An intelligent laboratory management system based on safety monitoring function

Abstract

The present invention relates to the technical field related to laboratory equipment, and discloses a laboratory intelligent management system based on safety monitoring function, including a laboratory bench, an operating table provided on the laboratory bench, a first shell provided at the upper end of the operating table, and a collection and processing component provided inside the first shell; the present invention can use the first inclined plate and the second inclined plate to form an S-shaped channel in the middle of the interior of the second shell, thereby extending the travel of the toxic gas in the second shell, which is beneficial to improving the effect of treating the toxic gas; then the conical cover moves downward to the top of the source of the harmful gas, reducing the diffusion of the toxic gas into the laboratory; finally, by reducing the width of the S channel in the second shell, so as to increase the height of several adsorption particles in the second shell, further improving the contact time between the toxic gas and the several adsorption particles, which is beneficial to improving the effect of the collection and processing component on treating the toxic gas according to the amount of the toxic gas.

Description

Technical Field

[0001] The present invention belongs to the technical field related to laboratory equipment, and more specifically, relates to a laboratory intelligent management system based on safety monitoring function. Background Art

[0002] Experiments are an essential part of the scientific research process. With the continuous expansion and deepening of scientific research, safe and intelligent laboratories have also become a necessary condition for scientific research. In order to minimize potential occupational hazards in the laboratory and create a healthy and safe working environment, the protection objects of intelligent and safe laboratories include the safety of personnel, samples, instruments, operating systems and the environment. Because laboratories need to conduct a large number of experiments, they will use different experimental equipment and reagents. During the experiment, if the operation is improper or the experiment is not effectively controlled, toxic and harmful gases may be generated. If they are not discovered in time, they will affect the health of the staff. However, the laboratory equipment in the existing technology has the following defects:

[0003] 1. In the existing technology, some harmful gases may leak during chemical experiments, so it is necessary to install safety monitoring equipment to monitor the harmful gases in real time. However, the existing laboratory intelligent management system only has the function of alarm reminder and cannot collect and process the harmful gases. The harmful gases in the laboratory may be emitted outside the laboratory, posing a danger to the surrounding area.

[0004] 2. In the existing technology, the harmful gas inside the laboratory contains some dust particles and harmful gases. If these dust particles and harmful gases are not treated and are directly discharged into the atmosphere, they will not only pollute the atmosphere, but also affect the health of surrounding workers and reduce the safety of laboratory work;

[0005] 3. In the existing technology, the laboratory intelligent management system cannot adjust the processing structure according to the amount of harmful gases when processing harmful gases. As a result, when a large amount of harmful gases are generated in chemical experiments, the processing components are difficult to adjust the processing effect according to the amount of harmful gases, resulting in poor processing effect on a large amount of harmful gases. It is easy to discharge toxic gases that are not fully treated, which will not only pollute the atmosphere, but also affect the health of surrounding workers, reducing the safety of laboratory work.

[0006] Therefore, in view of this, the existing structure and deficiencies are studied and improved, and a laboratory intelligent management system based on safety monitoring function is provided in order to achieve a more practical and valuable purpose. Summary of the Invention

[0007] The present invention provides a laboratory intelligent management system based on safety monitoring function, which is used to overcome the above-mentioned defects in the prior art.

[0008] The purpose and efficacy of the laboratory intelligent management system based on safety monitoring function of the present invention are achieved by the following specific technical means:

[0009] A laboratory intelligent management system based on safety monitoring function includes a laboratory bench, an operating table is provided on the laboratory bench, an alarm is installed on the upper end of the laboratory bench, a first shell is provided on the upper end of the operating table, a collection and processing component is provided inside the first shell, and a control panel is provided on one side of the lower part of the operating table; the collection and processing component includes a second shell, a telescopic tube is provided on the lower side of the second shell, a conical cover is provided at the lower end of the telescopic tube, two first slides are symmetrically slidably provided inside the second shell, a second slide is slidably provided at the lower part of the first slide, a first inclined plate and a second inclined plate are fixed on the two side walls of the second shell, a first inclined slide is slidably provided at each end of the first inclined plate, a second inclined slide is slidably provided at each end of the second inclined plate, a connecting plate is connected to the two side walls of the second shell on the side away from each other, a pressure plate is slidably provided on the upper side of the interior of the second shell, a gas detector is installed on the lower side of the interior of the second shell, a plurality of adsorption particles are placed in the middle of the interior of the second shell, and a plurality of first through holes are provided at the inclined lower end of the first inclined plate.

[0010] A further technical solution is that an air pump is installed on one side of the interior of the first shell, one end of the air pump is connected to the upper side of the interior of the second shell, a round tube is fixed in the middle of the pressure plate, an S-shaped channel is formed in the middle of the interior of the second shell through the first inclined plate and the second inclined plate, a first spring is connected between the upper side of the second slide and the interior of the first slide, a second spring is provided on each side of the two first inclined slides close to each other and the two sides of the interior of the first inclined plate, and a third spring is provided on each side of the two second inclined slides close to each other and the two sides of the interior of the second inclined plate.

[0011] A further technical solution is that the second shell is fixed in the middle of the interior of the first shell, the first inclined plate is located between the two first slides, the second inclined plate is located between the two first slides, one end of the connecting plate is rotatably connected to one side of the first slide, and the other end of the connecting plate is rotatably connected to the side wall of the second shell, and several of the adsorption particles are located on the inclined upper side of the first inclined plate, and a cover plate is provided at the upper end of the first shell.

[0012] A further technical solution is that a fixed cylinder is fixedly provided on one side of the interior of the first shell, a rotating cylinder is rotatably provided inside the fixed cylinder, and a plurality of groups of L-shaped plates are provided in an internal circumferential array of the rotating cylinder, a square frame is slidably provided in each group of the L-shaped plates, and an inclined movable plate is slidably provided on one side of the interior of the square frame, an outlet and an inlet are provided on one side wall of the second shell, the outlet is located above the inclined lower end of the first inclined plate, and the inlet is located above the inclined upper end of the second inclined plate, and a plurality of inlets and outlets are provided in a circumferential array on a side wall of the fixed cylinder close to the second shell direction, a square folding part is connected between one side of the square frame and an inner side wall of the rotating cylinder, a first push rod is fixedly provided on the other side of the square frame, and a fourth spring is connected between the other side of the square frame and the other inner side wall of the rotating cylinder, a first guide ring is fixedly provided on one side wall of the first shell, and one end of the first push rod is in sliding contact with a side portion of the first guide ring.

