Abstract: A keyboard includes a main board and at least one key structure positioned on the main board. The key structure includes a key switch and a key cap. The key cap is combined with the key switch. The key switch includes a key base and a shaft movably positioned on the key base. The keycap includes a main body and a cushion member. The main body is positioned on the shaft of the key switch. The main body is spaced apart from the contact surface of the key base. The main body is moved forward and backward relative to the key base with movement of the shaft. The cushion member is positioned at one side of the main body facing the contact surface. While the main body is moved to the contact surface, the cushion member abuts on the contact surface, so as to avoid the main body from hitting the key base directly, and hence minimizing the noise that is produced by the moving parts.

Abstract: A method for recovering ruthenium from a spent ruthenium-based catalyst carried on aluminum oxide includes: drying, calcining, and cooling a spent catalyst; grinding the spent catalyst into black powder; placing the black powder in a fluidized bed reactor, purging the reactor with hydrogen and heating the black powder to obtain ruthenium metal, then heating the black powder in a mixed atmosphere of oxygen and ozone to obtain RuO4 gas; absorbing the RuO4 gas with a sufficient amount of hydrochloric acid to obtain a H3RuCl6 solution; adding an excess oxidant to the H3RuCl6 solution to oxidize the H3RuCl6 into H2RuCl6; adding excess NH4Cl to the H2RuCl6 and then filtering, and washing the filter cake to obtain solid (NH4)2RuCl6; and reducing the solid (NH4)2RuCl6 by hydrogen to obtain ruthenium metal.

Abstract: A method for preparing crystalline cobalt nitrate. The method includes: 1) calcining a spent Co/SiO2 catalyst, cooling the calcined material to room temperature, and grinding it to yield a powder; 2) heating the powder in a fluidized bed reactor; 3) adding the heated powder into excess dilute nitric acid solution and filtering to obtain a cobalt nitrate solution; 4) adjusting the pH value of the cobalt nitrate solution to 1.5, adding a preheated oxalic acid solution, adjusting a pH value of the resulting solution to 1.5, immediately filtering the resulting solution to yield a precipitate of cobalt oxalate, washing the precipitate of cobalt oxalate to yield a neutral filtrate; 5) drying the precipitate and calcining to yield cobalt oxide; 6) dissolving the cobalt oxide in nitric acid to yield a second cobalt nitrate solution; and 7) evaporating the second cobalt nitrate solution to obtain crystalline cobalt nitrate.

Abstract: A method for recovering cobalt, ruthenium, and aluminum from spent Co—Ru/Al2O3 catalyst. First, Co—Ru/Al2O3 spent catalyst is subjected to hydrocarbon removal, reaction with hydrogen, and alkali fusion to obtain a slag. The slag is subjected to acid leaching, precipitation of cobalt with oxalic acid or ammonium oxalate, reduction of cobalt oxalate, and dissolution of cobalt metal with nitric acid to obtain Co(NO3)2.6H2O. The effluent of acid leaching is subjected to reaction with ethanol, filtration to obtain a filtrate and residue, dissolution of the residue with concentrated hydrochloric acid, and vacuum distillation to obtain ?-RuCl3.xH2O. Aluminum hydroxide is prepared from the filtrate through carbonation and calcination. The cobalt yield is ?97%; the ruthenium yield is ?95%, and the aluminum yield is ?92%.

Abstract: A method for preparing solid ruthenium nitrosyl nitrate, including : 1) drying a ruthenium-containing spent catalyst, and calcining the spent catalyst, and cooling to room temperature, whereby yielding a ruthenium-containing solid; 2) grinding the ruthenium-containing solid to yield a powder, introducing the powder to a fluidized bed reactor, aerating the fluidized bed reactor with nitrogen or an inert gas, charging hydrogen, whereby yielding ruthenium metal; 3) contacting a mixed gas of ozone and air with the ruthenium metal, whereby yielding gaseous ruthenium tetroxide; 4) introducing the gaseous ruthenium tetroxide into a three-stage absorption plant, whereby yielding an acid solution including ruthenium nitrate; 5) adding a solid of sodium nitrite to the acid solution, stirring, and heating a resulting solution, whereby yielding a solution of ruthenium nitrosyl nitrate; and 6) extracting the solution of ruthenium nitrosyl nitrate with anhydrous ether.

