Energy-saving high-pressure sterilization pot

Abstract

The utility model relates to the field of sterilization pots, in particular to an energy-saving high-pressure sterilization pot. The technical problems that a sterilization pot usually adopts a deflation valve to deflate so as to realize pressure reduction, but high-temperature hot steam can be quickly sprayed out through the deflation valve, an experimenter has the risk of being burnt, and due to the fact that the pot is used again after being cooled, high-power operation is needed again, and energy consumption of the pot is increased are solved. According to the technical scheme, the energy-saving high-pressure sterilization pot comprises a constant-temperature box, a heating module, a damping box, a control panel and a high-pressure sealing module, when pressure relief is carried out in each high-pressure sterilization, suction and ejection operations are formed through the high-pressure sealing module, effective heating, pressurizing and pressure relief operations are carried out, and after a certain degree is monitored by the pressure gauge, the aspirator gradually sucks internal high pressure into the first gas storage tank, so that not only can the pressure relief operation be carried out, but also the high pressure can be stored.

Description

Technical Field

[0001] The utility model relates to the field of sterilizing pots, in particular to an energy-saving high-pressure sterilizing pot. Background Art

[0002] Sterilizer, also known as steam sterilizer, can be divided into portable high-pressure sterilizer and vertical high-pressure sterilizer. It uses the principle of high temperature and high pressure hot water to sterilize a variety of foods at high temperature and quickly, and disinfect and sterilize medical devices, dressings, glassware, solution culture media, etc., shortening the sterilization time, thereby achieving high temperature and short-time sterilization effect and stabilizing product quality. In the process of using existing sterilizers, some experimenters often use air vent valves to vent air to achieve decompression in order to quickly take out sterilized items. However, high-temperature hot steam will be quickly ejected through the air vent valve, and the experimenters are at risk of burns. In addition, since the pot needs to be used again after it is cold, it needs to be operated at high power again, which increases its energy consumption and reduces the overall use effect. Therefore, we proposed an energy-saving high-pressure sterilizer to solve the above problems. Utility Model Content

[0003] In order to overcome the problem of autoclaves being unable to withstand the pressure drop, air vents are often used to release air to achieve pressure reduction. However, high-temperature hot steam will be ejected quickly through the air vent, posing a risk of burns to experimenters. In addition, since the autoclave needs to be used again after it has cooled, it needs to be operated at high power again, increasing its energy consumption.

[0004] The technical solution of the utility model is: an energy-saving high-pressure sterilizer, including a constant temperature box, a heating module, a shock-absorbing box, a control panel and a high-pressure sealing module; the bottom of the constant temperature box is provided with a heating module for heating and sterilization, the lower end of the heating module is provided with a shock-absorbing box for maintaining overall stability, the constant temperature box is provided with a control panel for controlling the heating module and adjusting the operating parameters of the overall structure, and the top of the constant temperature box is provided with a high-pressure sealing module that can be interlocked for sealing protection.

[0005] Preferably, when the pressure is released during each high-pressure sterilization, suction and spraying operations are formed through the high-pressure sealing module, and effective heating, pressurization and pressure relief operations are performed. After the pressure gauge monitors to a certain level, the aspirator gradually sucks the internal high pressure into the first gas storage tank, which can perform both pressure relief operations and store high pressure. When it is used again, the second electromagnetic pressure relief valve module is opened, so that the air pressure enters the second gas storage tank and is sprayed out through the air pump and released into the sterilizer through the jet sleeve, so that the sterilizer can quickly heat up and cooperate with the heating module to start quickly, thereby improving overall energy saving and maintaining overall protection performance.

[0006] Preferably, a sterilizing pot is provided in the center of the constant temperature box, and a plug-in sleeve matching the high-pressure sealing module is provided around the outer periphery of the upper end of the sterilizing pot. Pressure sensors extending into the sterilizing pot are provided on both sides of the constant temperature box, and a pressure gauge is provided at the outer end of the pressure sensor. A rotating shaft is provided in the center of the sterilizing pot, and the internal pressure changes are observed through the pressure gauge.

[0007] Preferably, a placement rack is provided in an annular manner at the outer end of the rotating shaft, a mounting hole is opened along the edge of the placement rack, and a driving motor is provided at the lower end of the placement rack. The driving motor drives the rotating shaft to drive the placement rack to rotate, thereby improving the overall use effect.