[0013] A further technical solution is that one side of the first guide ring includes a first planar portion, a second planar portion, and two inclined portions, the distance between the first planar portion of the first guide ring and one side of the rotating cylinder is relatively close, the distance between the second planar portion of the first guide ring and one side of the rotating cylinder is relatively far, and a plurality of first protrusions are spaced apart on the second planar portion of the first guide ring, and one end of the first push rod is in sliding contact with the outside of the plurality of first protrusions.

[0014] A further technical solution is that a second push rod is fixedly provided on one side of the inclined movable plate, a second guide ring is fixedly provided on an outer side wall of the second shell, a first arc block is fixedly provided on one side of the outer wall of the second guide ring, one side of the first arc block is a sloped structure, a number of second protrusions are spaced apart on the slope of the first arc block, and one end of the second push rod is in sliding contact with the slope of one side of the first arc block.

[0015] A further technical solution is that two first V-shaped elastic members are symmetrically provided on both sides of the interior of the square frame, one end of the first V-shaped elastic member is fixedly connected to the side wall of the square frame, and the other end of the first V-shaped elastic member is connected to the inclined surface of the inclined movable plate. A rubber plate is respectively provided in the middle of the two first V-shaped elastic members, and a second V-shaped elastic member is connected between one ends of the two rubber plates, and a plurality of second through holes are provided at intervals on the second V-shaped elastic member.

[0016] A further technical solution is that every four L-shaped plates form a group, and every four L-shaped plates are in sliding contact with the four corners of the square frame respectively; a plurality of first openings are provided in a circular array on the outer wall of the rotating cylinder; a second opening is provided on the lower side of the outer wall of the fixed cylinder; a third opening is provided on a side wall of the square frame close to the direction of the second V-shaped elastic member; a collection box is provided on one side of the interior of the first shell, and the collection box is located below the second opening; a heater is provided on one side of the interior of the first shell.

[0017] A further technical solution is that a second arc block is fixedly provided on the upper side of the outer wall of the second guide ring, one end of the second push rod is in sliding contact with the outer wall of the second arc block, a number of third protrusions are fixedly provided on the outer wall of the second arc block, and a stepper motor is installed on the side wall of the interior of the first shell close to the direction of the fixed cylinder, and the output end of the stepper motor is fixedly connected to one side of the rotating cylinder.

[0018] A further technical solution is that a U-shaped plate is connected between one side of the pressure plate and one side of the outer wall of the conical cover, a movable plate is fixedly provided on the middle side of the U-shaped plate, an electric telescopic rod is provided on the inner side of the first shell, the protruding end of the electric telescopic rod is fixedly connected to the lower side of the movable plate, a slide groove is provided on one side wall of the second shell, one end of the U-shaped plate slides vertically in the slide groove, and a folding part is connected between the lower side of one end of the U-shaped plate and the lower side of the slide groove.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] The present invention provides a laboratory intelligent management system based on a safety monitoring function. By setting a first inclined plate and a second inclined plate, an S-shaped channel is formed in the middle of the interior of the second shell by using the first inclined plate and the second inclined plate, thereby extending the travel of the toxic gas in the second shell, which is beneficial to improving the effect of treating the toxic gas. Then, by setting a conical cover and a telescopic tube, the electric telescopic rod contracts to drive the movable plate and the U-shaped plate to move downward, and the downward movement of the U-shaped plate drives the conical cover to move downward, and the downward movement of the conical cover stretches the telescopic tube. This is so that the conical cover is close to the source of the harmful gas and reduces the diffusion of toxic gas into the laboratory. Finally, by setting a pressure plate, a first slide plate, and a connecting plate, the downward movement of the U-shaped plate drives the downward movement of the pressure plate, and the downward movement of the pressure plate drives the two first slide plates downward, so that the two first slide plates are respectively guided by the rotation of the two connecting plates, thereby bringing the two first slide plates closer to each other. The two first slides approach each other, driving the two second slides to approach each other, thereby reducing the width of the S channel in the second shell, so as to increase the height of the multiple adsorption particles in the second shell, further increasing the contact time between the toxic gas and the multiple adsorption particles, and facilitating improving the effect of the collection and treatment component on the treatment of the toxic gas according to the amount of the toxic gas, thereby avoiding the occurrence of insufficiently treated gas.

[0021] The present invention provides a laboratory intelligent management system based on a safety monitoring function. The rotating drum and square frames are configured such that the rotating drum rotates and drives the square frames to move sequentially toward the outlet side, thereby allowing adsorbed particles at the lower end of an S-shaped channel in a second housing to enter the square frames. Furthermore, the square frames are sequentially moved toward the inlet side, allowing the adsorbed particles in the square frames to move through the inlet to the upper end of the S-shaped channel in the second housing. This allows the adsorbed particles to continuously move from top to bottom within the S-shaped channel in the second housing, thereby ensuring that all adsorbed particles in the S-shaped channel in the second housing fully come into contact with toxic gases. This prevents the adsorbed particles in the S-shaped channel in the second housing from contacting the toxic gases in different ways, extending the service life of the adsorbed particles in treating toxic gases. Furthermore, the adsorbed particles can be uniformly replaced, reducing waste. Furthermore, through the configuration of a first push rod, a first guide ring, a first protrusion, and a fourth spring, one end of the second push rod is guided by the second protrusions, causing the second push rod and the tilting movable plate to move radially outward. The radial outward movement of the tilting movable plate squeezes two first V-shaped elastic members, causing them to deform and bring the two rubber plates closer together. The two rubber plates approach each other, squeezing and deforming the second V-shaped elastic member. This causes the inclined movable plate, the two rubber plates, and the second V-shaped elastic member to converge toward the center, squeezing the adsorbent particles within the square frame toward the center. The mutual squeezing and friction between the adsorbent particles removes impurities adsorbed on the particles, extending the lifespan of the particles. Furthermore, the radial back-and-forth movement of the inclined movable plate, combined with the alternating approach and separation of the two rubber plates and the squeezing and deformation and recovery of the second V-shaped elastic member, shakes and redistributes the adsorbent particles within the square frame, deforming the positions of the adsorbent particles in multiple directions and facilitating full contact between the particles and the toxic gas.

