33results about How to "High storage pressure" patented technology

The invention discloses a hybrid power underwater glider using battery electric energy and ocean temperature difference energy. The hybrid power underwater glider comprises a front immersion cabin section, a front pressure-resistant cabin section, a middle pressure-resistant cabin section, a rear pressure-resistant cabin section, a rear immersion cabin section, heat exchangers and horizontal wings, wherein the cabin sections are fixedly connected in sequence along a cylindrical rotation axis to form a hybrid power underwater glider body part, the heat exchangers are externally hung on a bellypart of the body, the horizontal wings are horizontally arranged on two sides of the rear pressure-resistant cabin section, the hybrid power underwater glider battery pack has two degrees of freedom of translation and rotation, and can be used for adjusting a pitching attitude angle and a course angle of the underwater glider; a hydraulic device in the main machine body and the heat exchangers form a hydraulic oil path, and in the diving preparation stage of the hybrid power underwater glider, an oil return path works, in the diving gliding stage, a solidification oil path works, in the floating conversion stage, the energy release oil way and the oil pumping oil way work, and in the floating gliding stage, the energy storage oil way works, and the buoyancy driving process is completed bycompounding two forms of energy, namely battery electric energy and ocean temperature difference energy.

An air storage system (1) for an air suspension system (2) in a large vehicle (3), comprising at least one tire (100), preferably at least one set of tires, provided on an axle (35) of the vehicle (3); wherein the system comprises air control means (200) adapted for selectively controlling the input and output of air from said at least one tire (100) to said air suspension system (2) based on data signals at least representing air pressure in said at least one tire (100) at least when said tire is idle, i.e. not engaged in driving.

The invention discloses an intelligent coal sample storage, sample checking, feedback and supervision system, relates to the technical field of coal sample storage, sample checking, feedback and supervision, and solves the technical problem that multiple data analysis cannot be performed corresponding to coal sample checking in the prior art. The location of storage cabinets for coal samples is determined, coal sample storage abnormity caused by position abnormity of the storage cabinets is prevented, and abrasion of the storage cabinets in the operation process is reduced, so that the operation life of the storage cabinets is prolonged; operation monitoring is performed on the storage cabinets in a selected area, so that the operation sequence of the storage cabinets is improved, and the situation that the storage efficiency is reduced due to disordered operation of the storage cabinets is prevented; environment analysis monitoring is performed on the storage cabinets for sample checking, and the influence of the storage cabinet environment on coal samples is judged; whether the coal samples are abnormally stored in the corresponding sample checking storage cabinets or not is judged; therefore, the state of the coal samples stored in the sample checking storage cabinets in real time is judged, and the qualification of the coal samples is improved.

The invention discloses a compressed air cooling device and method for a silk weaving machine. The compressed air cooling device and method for the silk weaving machine comprises an air compressor, anair storage tank and a cooling structure. The cooling structure comprises a first pipeline, a second pipeline and a condensation assembly; the two ends of the condensation assembly communicate with the first pipeline and the second pipeline separately; the first pipeline communicates with the air compressor; the second pipeline communicates with the air storage tank; and air compressed by the aircompressor passes through the condensation assembly, and the condensation assembly makes contact with cooling liquid for cooling. As the compressed air is led into the condensation assembly and the condensation assembly makes contact with flowing water for cold-heat exchange, the size of the compressed air is reduced, the volume of an air storage chamber is reduced, the air storage pressure is improved, power of the silk weaving machine is met accordingly, the problem that power of the silk weaving machine is insufficient due to small air pressure in summer is solved, meanwhile, the number offacilities is reduced, the facility utilization rate is increased, the cooling effect is good, pollution to the environment is reduced, and the energy consumption and production cost of enterprises are reduced.

The invention discloses a pneumatic device for a robot and a ball hitting mechanism. The pneumatic device comprises a connecting plate, an inflation unit, an air storage unit, an air pressure sensing unit, and an air output unit, wherein the surface of the connecting plate is provided with a plurality of interfaces which form channels in the connecting plate; the inflation unit comprises a high pressure ball valve, and is in sealed connection with a first interface in the interfaces; the air storage unit is in sealed connection with a second interface in the interfaces; the air pressure sensing unit is in sealed connection with a third interface in the interfaces; the air output unit comprises a solenoid valve and is in sealed connection with a fourth interface in the interfaces; and the connecting plate, the inflation unit, the air storage unit, the air pressure sensing unit and the air output unit form an enclosed air path when the high pressure ball valve and the solenoid valve are closed. The pneumatic device has high air storage pressure and high adjustability of shooting action and shooting force and is low in cost.

The invention is a compressed gas energy storage and recovery system and method, of AACAES type. The system and the method according to the invention heats at constant volume stored compressed gas to increase the pressure of the stored compressed gas.

