corresponding to the first mold core; providing a raw glass sheet and placing the raw glass sheet on the second mold core; heating the first mold core to a first temperature, and heating the second mold core and the raw glass sheet to a second temperature which is equal to or lower than the glass transition temperature of the glass sheet but higher than the first temperature; closing the mold and hot pressing the first mold core on the glass sheet; opening the mold, and cooling the glass sheet to obtain the curved glass sheet. An annealing step can also be provided to the curved glass sheet. A mold for manufacturing the curved glass sheet is also provided.

Abstract: An article includes a substrate made of carbon fiber and zirconium diboride composites; an chromium layer deposited on the substrate; an chromium diffusing layer formed between the substrate and the chromium layer; and a iridium layer deposited on the chromium layer opposite to the chromium diffusing layer.

Abstract: A method for manufacturing obscured glass includes providing a glass substrate including a pre-obscured surface; applying a first harden process to the glass substrate to form a strength layer inward the pre-substrate surface; and applying a blasting process to the pre-obscured surface of the glass substrate to form an obscured layer inward the pre-obscured surface, wherein a thickness of the obscured layer is less than that of the strength layer.

Abstract: A method for manufacturing curved glass sheet includes the following: an equipment, including a matching first mold core and a second mold core, is provided; a raw glass sheet is provided and placed on the second mold core covering second mold cavity; a pressure is controlled in the first and second mold cavities to a first pressure; the mold cores are closed and heated, to raise the raw glass sheet to a temperature of about glass transition temperature of raw glass sheet; a gas is supplied into the first mold cavity to raise the pressure in the first mold cavity to a second pressure which is greater than first pressure, in which the raw glass sheet is bent to the second forming surface of second mold core under pressure; mold cores are opened and cooled down to obtain the curved glass sheet.

Abstract: An etching device is disclosed. The etching device comprises a base; a receiving member mounted on the base, the receiving member defines a receiving hole to receive an etching solution, the receiving member comprises a side surface, the side surface defines at least one spraying hole interconnected with the receiving hole, and at least one spraying hole is adapted to spray the etching solution; and at least one rotating member rotatably mounted on the base, opposite to the side surface of the receiving member.

Abstract: A coated article, includes a substrate, an anti-corrosion layer deposited on the substrate, the anti-corrosion layer being composed of ZrW2O8 and AlON. The disclosure also describes a method to make the coated article.

Abstract: An article includes a substrate made of carbon fiber and zirconium diboride composites; an chromium layer deposited on the substrate; an chromium diffusing layer formed between the substrate and the chromium layer; and a iridium layer deposited on the chromium layer opposite to the chromium diffusing layer.

Abstract: An coated article includes a substrate; and a lubricant layer deposited on the substrate; wherein the lubricant layer is a molybdenum sulphur boron nitride layer and comprises molybdenum sulfur boron nitride (MoSBN) having a molybdenum disulfide phase and a boron nitride phase.

Abstract: A method for manufacturing curved glass sheet includes the following steps: providing a mold which includes a first mold core and a second mold core corresponding to the first mold core; providing a raw glass sheet and placing the raw glass sheet on the second mold core; heating the first mold core to a first temperature, and heating the second mold core and the raw glass sheet to a second temperature which is equal to or lower than the glass transition temperature of the glass sheet but higher than the first temperature; closing the mold and hot pressing the first mold core on the glass sheet; opening the mold, and cooling the glass sheet to obtain the curved glass sheet. An annealing step can also be provided to the curved glass sheet. A mold for manufacturing the curved glass sheet is also provided.

Abstract: An article includes a niobium alloy substrate; an iridium layer deposited on the niobium alloy substrate; and a chromium oxygen-nitride layer deposited on the iridium layer opposite to the iridium layer.

Abstract: A housing includes a main body having an interface and a plastic portion molded on the interface. The main body defines a nanostructure in the interface. The nanostructure includes a plurality of regular, repeating units. A pitch between the adjacent units is in the range from 10 nanometers to 500 nanometers. A height of each unit is in the range from 10 nanometers to 100 nanometers. A surface roughness of the nanostructure is in the range from 1 nanometer to 10 nanometers.