[0022] The present invention provides a laboratory intelligent management system based on a safety monitoring function. Through the arrangement of a second arc block, a third protrusion, a second push rod, a tilted movable plate, and a first V-shaped elastic member, the square frame revolves to drive the second push rod to revolve, so that one end of the second push rod slides on the outer wall of the second arc block. Under the guidance of the second arc block, the second push rod and the tilted movable plate are moved radially outward in a large range. One end of the second push rod is guided by a plurality of third protrusions, so that the second push rod and the tilted movable plate are moved radially outward in a small range. The tilted movable plate compresses the first V-shaped elastic member in a small radial outward range to generate elastic force. Under the elastic force of the first V-shaped elastic member, when one end of the second push rod contacts the elastic force of the third protrusion, the tilted movable plate is moved radially inward in a small range. Therefore, under the guidance of the second arc block and the plurality of third protrusions and the elastic force of the two first V-shaped elastic members, the second push rod and the tilted movable plate are moved radially outward in a large range. At the same time, the tilted movable plate is moved radially back and forth in a small range. The inclined movable plate is used to perform an inclined guiding effect on the plurality of adsorption particles in the square frame, and the inclined movable plate is shaken to enable the plurality of adsorption particles to quickly pass through the inlet and return to the upper end of the S-shaped channel in the second shell, so that the plurality of adsorption particles are continuously moved from top to bottom in the S-shaped channel in the second shell, so that the plurality of adsorption particles in the S-shaped channel in the second shell are fully in contact with the toxic gas, avoiding different situations in which the plurality of adsorption particles located in the S-shaped channel in the second shell are in contact with the toxic gas, extending the service life of the plurality of adsorption particles in treating the toxic gas, and at the same time being conducive to unified replacement of the plurality of adsorption particles, reducing waste of adsorption particles. BRIEF DESCRIPTION OF THE DRAWINGS

[0023] In order to more clearly illustrate the embodiments of the invention or the technical solutions in the prior art, the following briefly introduces the drawings required for use in the embodiments or the description of the prior art. Obviously, the drawings described below are only some embodiments of the invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying any creative work.

[0024] The present invention will be further described below with reference to the accompanying drawings and examples.

[0025] Figure 1 It is a first isometric structural diagram of the present invention;

[0026] Figure 2 It is a second isometric structural diagram of the present invention;

[0027] Figure 3 This is an isometric structural diagram of the operating table of the present invention;

[0028] Figure 4 It is an isometric structural diagram of the collection and processing component of the present invention;

[0029] Figure 5 This is an isometric structural diagram of the internal structure of the second shell in the present invention;

[0030] Figure 6 Schematic diagram of the isometric structure of the first guide ring in the present invention;

[0031] Figure 7 Schematic diagram of the isometric structure of the second guide ring in the present invention;

[0032] Figure 8 Schematic diagram of the top view of the operating table in the present invention;

[0033] Figure 9 for Figure 8 Schematic diagram of the cross-sectional structure at AA in the middle;

[0034] Figure 10 for Figure 9 Schematic diagram of the local enlarged structure at D in the middle;

[0035] Figure 11 for Figure 9 Schematic diagram of the local enlarged structure at E in the middle;

[0036] Figure 12 Schematic diagram of the front structure of the first shell in the present invention;

[0037] Figure 13 for Figure 12 Schematic diagram of the cross-section structure at the middle BB;

[0038] Figure 14 for Figure 12 Schematic diagram of the cross-section structure at CC in the middle;

[0039] Figure 15 for Figure 14 Schematic diagram of the local enlarged structure at F in the middle.

[0040] Description of reference numerals:

[0041] Laboratory table 10, operating table 11, control panel 12, alarm 13, first shell 14, cover 15, conical cover 16, telescopic tube 17, second shell 18, outlet 19, inlet 20, pressure plate 21, round tube 22, first slide 23, second slide 24, first inclined plate 25, first inclined slide 26, second inclined plate 27, second inclined slide 28, connecting plate 29, first through hole 30, first spring 31, second spring 32, third spring 33, gas detector 36, U-shaped plate 37, movable plate 38, electric telescopic rod 39, vacuum pump 40, slide 41, folding member 4 2. Stepper motor 43, fixed cylinder 44, rotating cylinder 45, L-shaped plate 46, square frame 47, first opening 48, second opening 49, collecting box 50, heater 52, square folding part 53, inlet and outlet 54, tilting movable plate 55, first push rod 57, second push rod 58, first guide ring 59, first protrusion 60, second guide ring 61, first arc block 62, second protrusion 63, second arc block 64, third protrusion 65, first V-shaped elastic member 66, rubber plate 67, second V-shaped elastic member 68, second through hole 69, third opening 70, adsorption particles 72, fourth spring 73. DETAILED DESCRIPTION

[0042] The following embodiments of the present invention are described in further detail with reference to the accompanying drawings and examples. The following examples are used to illustrate the present invention but are not intended to limit the scope of the present invention.

[0043] In the description of the present invention, unless otherwise specified, "plurality" means two or more; terms such as "upper," "lower," "left," "right," "inner," "outer," "front end," "rear end," "head," and "tail" indicate positions or relationships based on those shown in the accompanying drawings. These terms are intended solely to facilitate the description of the present invention and simplify the description. They do not indicate or imply that the devices or components referred to must have a specific orientation, be constructed, or operate in a specific orientation. Therefore, they should not be construed as limiting the present invention. Furthermore, terms such as "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0044] In the description of the present invention, it should be noted that, unless otherwise expressly specified or limited, the terms "connected" and "connection" should be understood in a broad sense. For example, they can refer to fixed connection, detachable connection, or integral connection; mechanical connection, electrical connection; direct connection, or indirect connection through an intermediary. Those skilled in the art will understand the specific meanings of the above terms in the present invention based on the specific circumstances.

[0045] As attached Figure 1 To the attached Figure 15 As shown:

[0046] The present invention provides a laboratory intelligent management system based on safety monitoring function.

[0047] Refer to the attached Figure 1 To the attached Figure 15 , including a laboratory table 10, an operating table 11 is provided on the laboratory table 10, an alarm 13 is installed on the upper end of the laboratory table 10, a first shell 14 is provided on the upper end of the operating table 11, a collection and processing component is provided inside the first shell 14, and a control panel 12 is provided on one side of the lower part of the operating table 11; the collection and processing component includes a second shell 18, a telescopic tube 17 is provided on the lower side of the second shell 18, a conical cover 16 is provided at the lower end of the telescopic tube 17, two first slides 23 are symmetrically slidably provided inside the second shell 18, a second slide 24 is slidably provided at the lower part of the first slide 23, and a second slide 24 is fixed on the two side walls of the second shell 18. There are a first inclined plate 25 and a second inclined plate 27. A first inclined slide plate 26 is slidably provided at both ends of the first inclined plate 25, and a second inclined slide plate 28 is slidably provided at both ends of the second inclined plate 27. A connecting plate 29 is connected between the two sides of the two first slide plates 23 away from each other and the two side walls of the second shell 18. A pressure plate 21 is slidably provided on the upper side of the interior of the second shell 18. A gas detector 36 is installed on the lower side of the interior of the second shell 18. A number of adsorption particles 72 are placed in the middle of the interior of the second shell 18. The inclined lower end of the first inclined plate 25 is provided with a number of first through holes 30.