The invention discloses a high-pressure gas storage device which is characterized by comprising a first cylinder and a second cylinder, wherein a first containing cavity is formed in the first cylinder and is used for storing gas with the highest pressure of P1; a second containing cavity is formed in the second cylinder; the first cylinder is arranged in the second containing cavity of the second cylinder; a gap is formed between the outer wall of the first cylinder and the inner wall of the second cylinder and is used for storing gas with the highest pressure of P2; and P1 is higher than P2. According to the invention, the gas with high pressure is stored in the first containing cavity, and gas with secondary high pressure is stored between the first cylinder and the second cylinder. The pressure difference of the gas inside and outside the first cylinder is smaller than or equal to pressure which can be born by the first cylinder, gas support is provided for the first cylinder by utilizing the gas pressure in a cavity of the gap between the first cylinder and the second cylinder, and the pressure difference borne by the first cylinder is reduced, so that the storage pressure inside the first cylinder is enhanced.

The invention relates to a hydraulic system for an automatic transmission of a motor vehicle, the hydraulic system having a high-pressure circuit (H) in which a pressure accumulator (25), at least one clutch (K1, K2) and a gear are arranged Regulators (G1 to G4) and hydraulic pump (53), which can be actuated by the electronic control unit (39), by means of which the accumulating pressure (p) in the high-pressure circuit (H) can be increased during boost operation S ), wherein a clutch valve (35), which can be actuated by a control unit (39), is arranged in the clutch line (30, 31) between the pressure accumulator (25) and the clutch cylinder (23) of the clutch (K1, K2) , with which the hydraulic pressure present at the clutch hydraulic cylinder ( 23 ) can be regulated, and wherein upstream of the clutch valve ( 25 ) is arranged a safety valve ( 28 ) which can be actuated by the control unit ( 39 ), the safety valve being in the closed position The clutch lines ( 30 , 31 ) are decoupled from the pressure accumulator ( 25 ) in terms of pressure and the accumulated pressure (p S ) loads the clutch lines (30, 31). According to the invention, the control unit (39) has a diagnostic module (79) by means of which a safety valve diagnosis can be performed, in which the safety valve (28) is checked.

The invention discloses a composite power underwater glider using battery electric energy and ocean temperature difference energy. The main part of the composite power underwater glider is composed of the main body of the composite power underwater glider, and the cabin section is fixed in sequence along the axis of rotation of the cylinder. The heat exchanger is hung on the belly of the main body, and the horizontal wings are arranged horizontally on both sides of the rear pressure cabin. The battery pack of the composite power underwater glider has two degrees of freedom of translation and rotation, and can adjust the pitch angle and heading angle of the underwater glider. The hydraulic components and the heat exchanger in the main body constitute the hydraulic oil circuit. During the diving preparation stage of the composite power underwater glider, the oil return circuit works; during the diving gliding stage, the solidification oil circuit works; The pumping oil circuit works; in the floating gliding stage, the energy storage oil circuit works to realize the buoyancy driving process by combining energy in the form of battery electric energy and ocean temperature difference energy.

The present invention relates to the technical field of internal combustion engines in hybrid electric vehicles, and in particular to an engine compressed air supply system with the characteristics of compressed air in-cylinder direct injection, an engine and an engine control method. The injection nozzles and high-pressure compressed air nozzles, the injection ports of the high-pressure fuel direct injection nozzles and high-pressure compressed air nozzles are directly located on the top of the combustion chamber, the spark plug and the high-pressure fuel direct injection nozzles are connected with the electronic control module, and the cylinder head of the cylinder block is equipped with Exhaust valve, there is an exhaust valve on the exhaust valve, a camshaft to control the opening and closing of the exhaust valve is also arranged on the cylinder head, a camshaft phase sensor is arranged above the camshaft, and the camshaft phase sensor is connected with the electronic control module , to realize the performance balance of high thermal efficiency and high power output under different rotational speed and load conditions of the engine.

The invention discloses a pneumatic device for a robot and a ball hitting mechanism. The pneumatic device comprises a connecting plate, an inflation unit, an air storage unit, an air pressure sensing unit, and an air output unit, wherein the surface of the connecting plate is provided with a plurality of interfaces which form channels in the connecting plate; the inflation unit comprises a high pressure ball valve, and is in sealed connection with a first interface in the interfaces; the air storage unit is in sealed connection with a second interface in the interfaces; the air pressure sensing unit is in sealed connection with a third interface in the interfaces; the air output unit comprises a solenoid valve and is in sealed connection with a fourth interface in the interfaces; and the connecting plate, the inflation unit, the air storage unit, the air pressure sensing unit and the air output unit form an enclosed air path when the high pressure ball valve and the solenoid valve are closed. The pneumatic device has high air storage pressure and high adjustability of shooting action and shooting force and is low in cost.