[0008] Preferably, an electromagnetic pressure relief valve module connected to the constant temperature box is provided on the top of the shock absorber box, a pressure relief pipe is provided on the outer end of the first electromagnetic pressure relief valve module, and shock absorber brackets are provided at the corners around the bottom of the shock absorber box, and the shock absorber brackets can be used to support the overall state.

[0009] Preferably, the high-pressure sealing module includes a high-pressure sealing cover, a first gas tank, a fixing plate, a connecting pipe, a second electromagnetic pressure relief valve module, an air pressure flashing light, an air pump, a connecting frame, a vibration sensor, an indicator light, a third electromagnetic pressure relief valve module, a plug-in column, a jet sleeve, a rotating rod, a driver, a metering sensor, an air pipe and a second gas tank. The first gas tank and the second gas tank are arranged relatively parallel to each other, and the side ends of the first gas tank and the second gas tank are both provided with a fixing plate connected to the constant temperature box, and the overall balance state is sensed by a vibration sensor.

[0010] Preferably, an air pump and an air aspirator are respectively provided on the top of the first gas tank and the second gas tank, an air pressure flashing light is provided on the bottom of the first gas tank and the second gas tank, an air pressure sensor is provided inside the air pressure flashing light, a connecting pipe is provided downwardly to connect the first gas tank and the second gas tank near the position of the air pressure flashing light, a second electromagnetic pressure relief valve module is provided in the middle of the connecting pipe, and a high-pressure sealing cover matching the constant temperature box is provided upwardly of the first gas tank and the second gas tank, and a driver drives the rotating rod to drive the two sets of connecting frames to swing relative to each other to drive the high-pressure sealing cover to perform a sealing operation.

[0011] Preferably, a third electromagnetic pressure relief valve module is arranged around the outer edge of the high-pressure sealing cover, a plug-in column is arranged at the lower end of the third electromagnetic pressure relief valve module, a vibration sensor is arranged at the top center of the high-pressure sealing cover, an indicator light is arranged on the top of the vibration sensor, a connecting frame connected to the constant temperature box is arranged at the outer end of the high-pressure sealing cover, the connecting frame is arranged in two groups, a rotating rod is arranged between the two groups of connecting frames, and the driver drives the rotating rod to drive the two groups of connecting frames to swing relative to each other, two groups of jet sleeves and suction sleeves are symmetrically arranged on the high-pressure sealing cover, and metering sensors are arranged on the top of the jet sleeves and the suction sleeves, and the outer ends of the jet sleeves and the suction sleeves are connected to air pipes connected to the first gas storage tank and the second gas storage tank, and the air pressure state is detected by the metering sensor.

[0012] Beneficial effects of the utility model:

[0013] 1. According to the previous method of using a bleed valve to release air to achieve decompression, high-temperature hot steam will be quickly ejected through the bleed valve, and the experimenter is at risk of being burned. In addition, since the pot needs to be used again after it has cooled down, it needs to be operated at high power again, which increases its energy consumption. The difference is that each time the high-pressure sterilization is depressurized, a suction and ejection operation is formed by the high-pressure sealing module, and effective heating, pressurization and pressure relief operations are performed. After the pressure gauge monitors to a certain level, the aspirator gradually inhales the internal high pressure into the first gas storage tank, which can perform pressure relief operations and store high pressure. When it is used again, the second electromagnetic pressure relief valve module is opened, so that the air pressure enters the second gas storage tank and is ejected through the air pump through the jet sleeve and released into the sterilization pot, so that the sterilization pot is quickly heated up and cooperates with the heating module to start quickly, thereby improving the overall energy saving and maintaining the overall protection performance.

[0014] 2. When placing certain medicines and solutions, they can be placed on the placement rack and connected through the mounting holes. The driving motor drives the shaft to drive the placement rack to rotate, thereby improving the overall use effect. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the utility model;

[0016] Figure 2 It is a schematic diagram of a thermostatic box of the utility model;

[0017] Figure 3 This is a schematic diagram of a shock absorbing box of the utility model;

[0018] Figure 4 This is a schematic diagram of a high pressure sealing module of the utility model;

[0019] Figure 5 It is a schematic diagram of the jet sleeve of the utility model.