[0048] Preferably, refer to the attached Figure 5 , Attachment Figure 9 , Attachment Figure 13 An air pump 40 is installed on one side of the interior of the first shell 14, and one end of the air pump 40 is connected to the upper side of the interior of the second shell 18. A round tube 22 is fixed in the middle of the pressure plate 21, and an S-shaped channel is formed in the middle of the interior of the second shell 18 through the first inclined plate 25 and the second inclined plate 27. A first spring 31 is connected between the upper side of the second slide 24 and the interior of the first slide 23, and a second spring 32 is provided on the side where the two first inclined slides 26 are close to each other, respectively, and a third spring 33 is provided on the side where the two second inclined slides 28 are close to each other, respectively, and are connected to the two sides of the interior of the second inclined plate 27, respectively.

[0049] Preferably, refer to the attached Figure 3 , Attachment Figure 5 , Attachment Figure 9 , Attachment Figure 13The second shell 18 is fixed in the middle of the interior of the first shell 14, the first inclined plate 25 is located between the two first slides 23, the second inclined plate 27 is located between the two first slides 23, one end of the connecting plate 29 is rotatably connected to one side of the first slide 23, and the other end of the connecting plate 29 is rotatably connected to the side wall of the second shell 18, a plurality of adsorption particles 72 are all located on the inclined upper side of the first inclined plate 25, and a cover plate 15 is provided at the upper end of the first shell 14.

[0050] Preferably, refer to the attached Figure 6 , Attachment Figure 9 To the attached Figure 11 , Attachment Figure 14 A fixed cylinder 44 is fixed on one side of the interior of the first shell 14, and a rotating cylinder 45 is rotatably provided inside the fixed cylinder 44. A plurality of groups of L-shaped plates 46 are arranged in a circular array inside the rotating cylinder 45, and a square frame 47 is slidably provided in each group of L-shaped plates 46. An inclined movable plate 55 is slidably provided on one side of the inner side of the square frame 47. An outlet 19 and an inlet 20 are provided on one side wall of the second shell 18. The outlet 19 is located above the inclined lower end of the first inclined plate 25, and the inlet 20 is located above the inclined upper end of the second inclined plate 27. A plurality of inlets and outlets 54 are arranged in a circular array on the side wall of the fixed cylinder 44 close to the second shell 18. A square folding piece 53 is connected between one side of the square frame 47 and an inner side wall of the rotating cylinder 45. A first push rod 57 is fixed on the other side of the square frame 47. A fourth spring 73 is connected between the other side of the square frame 47 and the other inner side wall of the rotating cylinder 45. A first guide ring 59 is fixed on one side wall of the first shell 14, and one end of the first push rod 57 is in sliding contact with a side portion of the first guide ring 59.

[0051] Preferably, refer to the attached Figure 6 , Attachment Figure 9 To the attached Figure 11 One side of the first guide ring 59 includes a first plane portion, a second plane portion, and two inclined portions. The distance between the first plane portion of the first guide ring 59 and one side of the rotating cylinder 45 is relatively close, and the distance between the second plane portion of the first guide ring 59 and one side of the rotating cylinder 45 is relatively far. A plurality of first protrusions 60 are spaced apart on the second plane portion of the first guide ring 59, and one end of the first push rod 57 is in sliding contact with the outside of the plurality of first protrusions 60.

[0052] Preferably, refer to the attached Figure 7 , Attachment Figure 9 To the attached Figure 11A second push rod 58 is fixedly provided on one side of the tilting movable plate 55, and a second guide ring 61 is fixedly provided on one side wall of the outer side of the second shell 18. A first arc block 62 is fixedly provided on one side of the outer wall of the second guide ring 61. One side of the first arc block 62 is a sloped structure, and a plurality of second protrusions 63 are spaced apart on the slope of the first arc block 62. One end of the second push rod 58 is in sliding contact with the slope of one side of the first arc block 62.

[0053] Preferably, refer to the attached Figure 14 To the attached Figure 15 Two first V-shaped elastic members 66 are symmetrically provided on both sides of the interior of the square frame 47. One end of the first V-shaped elastic member 66 is fixedly connected to the side wall of the square frame 47, and the other end of the first V-shaped elastic member 66 is connected to the inclined surface of the inclined movable plate 55. A rubber plate 67 is respectively provided in the middle of the two first V-shaped elastic members 66, and a second V-shaped elastic member 68 is connected between one ends of the two rubber plates 67. A plurality of second through holes 69 are provided on the second V-shaped elastic member 68 at intervals.

[0054] Preferably, refer to the attached Figure 14 To the attached Figure 15 Each group includes four L-shaped plates 46, and each four L-shaped plates 46 are in sliding contact with the four corners of the square frame 47 respectively. A plurality of first openings 48 are provided in a circular array on the outer wall of the rotating cylinder 45, a second opening 49 is provided on the lower side of the outer wall of the fixed cylinder 44, and a third opening 70 is provided on one side wall of the square frame 47 close to the second V-shaped elastic member 68. A collection box 50 is provided on one side of the interior of the first shell 14, and the collection box 50 is located below the second opening 49. A heater 52 is provided on one side of the interior of the first shell 14.

[0055] Preferably, refer to the attached Figure 7 , Attachment Figure 9 A second arc block 64 is fixedly provided on the upper side of the outer wall of the second guide ring 61, one end of the second push rod 58 is in sliding contact with the outer wall of the second arc block 64, and a plurality of third protrusions 65 are fixedly provided on the outer wall of the second arc block 64. A stepper motor 43 is installed on a side wall of the interior of the first shell 14 close to the fixed cylinder 44, and the output end of the stepper motor 43 is fixedly connected to one side of the rotating cylinder 45.

