Abstract: An inverting and cleaning device includes a positioning mechanism, an inverting mechanism, and a cleaning mechanism. The positioning mechanism is adapted to move a drum to a first position. The inverting mechanism includes a holding member. When the drum is located at the first position, the holding member clamps a drum body of the drum and inverts the drum to a second position where an opening on a top of the drum faces downward. The cleaning mechanism includes a cleaning tool. When the drum is located at the second position, the cleaning tool enters the drum through the opening of the drum for cleaning an inside of the drum.

Abstract: A miniaturization process of passive electronic components is revealed. The miniaturization process mainly includes the steps of reforming, reacting at high temperature, preparing paste, dipping in the paste, light curing, packaging, heat curing, cutting pins, coating silver paste, heating and drying, and engraving by laser. The miniaturization process makes production of the passive components with thinner, smaller, and lightweight deign easier and the more convenient. The service life of the passive components is also extended and applications of the passive components are broader.

Abstract: An automatic liquid filling system includes a machine assembly, a gripping unit, and a controlling unit. The machine assembly has a filling zone for receiving at least one container. The container has an opening. The machine assembly includes a plurality of filling nozzles in the filling zone. The gripping unit in the machine assembly includes a moving track and a robotic arm. The robotic arm is movably disposed on the moving track. The controlling unit in the machine assembly is electrically connected to the gripping unit. When the container is located in the filling zone, the controlling unit controls the robotic arm to move along the moving track and to pick up one of the filling nozzles to fill the container through the opening of the container. A method of filling liquid is provided herewith.

Abstract: An automatic liquid filling system includes a machine assembly, a gripping unit, and a controlling unit. The machine assembly has a filling zone for receiving at least one container. The container has an opening. The machine assembly includes a plurality of filling nozzles in the filling zone. The gripping unit in the machine assembly includes a moving track and a robotic arm. The robotic arm is movably disposed on the moving track. The controlling unit in the machine assembly is electrically connected to the gripping unit. When the container is located in the filling zone, the controlling unit controls the robotic arm to move along the moving track and to pick up one of the filling nozzles to fill the container through the opening of the container. A method of filling liquid is provided herewith.

Abstract: An inverting and cleaning device includes a positioning mechanism, an inverting mechanism, and a cleaning mechanism. The positioning mechanism is adapted to move a drum to a first position. The inverting mechanism includes a holding member. When the drum is located at the first position, the holding member clamps a drum body of the drum and inverts the drum to a second position where an opening on a top of the drum faces downward. The cleaning mechanism includes a cleaning tool. When the drum is located at the second position, the cleaning tool enters the drum through the opening of the drum for cleaning an inside of the drum.

Abstract: A chemical liquid dilution system includes a first material offering device providing fluid, a second material offering device, and a mixing device. The second material offering device provides liquid. The mixing device includes a fluid mixer, a first connection port, a second connection port, and an output port. The fluid mixer has a fluid limiting channel with an interface communicating with the first connection port and another interface communicating with the second connection port and the output port. The first connection port is connected to the first material offering device. The second connection port is connected to the second material offering device. After the fluid passes through the first connection port and the fluid limiting channel, the fluid and liquid are mixed up to form a diluted chemical liquid, and the output port discharges the diluted chemical liquid. A chemical liquid dilution method is also disclosed.

Abstract: A fluid mixing assembly includes a connecting cap, a three-way pipe and a connecting member; the connecting cap has a first connecting portion; the three-way pipe is connected to the connecting cap, and has a second connecting portion, an output portion and a cavity, wherein the second connecting portion, the output portion and the cavity communicate with each other; the connecting member is connected to the connecting cap, and has a pin-hole channel, wherein the pin-hole channel has a first end bore and a second end bore opposite to the first end bore, the first end bore communicates with the first connecting portion, and the second end bore communicates with the second connecting portion and the output portion.