The invention provides a line-type temperature-sensing self-starting extra-high-pressure fire extinguishing agent release device. The release device is characterized in that a cavity of a sprayer valve body is internally provided with an impactor and an impact cutting head, one end of the sprayer valve body is provided with a sprayer and the other end is provided with a diaphragm; an upper hole at the middle part of the sprayer valve body is provided with a line-type temperature-sensing detection tube and a piston, and a lower hole at the middle part of the sprayer valve body is provided with a microswitch; the rear end of a piston shell is provided with a safety pin and a shaft pin, the shaft pin is connected with a transmission shaft, the tail end of a transmission sleeve is radially provided with a half-moon shaft and is positioned by a cotter pin radially passing through the half-moon shaft, so that an entity in a concave part of the half-moon shaft pushes against a boss part of the impactor for realizing positioning; and a cavity of the rear end of the piston is internally provided with a reset spring which is positioned in the upper hole through a nut. When the ambient temperature reaches or exceeds a set value, the line-type temperature-sensing detection tube explodes to release pressure to enable the reset spring to push the piston to move, drive the displacement of the half-moon shaft, enable the impactor to fall off and enable the impact cutting head to quickly impact diaphragm to realize punching, and thus the release device can be started for extinguishing fire. In addition, the storage pressure of the fire extinguishing agent is 2-30 MPa, no power supply is needed, the line-type temperature-sensing detection tube has a large protection range and the storage pressure of the fire extinguishing agent is high.

The invention discloses a hitting device, and a ball hitting mechanism and a ball kicking robot employing the hitting device. The hitting device comprises a base, an execution unit, a cylinder and a position regulating unit, wherein the base comprises a hitting hole; the execution unit comprises a position regulating seat fixed on the base and a hitting rod pivoted with the position regulating seat; the hitting rod is connected with the base through an elastic element; the cylinder is fixed on the base through a cylinder fixing plate; the hitting rod moves along the reciprocation of the piston head of the cylinder; the position regulating unit comprises a regulating nut fixed on the position regulating seat, a screw rod in screw joint with the regulating nut and at least two guide rods parallel to the screw rod; one end of the screw rod is coupled with a motor; one end of each guide rod penetrates through a linear bearing and is fixed on the base, and the other end of the guide rod is fixed on a guide post mounting plate; the motor is connected with an encoder; and the guide post mounting plate and the base are respectively provided with a sensor. The invention has the advantages of high stored air pressure, high adjustability of shooting action and force, and low cost.

The invention relates to a low-temperature high-pressure hydrogen storage pressure vessel and a using method thereof.The pressure vessel comprises a vessel body, and the vessel body comprises a metal inner container, a reinforced braid layer, a heat exchange guide pipe, a cold insulation layer and an outer sheath layer; the metal inner container comprises a bottle body and a bottle opening formed in one end of the bottle body. The reinforced braid layer, the cold insulation layer and the outer sheath layer are sequentially arranged outside the metal liner from inside to outside in a sleeving manner and avoid the bottle opening; the heat exchange guide pipe is located between the reinforced braid layer and the cold insulation layer and surrounds the side wall and the bottom of the metal inner container, the two ends of the heat exchange guide pipe extend out of the top of the container body, and the two ends of the heat exchange guide pipe are located on the two sides of the opening of the container body.

The invention relates to a hydraulic system for an automatic transmission, in particular a dual-clutch transmission, of a motor vehicle, comprising the hydraulic cylinder (22, 23) of at least one clutch (K1, K2) and of gear selectors (G1 to G4), which hydraulic system has a pressure accumulator (25) for providing an accumulator pressure (pS) in the hydraulic system, wherein, in at least one clutchpath (30, 31) leading from the pressure accumulator (25) to the clutch hydraulic cylinder (23), a clutch valve (35), which can be controlled by an electronic control unit (39) and by means of which ahydraulic pressure present at the clutch hydraulic cylinder (23) can be set, and a pressure sensor (34), by means of which the hydraulic pressure present at the clutch hydraulic cylinder (23) can besensed, are arranged, and comprising a charging hydraulic pump (53), which, in a charging operation, pumps hydraulic fluid into the hydraulic system in order to increase the actual accumulator pressure (pS). According to the invention, the control unit (39) has a diagnostic module (79), by means of which a preload pressure diagnosis can be performed, in which the diagnostic module (79) checks charging behavior of the pressure accumulator (25) by using the pressure sensor (34) arranged in the clutch path (30, 31).

The invention provides a fiber winding device of a pressure vessel and a method. The device comprises a pressure vessel clamping device, an annular winding device, a spiral winding device and a control device. The pressure vessel clamping device drives a pressure vessel inner container to move and rotate simultaneously to penetrate through the spiral winding device to complete spiral winding. And then the pressure container inner container is kept static, the annular winding device moves to penetrate through the pressure container inner container to complete annular winding, and the control device controls the winding process to be automatically carried out. According to the device, automation of the whole fiber winding process can be achieved; and meanwhile, a novel multi-bundle winding technology is provided, the undesirable phenomenon of single-bundle winding is overcome, on the premise that the performance of the pressure vessel is guaranteed, the use quantity of carbon fiber materials is reduced, and then the production cost of the pressure vessel is reduced. And the storage pressure and the production efficiency of the pressure container are improved.