[0056] Preferably, refer to the attached Figure 9 A U-shaped plate 37 is connected between one side of the pressure plate 21 and one side of the outer wall of the conical cover 16. A movable plate 38 is fixed to one side of the middle part of the U-shaped plate 37. An electric telescopic rod 39 is provided on one side of the interior of the first shell 14. The protruding end of the electric telescopic rod 39 is fixedly connected to the lower side of the movable plate 38. A slide groove 41 is provided on one side wall of the second shell 18. One end of the U-shaped plate 37 slides vertically in the slide groove 41. A folding piece 42 is connected between the lower side of one end of the U-shaped plate 37 and the lower side of the slide groove 41.

[0057] In the initial state of the collection and processing assembly, the circular tube 22 is located above the plurality of adsorption particles 72 , and the inlet 20 is located below the pressing plate 21 .

[0058] When the collection and processing assembly is in the contracted state, the inlet 20 is located above the pressing plate 21 , and the interior of the circular tube 22 is filled with a plurality of adsorption particles 72 .

[0059] Specific use of the present invention:

[0060] A user conducts a chemical experiment within the workstation 11 and activates the vacuum pump 40 via the control panel 12. This activates the vacuum pump 40, which collects the harmful gases generated by the experiment through the conical hood 16 and telescopic tube 17. The harmful gases enter the lower interior of the second housing 18 through the conical hood 16 and telescopic tube 17. The harmful gases are detected by a gas detector 36 and uploaded to a cloud platform via the Internet of Things (IoT) for real-time monitoring on mobile phones, computers, and tablets. When the gas detector 36 detects harmful gases, the IoT activates the laboratory's exhaust system to fully exhaust the air. Alerts are also issued via email, text messages, and phone calls, enabling rapid coordination and minimizing risk. This intelligent and safe laboratory electricity solution is tailored to the specific needs of laboratory electricity safety scenarios. Leveraging IoT, big data, and AI technologies, it implements a comprehensive safety assessment system for the entire laboratory electricity use process, providing comprehensive safety assurance through predictive protection, immediate response, and post-event traceability.

[0061] When the amount of toxic gas is low, the toxic gas in the lower part of the second shell 18 moves upward through the first through-holes 30, where it is adsorbed by the adsorption particles 72 located on the upper side of the first inclined plate 25. An S-shaped channel is formed in the center of the interior of the second shell 18 by the first inclined plate 25 and the second inclined plate 27, thereby extending the travel distance of the toxic gas within the second shell 18 and improving the effectiveness of toxic gas treatment. The treated toxic gas moves upward through the circular tube 22 to the upper part of the interior of the second shell 18, where the vacuum pump 40 transfers the gas from the upper part of the second shell 18 into the first shell 14.

[0062] Next, the control system activates the stepper motor 43, which drives the rotating drum 45 to rotate. The rotating drum 45 rotates, driving the square frame 47 to one side of the outlet 19 via the four L-shaped plates 46, connecting the inlet and outlet 54 to the outlet 19. The stepper motor 43 then stops. The adsorption particles 72 located above the first inclined plate 25 enter the square frame 47 through the outlet 19 and the inlet and outlet 54, moving to the upper side of the second V-shaped elastic member 68. This allows the adsorption particles 72 located at the lower end of the S-shaped channel in the second housing 18 to enter the square frame 47.

[0063] Next, the stepper motor 43 starts to rotate the rotating drum 45. This rotation of the rotating drum 45 causes the first push rod 57 to orbit around the center of the rotating drum 45. The orbital rotation of the first push rod 57 causes one end of the first push rod 57 to move from the first planar portion of the first guide ring 59 to the inclined portion of the first guide ring 59. Under the elastic force of the fourth spring 73, one end of the first push rod 57 is kept in sliding contact with a side of the first guide ring 59. The movement of one end of the first push rod 57 on the inclined portion of the first guide ring 59, in conjunction with the elastic force of the fourth spring 73, causes the square frame 47 to move axially away from the second housing 18. The movement of the square frame 47 stretches the square folding member 53, thereby preventing the adsorbed particles 72 from escaping from the square frame 47.

[0064] At this point, the square frame 47 moves axially within the rotating cylinder 45. This axial movement drives the second push rod 58, causing one end of the second push rod 58 to contact the inclined surface of the first arc-shaped block 62. Guided by a plurality of second protrusions 63, one end of the second push rod 58 causes the second push rod 58 and the tilting movable plate 55 to move radially outward. This radial outward movement of the tilting movable plate 55 compresses the two first V-shaped elastic members 66, deforming them and forcing the two rubber plates 67 toward each other. The two rubber plates 67 approach each other to squeeze and deform the second V-shaped elastic member 68, so that the inclined movable plate 55, the two rubber plates 67, and the second V-shaped elastic member 68 gather toward the middle, thereby squeezing the plurality of adsorption particles 72 in the square frame 47 toward the middle, and utilizing the mutual squeezing and friction between the plurality of adsorption particles 72 to frictionally separate the impurities adsorbed on the plurality of adsorption particles 72, so that the impurities on the plurality of adsorption particles 72 are discharged into the rotating cylinder 45 through the plurality of second through holes 69 and the third through opening 70, and the impurities in the rotating cylinder 45 fall into the collection box 50 through the first through opening 48 and the second through opening 49 for storage.

[0065] At the same time, the two first V-shaped elastic members 66 deform to generate elastic force. After one end of the second push rod 58 disengages from the second protrusion 63, the elastic force of the two first V-shaped elastic members 66 causes the tilting movable plate 55 to move radially inward. The two first V-shaped elastic members 66 restore their shape, causing the two rubber plates 67 to move away from each other. When the two rubber plates 67 move away from each other, the second V-shaped elastic member 68 restores its shape. Thus, the radial back-and-forth movement of the tilting movable plate 55, in conjunction with the alternating movement of the two rubber plates 67 toward and away from each other, and the extrusion, deformation, and restoration of the second V-shaped elastic member 68, shakes and redistributes the adsorption particles 72 within the square frame 47, causing the positions of the adsorption particles 72 in multiple directions to deform, thereby facilitating full contact between the adsorption particles 72 and the toxic gas. The deformation of the second V-shaped elastic member 68 helps expand the inner diameter of the second through hole 69, thereby reducing impurities clogging the second through hole 69. The tilting movable plate 55 moves radially outward to squeeze the two rubber plates 67 . Since the two rubber plates 67 are made of rubber material and have elasticity, the two rubber plates 67 can smoothly approach each other under the squeezing of the tilting movable plate 55 .