Abstract: A fluid mixing assembly includes a connecting cap, a three-way pipe and a connecting member; the connecting cap has a first connecting portion; the three-way pipe is connected to the connecting cap, and has a second connecting portion, an output portion and a cavity, wherein the second connecting portion, the output portion and the cavity communicate with each other; the connecting member is connected to the connecting cap, and has a pin-hole channel, wherein the pin-hole channel has a first end bore and a second end bore opposite to the first end bore, the first end bore communicates with the first connecting portion, and the second end bore communicates with the second connecting portion and the output portion.

Abstract: The invention relates to a manufacturing process for a heat dissipation heat sink composite having heat dissipation function and a manufacturing method for a finished product thereof. It comprises the steps of rolling a first heat conductive material and a substrate to adhere the first heat conductive material to the substrate for fixation; adhering a second heat conductive material to the substrate for combination; and rolling the second heat conductive material and the substrate for firmly combination and fixation to complete the manufacturing of a composite material.

Abstract: The disclosure provides a gas-liquid dissolving apparatus, comprising: a sealed tank, a gas jet tube and a plurality of membrane plates; the sealed tank being provided with a liquid supply joint at top, and a gas inlet joint and an output joint at bottom; the gas jet tube being located inside the sealed tank and connected to the gas inlet joint; the gas jet tube having a plurality of gas jet holes distributed on tube wall; the plurality of membrane plates being stacked around the periphery of the gas jet tube and fixed; each membrane plate being ring-shaped, and being structured with an inner ring wall, a mixing chamber and an outer ring wall sequentially from the center; the mixing chamber having an opening facing downward, and the inner ring wall being thicker than the outer ring wall, with a gap existing between the two adjacent stacked outer ring walls.

Abstract: A gas-liquid mixing control system includes a liquid supply unit, a liquid pressure regulating valve, a gas supply unit, a gas pressure regulating valve, a mixing tank, an output pipe, and a non-electric control flow regulator. The mixing tank communicates with said regulating valves; liquid and gas are mixed in the mixing tank to form mixed fluid. The first end and second end of output pipe communicate with the mixing tank and the machine respectively, making mixed fluid output from mixing tank to machine through the output pipe. The mixed fluid in first end and second end have third flow and fourth flow respectively. Said flow regulator communicates with the output pipe; the mixed fluid passing through said flow regulator has fifth flow. The first flow is not lower than at least one of the fourth and the fifth flow. Additionally, a control method for gas-liquid mixing is disclosed.

Abstract: A method for manufacturing a high-efficiency protective paper having functions of heat dissipation, heat conduction and electromagnetic absorption is disclosed herein. It comprises the steps of providing a thermal conductive composite to a substrate, wherein the thermal conductive composite is made by fully mixing a metal salt and a nano-scale magnetic metal oxide; evenly distributing the thermal conductive composite over the substrate to form a hybrid material; leveling and rolling the hybrid material to form a protective paper having a dense structure; and receiving and vacuum heating the protective paper.

Abstract: The present invention relates to a capsule type heat conduction column and a method for manufacturing the same. The method comprises the steps of mixing a thermally conductive base material thoroughly, stuffing and compacting the thermally conductive base material into a capsule formed by a first pipe and a second pipe, and sealing the capsule by a plurality of thermal interface materials. Each of the first pipe and the second pipe has a first opening and a second opening at two terminals thereof, and the second opening of the first pipe is assembled to the first opening of the second pipe.

Abstract: The disclosure provides a gas-liquid dissolving apparatus, comprising: a sealed tank, a gas jet tube and a plurality of membrane plates; the sealed tank being provided with a liquid supply joint at top, and a gas inlet joint and an output joint at bottom; the gas jet tube being located inside the sealed tank and connected to the gas inlet joint; the gas jet tube having a plurality of gas jet holes distributed on tube wall; the plurality of membrane plates being stacked around the periphery of the gas jet tube and fixed; each membrane plate being ring-shaped, and being structured with an inner ring wall, a mixing chamber and an outer ring wall sequentially from the center; the mixing chamber having an opening facing downward, and the inner ring wall being thicker than the outer ring wall, with a gap existing between the two adjacent stacked outer ring walls.