Abstract: An input device and a manufacturing method of the input device are provided. The input device includes a circuit board and a plurality of mechanical switches. The circuit board has a first surface, a second surface and a plurality of conductive sheets, the second surface and the first second surface are opposed each other. A plurality of holes are formed on the circuit board and the conductive sheets are disposed at one side of the first surface in pairs around the hole, and each of the conductive sheets has a coupling section bent away from the first surface and the second surface. The mechanical switches are detachable from the circuit board, and each mechanical switch includes a plunger and a plurality of pins. Each of the mechanical switches has a positioning column inserted in the hole.

Abstract: A gas release device is formed of two plates combined together. Each of the plates includes an intake groove. Each of the intake grooves is linked with a first distribution groove. Each of the first distribution grooves is linked with two second distribution grooves. Each of the second distribution grooves is linked with two third distribution grooves. Each of the third distribution grooves is linked with two fourth distribution grooves. Each of the fourth distribution grooves is linked with two fifth distribution grooves. Each of the fifth distribution grooves has a venthole. After a gas of a vapor deposition source enters the intake groove, the gas passes through the first, second, third, fourth, and fifth distribution grooves in order and then substantially equal amount of the gas is finally released out of each of the ventholes.

Abstract: A gas release device for a coating process includes an upper plate, a first intermediate plate, a second intermediate plate, and a lower plate, four of which are superposed on each other from top to bottom. The upper plate is linked and communicates with the first intermediate plate through a first passage. The first intermediate plate is linked and communicates with the second intermediate plate through at least two second passages. The second intermediate plate is linked with the lower plate through at least four third passages. The lower plate includes at least four ventholes. In light of this, after a gas of a vapor deposition source enters the inlet, the gas of the same amount can be released out of each venthole to make the thickness of a thin film uniform for relatively higher quality of the coating process.

Abstract: An input device and a manufacturing method of the input device are provided. The input device includes a circuit board and a plurality of mechanical switches. The circuit board has a first surface, a second surface and a plurality of conductive sheets. A plurality of holes are formed on the circuit board and the conductive sheets are disposed at one side of the first surface in pairs around the hole, and the conductive sheets have a coupling section bent toward the first surface along the direction of the second surface. The mechanical switches are detachable from the circuit board and include a plunger and a plurality of pins. Each of the plungers has a positioning column embedded in the hole. One end of the pin is connected to the plunger, and the other end of the pin is attached to the coupling section of the conductive sheets.

Abstract: A keyboard including a case, a first fan, an air deflector and a keycap module is provided. The case includes a first side and a second side. The first side has an opening, the second side is disposed at a side of the first side and has at least one hole. The first fan is disposed at the second side and located between the first side and the second side. The air deflector is disposed between the first side and the second side of the case and corresponding to the hole of the second side and the opening of the first side. The keycap module is disposed at the opening of the first side.

Abstract: A mouse with a wire arrangement structure is provided. The mouse includes a housing, a base, a connection unit and a wire. The housing includes an opening and an opening edge. The base corresponds to the housing, wherein the base is moved between a first position and a second position, and when the base is in the first position, the base abuts the opening edge to cover the opening, and when the base is in the second position, the base is separated from the opening edge. The connection unit is connected to the housing and the base, allowing the base to move relative to the housing. The wire includes a joint, wherein when the wire is in a receiving state, the wire is wound up around the connection unit.

Abstract: A computer mouse includes a casing, a skidding pad and a cushion member. The casing has a bottom surface and a side surface adjacent to a peripheral of the bottom surface. The skidding pad is applied on the bottom surface of the casing for sliding upon a working surface. The cushion member is formed at a corner defined between the bottom surface and the side surface of the casing. Additionally, when the computer mouse is stand still on the working surface, only the skidding pad is in contact with the working surface.