[0066] At the same time, the heater 52 starts to heat the gas in the first shell 14. The heated gas moves upward through the second opening 49 and the first opening 48. The hot gas enters the rotating cylinder 45 to dry the adsorption particles 72 and restore their activity, thereby extending the service life of the adsorption particles 72.

[0067] Finally, as the rotating drum 45 rotates and drives the square frame 47 to move to the side of the inlet 20, the adsorption particles 72 in the square frame 47 are located above the tilting movable plate 55. The revolution of the square frame 47 drives the second push rod 58 to revolve, causing one end of the second push rod 58 to slide on the outer wall of the second arc block 64. Under the guidance of the second arc block 64, the second push rod 58 and the tilting movable plate 55 move radially outward significantly. One end of the second push rod 58 is guided by the plurality of third protrusions 65, so that the second push rod 58 and the tilting movable plate 55 move radially outward by a small amplitude, and the tilting movable plate 55 compresses the first V-shaped elastic member 66 by a small amplitude in the radial direction to generate an elastic force. Under the elastic force of the first V-shaped elastic member 66, when one end of the second push rod 58 elastically contacts the third protrusion 65, the tilting movable plate 55 moves radially inward by a small amplitude, so that under the guiding action of the second arc block 64 and the plurality of third protrusions 65 and the elastic force of the two first V-shaped elastic members 66, the second push rod 58 and the tilting movable plate 55 move radially outward by a large amplitude, and the tilting movable plate 55 moves radially back and forth by a small amplitude, so that The inclined movable plate 55 is used to perform an inclined guiding effect on the plurality of adsorption particles 72 in the square frame 47, and the inclined movable plate 55 is shaken to enable the plurality of adsorption particles 72 to quickly pass through the inlet 20 and return to the upper end of the S-shaped channel in the second shell 18, so that the plurality of adsorption particles 72 continuously move from top to bottom in the S-shaped channel in the second shell 18, so that the plurality of adsorption particles 72 in the S-shaped channel in the second shell 18 are fully in contact with the toxic gas, avoiding different situations in which the plurality of adsorption particles 72 located in the S-shaped channel in the second shell 18 contact the toxic gas, extending the service life of the plurality of adsorption particles 72 in treating toxic gases, and at the same time facilitating the unified replacement of the plurality of adsorption particles 72, thereby reducing the waste of the adsorption particles 72.

[0068] When the amount of toxic gas is large, the alarm 13 sounds an alarm, and the personnel are usually asked to evacuate the laboratory quickly. In addition, the control system controls the electric telescopic rod 39 to retract, and the retraction of the electric telescopic rod 39 drives the movable plate 38 and the U-shaped plate 37 to move downward, and the downward movement of the U-shaped plate 37 drives the conical cover 16 to move downward, and the downward movement of the conical cover 16 stretches the telescopic tube 17. In order to make the conical cover 16 close to the source of the harmful gas, the toxic gas is reduced from spreading into the laboratory. Among them, the movement of the U-shaped plate 37 causes one end of the U-shaped plate 37 to slide in the slide 41, and the downward movement of one end of the U-shaped plate 37 compresses and folds the folding part 42, thereby helping the folding part 42 to prevent the adsorbed particles 72 from moving through the slide 41 into the first shell 14.

[0069] Simultaneously, the downward movement of the U-shaped plate 37 drives the pressure plate 21 downward. This movement of the pressure plate 21 causes the two first slides 23 to move downward, positioning the inlet 20 above the pressure plate 21. The downward movement of the two first slides 23 causes them to be rotationally guided by the two connecting plates 29, thereby bringing the two first slides 23 closer together. This closer approach of the two first slides 23 drives the two second slides 24 closer together, thereby reducing the width of the S-channel within the second housing 18. This increases the height of the adsorption particles 72 within the second housing 18 and further enhances the contact time between the toxic gas and the adsorption particles 72. The downward movement of the two first slides 23, coupled with the lower ends of the two second slides 24 being pressed against the interior underside of the second housing 18, compresses the two first springs 31, generating an elastic force. Under the elastic force of the two first springs 31, the lower ends of the two second slides 24 are kept in contact with the interior underside of the second housing 18. The two first slides 23 approach each other, driving the two second slides 24 toward each other. The two first slides 23 approach each other, pushing the two second inclined slides 28 toward each other. The two second inclined slides 28 approach each other, compressing the two second springs 32 to generate elastic force. Under the elastic force of the two second springs 32, the two ends of the two second inclined slides 28, which are separated from each other, are kept in sliding contact with the two first slides 23. The two second slides 24 approach each other, driving the two first inclined slides 26 toward each other. The two first inclined slides 26 approach each other, respectively compressing the two first springs 31 to generate elastic force.

[0070] Then, the rotating drum 45 rotates and drives the square frames 47 to move to the side of the outlet 19 in sequence, so that the adsorption particles 72 at the lower end of the S-shaped channel in the second shell 18 enter the square frames 47.

[0071] Finally, several square frames 47 are moved to one side of the inlet 20 in turn, so that several adsorption particles 72 in the square frames 47 are moved to the top of the pressure plate 21 through the inlet 20, and the adsorption particles 72 above the pressure plate 21 fall through the circular tube 22 to the upper end of the S-shaped channel in the second shell 18. At this time, the collection and processing component is in a contracted state, so that the S-shaped channel and the circular tube 22 in the second shell 18 are filled with adsorption particles 72, thereby extending the movement distance of the toxic gas in the second shell 18, so as to improve the treatment effect of the collection and processing component on the toxic gas.

[0072] The present invention provides an intelligent laboratory management system with safety monitoring capabilities. By employing the configuration of a first inclined plate 25 and a second inclined plate 27, the first and second inclined plates 25 and 27 form an S-shaped channel in the center of the second housing 18, thereby extending the travel distance of toxic gases within the second housing 18 and improving the effectiveness of toxic gas treatment. Furthermore, through the configuration of a conical cover 16 and a telescopic tube 17, the electric telescopic rod 39 contracts, driving the movable plate 38 and the U-shaped plate 37 downward. The downward movement of the U-shaped plate 37 drives the conical cover 16 downward, which in turn stretches the telescopic tube 17. This allows the conical cover 16 to be positioned above the source of harmful gas generation, reducing the spread of toxic gases into the laboratory. Finally, through the configuration of a pressure plate 21, a first slide 23, and a connecting plate 29, the downward movement of the U-shaped plate 37 drives the pressure plate 21 downward, which in turn moves the two first slides 23 downward. These two first slides 23 are then guided by the two connecting plates 29, thereby bringing the two first slides 23 closer together. The two first slides 23 approach each other, driving the two second slides 24 to approach each other, thereby reducing the width of the S channel in the second shell 18, so as to increase the height of the multiple adsorption particles 72 in the second shell 18, and further increase the contact time between the toxic gas and the multiple adsorption particles 72, which is beneficial to improve the effect of the collection and treatment component on the treatment of the toxic gas according to the amount of the toxic gas, and avoid the occurrence of insufficiently treated gas.