Abstract: The invention provides an aluminum capacitor positive electrode foil product having high voltage resistance and a manufacturing method thereof. the manufacturing method mainly processes an aluminum foil substrate in a vacuum environment and comprises the steps of: heating the aluminum foil substrate; ion bombarding a surface of the aluminum foil substrate to form a pyramid surface layer; reverse sputtering the aluminum foil substrate for surface cleaning, decontamination and degreasing; depositing the aluminum foil substrate by an aluminum target material to form a deposition layer; oxidizing an outer surface of the deposition layer and spraying mixed gases on the outer surface of the deposition layer of the aluminum foil substrate to form an oxidized crystallizing layer; cooling the aluminum foil substrate; and rolling the aluminum foil substrate into a finished product.

Abstract: A chemical liquid dilution system includes a first material offering device providing fluid, a second material offering device, and a mixing device. The second material offering device provides liquid. The mixing device includes a fluid mixer, a first connection port, a second connection port, and an output port. The fluid mixer has a fluid limiting channel with an interface communicating with the first connection port and another interface communicating with the second connection port and the output port. The first connection port is connected to the first material offering device. The second connection port is connected to the second material offering device. After the fluid passes through the first connection port and the fluid limiting channel, the fluid and liquid are mixed up to form a diluted chemical liquid, and the output port discharges the diluted chemical liquid. A chemical liquid dilution method is also disclosed.

Abstract: The present invention relates to a method for manufacturing a device for heat transmission, dissipation and highly efficient capillary siphoning action. The method comprises preparing a metal substrate; processing a surface of the metal substrate to form a rugged surface layer thereon; neutralizing, cleaning and drying the metal substrate to remove oil and rust thereon; placing the metal substrate into a first vacuum chamber for heating, deoxygenizing by hydrogen gas and ion bombarding to the rugged surface layer. Further, the metal substrate can be selectively subject to deposition, decomposition, degradation and reaction treatments for obtainment of a device for heat transmission, dissipation and highly efficient capillary siphoning action.

Abstract: A generation apparatus for dissolving gas in liquid includes a sealed dissolving tank, a gas supply tube, a liquid supply set, and a fluid nozzle, wherein the sealed dissolving tank having a liquid inlet tube and a liquid outlet tube; a gas chamber formed inside the tank above liquid level; the gas supply tube supplying gas into gas chamber; the fluid nozzle disposed inside the tank; the liquid supply set supplying liquid to the fluid nozzle; the fluid nozzle disposed with at least a gas inlet and at least a liquid bubble inlet at different locations on shell wall; the gas inlet connected to a gas tube to the gas chamber, and the liquid bubble inlet located below the liquid level inside the tank. As such, the fluid nozzle performs at least two dissolving operations to miniaturize the bubbles to increase contact surface and improve dissolving efficiency.

Abstract: A syringe meter is provided, including a supply tank, a container with variable capacity, a transmission set, an air supply tube, a liquid outlet tube, and a plurality of valve elements; wherein the container being a bellows tube having two ends sealed; the supply tank having a cyclic tube and a pump connected to bellows tube so that a liquid able to circulate in supply tank and bellows tube; the transmission set being for compressing or pull bellows tube; the air supply tube and the liquid outlet tube being connected to the container; and the plurality of valve elements being disposed at the positions where tubes connected to bellows tube. As such, the capacity of the bellows tube is adjusted for outputting a preset volume, or the transmission set is activated to compress or pull the bellows tube after filling with a liquid to control the output volume.

Abstract: A debubbler apparatus includes a debubbler tank, and a liquid inlet tube, a liquid outlet tube and a gas venting tube, all connected to the debubbler tank; wherein the debubbler tank including a first tank and a second tank, vertically connected to each other; the second tank starting to shrink in diameter gradually from the top connected to first tank downward; the liquid inlet tube being disposed at the first tank and linked to the inside of the first tank; the liquid outlet tube being disposed at the second tank and connected to the bottom of the second tank; the gas venting tube being disposed at the first tank and connected to a gas chamber inside the first tank. As such, the liquid injected into the tank causes a swirl, resulting in gas concentrated in the gas chamber for venting to accomplish debubbling.