[0020] Description of the accompanying drawings: 1. Constant temperature box; 2. Heating module; 3. Shock absorber box; 4. Control panel; 5. High-pressure sealing module; 101. Driving motor; 102. Pressure gauge; 103. Pressure sensor; 104. Rotating shaft; 105. Sterilizer; 106. Plug sleeve; 107. Placement rack; 108. Mounting hole; 301. Shock absorber bracket; 302. Pressure relief pipe; 303. First electromagnetic pressure relief valve module; 501. High-pressure sealing cover; 502. The first gas storage tank; 503, fixing plate; 504, connecting pipe; 505, second electromagnetic pressure relief valve module; 506, air pressure flashing light; 507, air pump; 508, connecting frame; 509, vibration sensor; 510, indicator light; 511, third electromagnetic pressure relief valve module; 512, plug-in column; 513, jet sleeve; 514, rotating rod; 515, driver; 516, metering sensor; 517, air pipe; 518, second gas storage tank. DETAILED DESCRIPTION

[0021] The utility model is further described below in conjunction with the accompanying drawings and embodiments.

[0022] See also Figure 1-2 The utility model provides an embodiment: an energy-saving high-pressure sterilization pot 105, including a constant temperature box 1, a heating module 2, a shock-absorbing box 3, a control panel 4 and a high-pressure sealing module 5; the bottom of the constant temperature box 1 is provided with a heating module 2 for heating and sterilization, the lower end of the heating module 2 is provided with a shock-absorbing box 3 for maintaining overall stability, the constant temperature box 1 is provided with a control panel 4 for controlling the heating module 2 and adjusting the operating parameters of the overall structure, and the top of the constant temperature box 1 is provided with a high-pressure sealing module 5 that can be buckled together for sealing protection.

[0023] See also Figure 2-4 In this embodiment, a sterilizing pot 105 is provided at the center of the thermostatic box 1, and a plug sleeve 106 matching the high-pressure sealing module 5 is provided around the outer periphery of the upper end of the sterilizing pot 105. Pressure sensors 103 that penetrate into the sterilizing pot 105 are distributed on both sides of the thermostatic box 1. A pressure gauge 102 is provided at the outer end of the pressure sensor 103. A rotating shaft 104 is provided at the center of the sterilizing pot 105. The internal pressure change is observed by the pressure gauge 102. A placement rack 107 is provided in an annular direction at the outer end of the rotating shaft 104. A mounting hole 108 is opened along the edge of the placement rack 107. A driving motor 101 is provided at the lower end of the placement rack 107. The driving motor 101 drives the rotating shaft 104 to drive the placement rack 107 to rotate, thereby improving the overall use effect.

[0024] See also Figure 3-4In this embodiment, the top of the shock absorbing box 3 is provided with an electromagnetic pressure relief valve module connected to the constant temperature box 1, the outer end of the first electromagnetic pressure relief valve module 303 is provided with a pressure relief pipe 302, and the bottom corners of the shock absorbing box 3 are all provided with shock absorbing brackets 301, and the shock absorbing brackets 301 can be used to support the overall state, and the high-pressure sealing module 5 includes a high-pressure sealing cover 501, a first air storage tank 502, a fixing plate 503, a connecting pipe 504, a second electromagnetic pressure relief valve module 505, an air pressure flashing light 506, and an air pump 5 07, connecting frame 508, vibration sensor 509, indicator light 510, third electromagnetic pressure relief valve module 511, plug-in column 512, jet sleeve 513, rotating rod 514, driver 515, metering sensor 516, air pipe 517 and second gas tank 518, the first gas tank 502 and the second gas tank 518 are arranged relatively parallel, and the side ends of the first gas tank 502 and the second gas tank 518 are both provided with a fixing plate 503 connected to the constant temperature box 1, and the overall balance state is sensed by the vibration sensor 509.