[0073] The present invention provides an intelligent laboratory management system based on a safety monitoring function. By setting a rotating cylinder 45 and a square frame 47, the rotating cylinder 45 rotates and drives the plurality of square frames 47 to move to the side of the outlet 19 in sequence, so that the plurality of adsorption particles 72 at the lower end of the S-shaped channel in the second shell 18 enter the square frame 47; and the plurality of square frames 47 move to the side of the inlet 20 in sequence, so that the plurality of adsorption particles 72 in the square frame 47 move to the upper end of the S-shaped channel in the second shell 18 through the inlet 20, so that the plurality of adsorption particles 72 continuously move from top to bottom in the S-shaped channel in the second shell 18, so that the plurality of adsorption particles 72 in the S-shaped channel in the second shell 18 are fully in contact with the toxic gas, avoiding different situations in which the plurality of adsorption particles 72 located in the S-shaped channel in the second shell 18 contact the toxic gas, extending the service life of the plurality of adsorption particles 72 in treating the toxic gas, and at the same time facilitating the unified replacement of the plurality of adsorption particles 72, thereby reducing the waste of the adsorption particles 72. Through the arrangement of the first push rod 57, the first guide ring 59, the first protrusion 60, and the fourth spring 73, one end of the second push rod 58 is guided by the second protrusions 63, causing the second push rod 58 and the tilting movable plate 55 to move radially outward. This radial outward movement of the tilting movable plate 55 squeezes the two first V-shaped elastic members 66, which deform and bring the two rubber plates 67 closer together. The two rubber plates 67 approaching each other squeeze and deform the second V-shaped elastic member 68, causing the tilting movable plate 55, the two rubber plates 67, and the second V-shaped elastic member 68 to converge toward the center. This squeezes the adsorption particles 72 within the square frame 47 toward the center. The mutual extrusion and friction between the adsorption particles 72 removes impurities adsorbed on the adsorption particles 72, thereby extending the service life of the adsorption particles 72. The inclined movable plate 55 is moved radially back and forth in coordination with the two rubber plates 67 moving closer to and away from each other alternately, and the second V-shaped elastic member 68 is squeezed, deformed, and restored to shape, thereby shaking and redistributing the multiple adsorption particles 72 in the square frame 47, causing the positions of the multiple adsorption particles 72 in multiple directions to be deformed, which is conducive to ensuring that the multiple adsorption particles 72 are fully in contact with the toxic gas.

[0074] The present invention provides a laboratory intelligent management system based on safety monitoring function. Through the arrangement of the second arc block 64, the third protrusion 65, the second push rod 58, the inclined movable plate 55, and the first V-shaped elastic member 66, the square frame 47 rotates to drive the second push rod 58 to rotate, so that one end of the second push rod 58 slides on the outer wall of the second arc block 64. Under the guidance of the second arc block 64, the second push rod 58 and the inclined movable plate 55 move radially outward in a large range. One end of the second push rod 58 is guided by the plurality of third protrusions 65, so that the second push rod 58 and the tilting movable plate 55 move radially outward by a small amplitude, and the tilting movable plate 55 compresses the first V-shaped elastic member 66 by a small amplitude in the radial direction to generate an elastic force. Under the elastic force of the first V-shaped elastic member 66, when one end of the second push rod 58 elastically contacts the third protrusion 65, the tilting movable plate 55 moves radially inward by a small amplitude, so that under the guiding action of the second arc block 64 and the plurality of third protrusions 65 and the elastic force of the two first V-shaped elastic members 66, the second push rod 58 and the tilting movable plate 55 move radially outward by a large amplitude, and the tilting movable plate 55 moves radially back and forth by a small amplitude, so that The inclined movable plate 55 is used to perform an inclined guiding effect on the plurality of adsorption particles 72 in the square frame 47, and the inclined movable plate 55 is shaken to enable the plurality of adsorption particles 72 to quickly pass through the inlet 20 and return to the upper end of the S-shaped channel in the second shell 18, so that the plurality of adsorption particles 72 continuously move from top to bottom in the S-shaped channel in the second shell 18, so that the plurality of adsorption particles 72 in the S-shaped channel in the second shell 18 are fully in contact with the toxic gas, avoiding different situations in which the plurality of adsorption particles 72 located in the S-shaped channel in the second shell 18 contact the toxic gas, extending the service life of the plurality of adsorption particles 72 in treating toxic gases, and at the same time facilitating the unified replacement of the plurality of adsorption particles 72, thereby reducing the waste of the adsorption particles 72.

[0075] The embodiments of the present invention are presented for purposes of illustration and description and are not intended to be exhaustive or to limit the invention to the disclosed forms. Many modifications and variations will be apparent to those skilled in the art. The embodiments are chosen and described in order to better illustrate the principles of the invention and its practical application and to enable those skilled in the art to understand the invention and design various embodiments with various modifications as suited for specific applications.