Abstract: A mouse with a wire arrangement structure is provided. The mouse includes a housing, a base, a connection unit and a wire. The housing includes an opening and an opening edge. The base corresponds to the housing, wherein the base is moved between a first position and a second position, and when the base is in the first position, the base abuts the opening edge to cover the opening, and when the base is in the second position, the base is separated from the opening edge. The connection unit is connected to the housing and the base, allowing the base to move relative to the housing. The wire includes a joint, wherein when the wire is in a receiving state, the wire is wound up around the connection unit.

Abstract: A mouse, activated by a touch medium, is provided. The mouse includes a mouse body, a sensor, a power source and a mouse circuit. The sensor is disposed on the body, wherein the sensor sends a switch signal according to a distance between the touch medium and the sensor. The mouse circuit is electrically connected to the power source and the sensor, wherein the mouse circuit activates or deactivates the mouse according to the switch signal.

Abstract: A mouse device including a main body, a transmission cable set, and a pliable covering member is provided. The main body has a top portion, a bottom portion, and a necking portion interlaid between the top portion and the bottom portion. An orthogonal projection of the necking portion to the bottom portion is located within the bottom portion, and an orthogonal projection of the necking portion to the top portion is located within the top portion. The transmission cable set is wound around the body along the necking portion. The pliable covering member is arranged to surround the necking portion. The pliable covering member is adapted to be opened or closed in relative to the main body to cover or expose the transmission cable set wound around the necking portion.

Abstract: A keyboard including a case, a first fan, an air deflector and a keycap module is provided. The case includes a first side and a second side. The first side has an opening, the second side is disposed at a side of the first side and has at least one hole. The first fan is disposed at the second side and located between the first side and the second side. The air deflector is disposed between the first side and the second side of the case and corresponding to the hole of the second side and the opening of the first side. The keycap module is disposed at the opening of the first side.

Abstract: A method for reading non-standard register of Serial Advanced Technology Attachment (SATA) devices discloses an unused input parameter of standard command setting up as an executive parameter. While receiving the standard command, a SATA host controller converts the executive parameter and the standard command into input frame information structure (FIS) that is sent to the SATA devices for the SATA devices to detect the executive parameter for reading corresponding value of non-standard register and saving the value into an output register of the SATA devices. The value of the non-standard register is converted into output frame information structure for being sent to the SATA host controller and the value of the non-standard register is saved to the output register of the SATA host controller. Then by reading the value of the output register of the SATA host controller, the value of the non-standard register is learned.

Abstract: A method for reading non-standard register of Serial Advanced Technology Attachment (SATA) devices discloses an unused input parameter of standard command setting up as an executive parameter. While receiving the standard command, a SATA host controller converts the executive parameter and the standard command into input frame information structure (FIS) that is sent to the SATA devices for the SATA devices to detect the executive parameter for reading corresponding value of non-standard register and saving the value into an output register of the SATA devices. The value of the non-standard register is converted into output frame information structure for being sent to the SATA host controller and the value of the non-standard register is saved to the output register of the SATA host controller. Then by reading the value of the output register of the SATA host controller, the value of the non-standard register is learned.

Abstract: A method for reading non-standard register of Serial Advanced Technology Attachment (SATA) devices discloses an unused input parameter of standard command setting up as an executive parameter. While receiving the standard command, a SATA host controller converts the executive parameter and the standard command into input frame information structure (FIS) that is sent to the SATA devices for the SATA devices to detect the executive parameter for reading corresponding value of non-standard register and saving the value into an output register of the SATA devices. The value of the non-standard register is converted into output frame information structure for being sent to the SATA host controller and the value of the non-standard register is saved to the output register of the SATA host controller. Then by reading the value of the output register of the SATA host controller, the value of the non-standard register is learned.