[0025] See also Figure 4-5 In this embodiment, an air pump 507 and an aspirator are respectively disposed on the top of the first gas storage tank 502 and the second gas storage tank 518, and an air pressure flashing lamp 506 is disposed on the bottom of the first gas storage tank 502 and the second gas storage tank 518. An air pressure sensor is disposed inside the air pressure flashing lamp 506, and the air pressure sensor model is BMP085. The first gas storage tank 502 and the second gas storage tank 518 are connected downwardly near the position of the air pressure flashing lamp 506 and are provided with a connecting pipe 504. A second electromagnetic pressure relief valve module 505 is disposed in the middle of the connecting pipe 504. A high-pressure sealing cover 501 matching the thermostat 1 is disposed upwardly of the first gas storage tank 502 and the second gas storage tank 518. The driver 515 drives the rotating rod 514 to drive the two sets of connecting frames 508 to swing relative to each other to drive the high-pressure sealing cover 501 to perform a sealing operation. A third electromagnetic pressure relief valve module 511 is disposed around the outer edge of the high-pressure sealing cover 501. The third electromagnetic pressure relief valve module 511 is disposed around the outer edge of the high-pressure sealing cover 501. A plug-in column 512 is provided at the lower end of the module 511, a vibration sensor 509 is provided at the top center of the high-pressure sealing cover 501, an indicator light 510 is provided at the top of the vibration sensor 509, and the model of the vibration sensor 509 is AC-100. A connecting frame 508 connected to the constant temperature box 1 is provided at the outer end of the high-pressure sealing cover 501. The connecting frame 508 is provided in two groups. A rotating rod 514 is provided between the two groups of connecting frames 508. The driver 515 drives the rotating rod 514 to drive the two groups of connecting frames 508 to swing each other. Two groups of jet sleeves 513 and suction sleeves are symmetrically provided on the high-pressure sealing cover 501. The tops of the jet sleeves 513 and the suction sleeves are both provided with metering sensors 516. The outer ends of the jet sleeves 513 and the suction sleeves are connected to an air pipe 517 connected to the first gas tank 502 and the second gas tank 518. The air pressure state is detected by the metering sensor 516. The model of the metering sensor 516 is SG-NZ-KD1.

[0026] When working, by adjusting the control panel 4 to the appropriate parameters, the driver 515 drives the rotating rod 514 to drive the two sets of connecting frames 508 to swing each other and drive the high-pressure sealing cover 501 to perform a sealing operation, so that the third electromagnetic pressure relief valve module 511 is connected to the plug sleeve 106 through the plug column 512, and the overall balance state is sensed by the vibration sensor 509 and fed back to the indicator light 510, the heating module 2 starts to start, and the internal pressure change is observed through the pressure gauge 102;

[0027] When the pressure gauge 102 monitors to a certain extent, the aspirator gradually sucks the internal high pressure into the first gas tank 502, which can both relieve pressure and store high pressure. When it is used again, the second electromagnetic pressure relief valve module 505 is opened, allowing the air pressure to enter the second gas tank 518 and be sprayed out by the jet sleeve 513 through the air pump 507 and released into the sterilizing pot 105. The air pressure state is detected by the metering sensor 516, so that the sterilizing pot 105 is quickly heated up and cooperates with the heating module 2 to start quickly.

[0028] Through the above steps, when the pressure is released each time during high-pressure sterilization, the high-pressure sealing module 5 forms a suction and ejection operation, and performs effective heating, pressurization and pressure relief operations. After the pressure gauge 102 monitors to a certain level, the aspirator gradually inhales the internal high pressure into the first gas storage tank 502, which can perform both pressure relief operations and store high pressure. When it is used again, the second electromagnetic pressure relief valve module 505 is opened, so that the air pressure enters the second gas storage tank 518 and is ejected by the jet sleeve 513 through the air pump 507 and released into the sterilizing pot 105, so that the sterilizing pot 105 heats up quickly and cooperates with the heating module 2 to start quickly, thereby improving the overall energy saving and maintaining the overall protection performance.

[0029] The embodiments of the present invention are described in detail above in conjunction with the accompanying drawings, but the present invention is not limited to the above embodiments, and various changes can be made within the knowledge scope of those skilled in the art without departing from the purpose of the present invention.