Claims

1. A laboratory intelligent management system based on safety monitoring function, characterized by: The apparatus comprises a laboratory table (10), an operating table (11) is provided on the laboratory table (10), an alarm (13) is installed at the upper end of the laboratory table (10), a first shell (14) is provided at the upper end of the operating table (11), and a collection and processing component is provided inside the first shell (14); The collecting and processing assembly includes a second shell (18), a telescopic tube (17) is provided on the lower side of the second shell (18), a conical cover (16) is provided on the lower end of the telescopic tube (17), two first slides (23) are symmetrically slidably provided inside the second shell (18), a second slide (24) is slidably provided below the first slide (23), a first inclined plate (25) and a second inclined plate (27) are fixedly provided on both side walls of the second shell (18), a pressing plate (21) is slidably provided on the upper side of the interior of the second shell (18), and the A gas detector (36) is installed on the lower side of the interior of the second shell (18), a plurality of adsorption particles (72) are placed in the middle of the interior of the second shell (18), a plurality of first through holes (30) are provided at the inclined lower end of the first inclined plate (25), a fixed cylinder (44) is fixedly provided on one side of the interior of the first shell (14), a rotating cylinder (45) is rotatably provided inside the fixed cylinder (44), a plurality of groups of L-shaped plates (46) are provided in a circular array inside the rotating cylinder (45), and a square frame (47) is slidably provided inside each group of the L-shaped plates (46); An inclined movable plate (55) is slidably provided on one side of the interior of the square frame (47), an outlet (19) and an inlet (20) are provided on one side wall of the second shell (18), the outlet (19) is located above the inclined lower end of the first inclined plate (25), and the inlet (20) is located above the inclined upper end of the second inclined plate (27), a plurality of inlets and outlets (54) are provided in a circumferential array on a side wall of the fixed cylinder (44) close to the second shell (18), a square folding member (53) is connected between one side of the square frame (47) and an inner side wall of the rotating cylinder (45), a first push rod (57) is fixed on the other side of the square frame (47), a fourth spring (73) is connected between the other side of the square frame (47) and the inner other side wall of the rotating cylinder (45), a first guide ring (59) is fixed on one side wall of the first shell (14), and one end of the first push rod (57) is in sliding contact with a side portion of the first guide ring (59); One side of the first guide ring (59) includes a first plane portion, a second plane portion, and two inclined portions. The distance between the first plane portion of the first guide ring (59) and one side of the rotating cylinder (45) is relatively close, and the distance between the second plane portion of the first guide ring (59) and one side of the rotating cylinder (45) is relatively far. A plurality of first protrusions (60) are arranged at intervals on the second plane portion of the first guide ring (59), and one end of the first push rod (57) is in sliding contact with the outside of the plurality of first protrusions (60); a second push rod (58) is fixedly provided on one side of the inclined movable plate (55), a second guide ring (61) is fixedly provided on an outer side wall of the second shell (18), a first arc block (62) is fixedly provided on one side of the outer wall of the second guide ring (61), one side of the first arc block (62) is in an inclined surface structure, and a plurality of second protrusions (63) are arranged at intervals on the inclined surface of the first arc block (62), and one end of the second push rod (58) is in sliding contact with the inclined surface of one side of the first arc block (62).

2. The laboratory intelligent management system based on safety monitoring function according to claim 1 is characterized by: A first inclined slide plate (26) is slidably provided at both ends of the first inclined plate (25), and a second inclined slide plate (28) is slidably provided at both ends of the second inclined plate (27). A connecting plate (29) is connected between the two sides of the first slide plates (23) that are away from each other and the two side walls of the second shell (18). An air pump (40) is installed on one side of the interior of the first shell (14), and one end of the air pump (40) is communicated with the upper side of the interior of the second shell (18). A round tube (22) is fixed in the middle of the pressure plate (21). An S-shaped channel is formed in the middle of the interior of the second shell (18) through the first inclined plate (25) and the second inclined plate (27); a first spring (31) is connected between the upper side of the second slide plate (24) and the interior of the first slide plate (23); a second spring (32) is connected to the two sides of the interior of the first inclined plate (25) on the sides where the two first inclined slide plates (26) are close to each other; a third spring (33) is connected to the two sides of the interior of the second inclined plate (27) on the sides where the two second inclined slide plates (28) are close to each other.

3. The laboratory intelligent management system based on safety monitoring function according to claim 2 is characterized by: The second shell (18) is fixed in the middle of the interior of the first shell (14), the first inclined plate (25) is located between the two first slides (23), the second inclined plate (27) is located between the two first slides (23), one end of the connecting plate (29) is rotatably connected to one side of the first slide (23), and the other end of the connecting plate (29) is rotatably connected to the side wall of the second shell (18), a plurality of the adsorption particles (72) are all located on the inclined upper side of the first inclined plate (25), and a cover plate (15) is provided at the upper end of the first shell (14).

4. The laboratory intelligent management system based on safety monitoring function according to claim 1 is characterized by: Two first V-shaped elastic members (66) are symmetrically provided on both sides of the interior of the square frame (47), one end of the first V-shaped elastic member (66) is fixedly connected to the side wall of the square frame (47), and the other end of the first V-shaped elastic member (66) is connected to the inclined surface of the inclined movable plate (55), a rubber plate (67) is provided in the middle of each of the two first V-shaped elastic members (66), and a second V-shaped elastic member (68) is connected between one ends of the two rubber plates (67), and a plurality of second through holes (69) are provided on the second V-shaped elastic member (68) at intervals.

5. The laboratory intelligent management system based on safety monitoring function according to claim 4 is characterized in that: Each four L-shaped plates (46) form a group, and each four L-shaped plates (46) are in sliding contact with the four corners of the square frame (47) respectively. A plurality of first openings (48) are provided in a circumferential array on the outer wall of the rotating cylinder (45), a second opening (49) is provided on the lower side of the outer wall of the fixed cylinder (44), and a third opening (70) is provided on a side wall of the square frame (47) close to the second V-shaped elastic member (68). A collection box (50) is provided on one side of the interior of the first shell (14), and the collection box (50) is located below the second opening (49). A heater (52) is provided on one side of the interior of the first shell (14).

6. The intelligent laboratory management system based on safety monitoring function according to claim 5 is characterized by: A second arc block (64) is fixedly provided on the upper side of the outer wall of the second guide ring (61), one end of the second push rod (58) is in sliding contact with the outer wall of the second arc block (64), and a plurality of third protrusions (65) are fixedly provided on the outer wall of the second arc block (64). A stepper motor (43) is installed on a side wall of the interior of the first shell (14) close to the direction of the fixed cylinder (44), and the output end of the stepper motor (43) is fixedly connected to one side of the rotating cylinder (45).

7. The laboratory intelligent management system based on safety monitoring function according to claim 6 is characterized by: A U-shaped plate (37) is connected between one side of the pressure plate (21) and one side of the outer wall of the conical cover (16), a movable plate (38) is fixedly provided on the middle side of the U-shaped plate (37), an electric telescopic rod (39) is provided on the inner side of the first shell (14), the extended end of the electric telescopic rod (39) is fixedly connected to the lower side of the movable plate (38), a slide groove (41) is provided on one side wall of the second shell (18), one end of the U-shaped plate (37) slides vertically in the slide groove (41), a folding piece (42) is connected between the lower side of one end of the U-shaped plate (37) and the lower side of the slide groove (41), and a control panel (12) is provided on the lower side of the operating table (11).

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