8results about How to "Suppression mixing" patented technology

The fire blanket device for the electric vehicle charging station comprises a fireproof cloth body and a plurality of energy storage bags, the energy storage bags are arranged in the fireproof cloth body and are mutually spaced, so that a plurality of spaced bulge parts are formed in the fireproof cloth body, and openings communicating with the energy storage bags are formed in the fireproof cloth body; and a combustible layer is arranged in the energy storage bag. The multiple energy storage bags are additionally arranged in the fire blanket, combustible structures are arranged in the energy storage bags, combustion reaction can be generated under the high temperature of open fire or a heat source, and the fire blanket is essentially characterized in that consumption of oxygen around the fire blanket is accelerated, mixing of the oxygen and combustible gas generated by thermal runaway of a battery is inhibited, and the fire extinguishing and blocking effects are achieved; the method is suitable for the scene of rapid fire development of the electric vehicle charging station.

The present invention provides a technology for suppressing the mixing of processing liquids and the resulting generation of particles. A substrate processing device includes: a plurality of pipes for supplying processing liquids for substrate processing; a substrate processing unit connected to the plurality of pipes and for processing the substrate using the processing liquid; and a pipe arrangement unit for arranging the plurality of pipes in a manner close to each other, the pipe arrangement unit including at least one inner wall that separates at least one of the plurality of pipes from the other pipes and seals the atmosphere in each of the separated partitions.

This bonding system (1) is provided with a first transfer device (61), a surface modification device (33), a load interlock vacuum chamber (31), a transfer chamber (32), a substrate processing device (34), and a bonding device (41). The first conveying device conveys a first substrate (W1) and a second substrate (W2). A surface modification device (33) modifies the surfaces of the first substrate (W1) and the second substrate (W2). A load interlock vacuum chamber (31) switches the atmosphere in the chamber between an atmospheric atmosphere and a reduced-pressure atmosphere. The transfer chamber (32) is provided with a second transfer device (32a) for transferring the first substrate (W1) and the second substrate (W2) between the load interlock vacuum chamber (31) and the surface modification device (33). The surface modification device (33) is provided with a first gas supply unit (122) and a first switching unit (126). The first gas supply unit (122) is capable of supplying a plurality of types of gases to the surface modification device (33). The first switching unit (126) switches the type of gas to be supplied to the surface modification device (33). The conveyance chamber (32) is provided with a second gas supply unit (130) and a second switching unit (136). The second gas supply unit (130) is capable of supplying a plurality of types of gases to the transport chamber (32). The second switching unit (136) switches the type of gas supplied to the conveyance chamber (32).

Provided are: an automatic analysis device capable of suppressing the mixing in of a suspended matter in an upper layer sample to be dispensed from a specimen container to a reaction container; and a method for controlling the automatic analysis device. The automatic analysis device analyzes a specimen, said automatic analysis device being characterized by comprising: a specimen dispensing probe that dispenses the upper layer sample of a specimen which has been separated into the upper layer sample and a lower layer sample, from a specimen container containing the specimen to a reaction container; and a control unit that controls the operation of the specimen dispensing probe, wherein the control unit causes the specimen dispensing probe to remove part of the surface layer of the upper layer sample and / or apply vibrations to the surface layer of the upper layer sample and then dispense the upper layer sample from the specimen container to the reaction container for a specific test.

The invention belongs to the technical field of pressure exchange, and discloses a fluid pressure energy recovery device and a fluid switcher thereof, and the fluid switcher comprises a first low-pressure barrel, a first connecting barrel, a high-pressure barrel, a second connecting barrel and a second low-pressure barrel; a piston assembly is arranged in a through cavity formed by the components and comprises a driving rod, a first piston, a piston rod and a second piston. The fluid switcher is connected with the first spiral pressure exchange cavity and the second spiral pressure exchange cavity through the piston traps, the first spiral pressure exchange cavity and the second spiral pressure exchange cavity are connected with the check valve set through the piston traps respectively, spherical isolation pistons are arranged in the first spiral pressure exchange cavity and the second spiral pressure exchange cavity respectively, and the spherical isolation pistons can be trapped by the piston traps. The fluid pressure energy recovery device has the advantages of being long in service life, small in occupied area, low in energy consumption and low in liquid mixing rate. The fluid switcher has the advantages of being high in structural component integration degree, low in switcher body energy loss, convenient to assemble and maintain and the like.

A human body simulation device includes an organ model simulating an outer shape of an organ and having a liquid accommodating part, a gas-liquid separation tank having an internal space separately accommodating gas and liquid, and a gas supply / suction device supplying gas to the gas-liquid separation tank and sucking gas accommodated in the gas-liquid separation tank. The gas / liquid separation tank and the liquid accommodating part are connected by a communication member for flowing liquid accommodated in the gas / liquid separation tank, and when gas is supplied to the gas-liquid separation tank, the organ model expands by supplying an amount of liquid corresponding to the gas amount from the gas-liquid separation tank to the liquid accommodating part, and when gas is sucked from the gas-liquid separation tank, the organ model contracts by sucking an amount of liquid corresponding to the gas amount from the liquid accommodating part to the gas-liquid separation tank.

This disclosure provides a washing machine capable of suppressing the mixing of multiple liquids and suppressing equipment malfunctions. The washing machine of this disclosure includes: an outer tub; a water supply valve; multiple tanks for containing liquids; a liquid suction unit for suctioning the liquids contained in the multiple tanks; multiple storage sections connected between the water supply valve and the multiple tanks for storing liquids suctioned from the multiple tanks; multiple discharge paths for discharging the liquids stored in the multiple storage sections into the outer tub; a switching unit that selectively connects the water supply valve to one of the multiple storage sections; a branch flow path branching off between the water supply valve and the switching unit, wherein the liquid suction unit is provided in the branch flow path; and a control unit that controls at least the switching unit.

A die coater capable of simultaneously coating a current collector with two different liquids in multiple layers includes a first body with a first manifold for an electrode slurry, a second body with a second manifold coupled to the first body to form a first slit through which the electrode slurry in the first manifold is discharged, and a third body coupled to the second body to form a second slit through which the electrode slurry in the second manifold is discharged. The first slit is formed by a first and third shim that are interposed between coupling surfaces of the first and second body, and the second slit is formed by a second and fourth shim that are interposed between coupling surfaces of the second and third body, and at least any one of the third shim and the fourth shim forms an insulating liquid slit.