Claims

1. An energy-saving high-pressure sterilizing pot, comprising a thermostatic box (1); characterized in that: The thermostatic box (1) also comprises a heating module (2), a shock absorbing box (3), a control panel (4) and a high-pressure sealing module (5); the bottom of the thermostatic box (1) is provided with a heating module (2) for heating and sterilizing, the lower end of the heating module (2) is provided with a shock absorbing box (3) for maintaining overall stability, the thermostatic box (1) is provided with a control panel (4) for controlling the heating module (2) and adjusting operating parameters of the overall structure, the top of the thermostatic box (1) is provided with a high-pressure sealing module (5) that can be mutually buckled for sealing protection, and the high-pressure sealing module (5) is provided with a control panel (4) for controlling the heating module (2) and adjusting operating parameters of the overall structure. The pressure sealing module (5) comprises a high-pressure sealing cover (501), a first air storage tank (502), a fixing plate (503), a connecting pipe (504), a second electromagnetic pressure relief valve module (505), an air pressure flashing light (506), an air pump (507), a connecting frame (508), a vibration sensor (509), an indicator light (510), a third electromagnetic pressure relief valve module (511), a plug-in column (512), an air jet sleeve (513), a rotating rod (514), and a driver (515). ), a metering sensor (516), an air pipe (517) and a second air storage tank (518), the first air storage tank (502) and the second air storage tank (518) are arranged relatively parallel, the side ends of the first air storage tank (502) and the second air storage tank (518) are both provided with a fixing plate (503) connected to the constant temperature box (1), the tops of the first air storage tank (502) and the second air storage tank (518) are respectively provided with an air pump (507) and an aspirator, the first air storage tank (502) and the second air storage tank (518) ) are provided with an air pressure flashing light (506) at the bottom, an air pressure sensor is provided inside the air pressure flashing light (506), a connecting pipe (504) is provided downwardly and close to the position of the air pressure flashing light (506) to connect the first air storage tank (502) and the second air storage tank (518), a second electromagnetic pressure relief valve module (505) is provided in the middle of the connecting pipe (504), and a high-pressure sealing cover (501) matching the thermostatic box (1) is provided upwardly and connected to the first air storage tank (502) and the second air storage tank (518).

2. An energy-saving high-pressure sterilizer according to claim 1, characterized in that: An autoclave (105) is provided at the center of the thermostatic box (1), a plug sleeve (106) matching the high-pressure sealing module (5) is provided around the upper periphery of the autoclave (105), pressure sensors (103) extending deep into the autoclave (105) are provided on both sides of the thermostatic box (1), a pressure gauge (102) is provided at the outer end of the pressure sensor (103), and a rotating shaft (104) is provided at the center of the autoclave (105).

3. An energy-saving high-pressure sterilizer according to claim 2, characterized in that: A placement frame (107) is provided in a circular manner at the outer end of the rotating shaft (104), a mounting hole (108) is provided along the upper edge of the placement frame (107), and a driving motor (101) is provided at the lower end of the placement frame (107), and the driving motor (101) drives the rotating shaft (104) to drive the placement frame (107) to rotate.

4. The energy-saving high-pressure sterilizer according to claim 1, characterized in that: An electromagnetic pressure relief valve module connected to the thermostatic box (1) is provided on the top of the shock absorbing box (3), a pressure relief pipe (302) is provided at the outer end of the first electromagnetic pressure relief valve module (303), and shock absorbing brackets (301) are provided at the corners around the bottom of the shock absorbing box (3).

5. The energy-saving high-pressure sterilizer according to claim 1, characterized in that: A third electromagnetic pressure relief valve module (511) is arranged around the outer edge of the high-pressure sealing cover (501), a plug-in column (512) is arranged at the lower end of the third electromagnetic pressure relief valve module (511), a vibration sensor (509) is arranged at the top center of the high-pressure sealing cover (501), an indicator light (510) is arranged at the top of the vibration sensor (509), and a connecting frame (508) connected to the thermostatic box (1) is arranged at the outer end of the high-pressure sealing cover (501), and the connecting frame (508) is arranged in two groups, and the two groups A rotating rod (514) is provided between the connecting frames (508), and a driver (515) drives the rotating rod (514) to drive the two sets of connecting frames (508) to swing relative to each other. Two sets of jet sleeves (513) and air suction sleeves are symmetrically provided on the high-pressure sealing cover (501). Measuring sensors (516) are provided on the tops of the jet sleeves (513) and the air suction sleeves. The outer ends of the jet sleeves (513) and the air suction sleeves are connected to an air pipe (517) connected to the first air storage tank (502) and the second air storage tank (518).

Images