Efficient cooling device for laboratory glass instrument processing

Abstract

The invention relates to the technical field of cooling devices for glass instrument processing, in particular to an efficient cooling device for laboratory glass instrument processing, which comprises a supporting seat and a cooling assembly, the cooling assembly is arranged on the supporting seat, and the cooling assembly is used for cooling a glass instrument; the cooling assembly comprises a plurality of cooling grooves, a driving module, a cold air spray head and a connecting module, the cooling grooves are connected through the connecting module, the connecting module is connected with the driving module, the driving module is arranged on the supporting seat, and the cold air spray head is arranged on the driving module. A plurality of uniformly distributed cold air nozzles are arranged on each cooling tank; and a first sensor is arranged in each cooling tank. The glass instrument cooling device can cool glass instruments.

Description

Technical Field

[0001] The invention relates to the technical field of cooling devices for glass instrument processing, in particular to a high-efficiency cooling device for laboratory glass instrument processing. Background Art

[0002] In the processing of laboratory glassware, cooling is a key step, which directly affects the quality and production efficiency of glassware. Traditional cooling methods often rely on natural cooling or simple water cooling systems, which have problems such as slow cooling speed, low efficiency and high energy consumption.

[0003] After searching, a cooling device with application number CN202210449948.X for improving the cooling efficiency of laboratory glass instrument processing is found. The invention relates to the technical field of cooling devices for laboratory glass instrument processing, and comprises a base, a plurality of supporting legs are fixedly installed on the top of the base, a cross plate is fixedly installed on the tops of the plurality of supporting legs, and side support plates are fixedly installed on both sides of the top of the cross plate. The invention relates to a cooling device for improving the cooling efficiency of laboratory glass instrument processing, and the invention relates to the technical field of cooling devices for laboratory glass instrument processing, and comprises a base, a plurality of supporting legs are fixedly installed on the tops of the plurality of supporting legs, and side support plates are fixedly installed on both sides of the top of the cross plate. The invention relates to a cooling device for improving the cooling efficiency of laboratory glass instrument processing, and the invention relates to the technical field of cooling devices for laboratory glass instrument processing, and ...

[0004] In order to improve cooling efficiency and reduce energy consumption, it is necessary to develop a new type of high-efficiency cooling device. Summary of the invention

[0005] In order to realize cooling of glass instruments, the present invention provides a high-efficiency cooling device for processing laboratory glass instruments.

[0006] In a first aspect, the present invention provides a high-efficiency cooling device for laboratory glass instrument processing, which adopts the following technical solution: An efficient cooling device for laboratory glass instrument processing comprises a support seat, characterized by: a glass instrument transport component, the glass instrument transport component is arranged on the support seat and is used to transport the glass instrument; A cooling component, which is arranged on the support base and is used to cool the glass instrument; The cooling assembly includes a cooling slot, a driving module, a cold air nozzle and a connecting module. There are a plurality of cooling slots, all of which are connected through the connecting module. The connecting module is connected to the driving module. The driving module is arranged on the supporting seat. Each cooling slot is provided with a plurality of evenly distributed cold air nozzles. A first sensor is respectively arranged in each of the cooling grooves.

[0007] A cooling trough is provided to accommodate glassware, and cold air is sprayed from a cold air nozzle to cool the glassware. The driving module can drive the cooling trough to move through the connecting module. When the cooling trough swings upward and unfolds in a stepped shape, the glassware can be placed in the cooling trough respectively, and then the cold air nozzle is used to spray cold air for cooling. The first sensor can monitor the temperature in the cooling trough in real time to ensure that the temperature required for cooling is reached and the cold air nozzle stops spraying after the temperature is constant.

[0008] Optionally, the connecting module includes a connecting shaft, a straight groove rod, a connecting rod, a slider, a linear track and a limiting mechanism, one end of each cooling groove is fixedly connected to the connecting shaft, all the connecting shafts are arranged in the slide groove of the straight groove rod, one end of the straight groove rod is rotatably connected to one side end of the discharge channel fixed at one end of the support seat, the other end of the straight groove rod is rotatably connected to a button of the connecting rod, and the other end of the connecting rod is rotatably connected to the slider, the slider is slidably arranged in the linear track, the linear track is fixed at the middle part of one side of the support seat, and the other ends of adjacent cooling grooves are connected through the limiting mechanism, the limiting mechanism includes a limiting ring, a guide column and an extension arm, the other end of each cooling groove is fixedly connected to the limiting ring, each limiting ring is passed through the guide column, the lower end of each guide column is fixedly connected to the extension arm, one of the extension arms at one end fixes the other end of the discharge channel, and the remaining each extension arm is fixedly connected to the adjacent cooling groove.

[0009] Optionally, the driving module includes a fixed block and a first electric push rod, the fixed block is mounted on the support seat, the fixed block fixes the first electric push rod, and the output shaft of the first electric push rod is fixedly connected to the slider.

[0010] The driving module drives the slider to move in the linear track, the slider drives the connecting rod to swing, the connecting rod drives the straight groove rod to swing, a connecting shaft is arranged in the straight groove rod, the straight groove rod drives the connecting shaft to move, the connecting shaft drives the cooling groove to move, the cooling groove drives the limit ring to move along the extension rod, the extension rod fixed to the cooling groove follows the movement, and the displacement of the cooling groove is realized. When the cooling groove is opened in a step shape as shown in the figure, the glass instruments are placed in the cooling groove one by one.

[0011] Optionally, a glass instrument transfer assembly is fixed to the other end of the support seat, and the glass instrument transfer assembly includes a stepper motor, a second electric push rod, a support plate, a third electric push rod and a transfer plate. The stepper motor is fixed to the middle of the upper side of the other end of the support seat, and the second electric push rod is fixed to the output shaft of the stepper motor. The support plate is fixed to the upper side of the movable end of the second electric push rod. The vertical surface of the support plate is fixed with the symmetrical third electric push rod, and the movable end of the third electric push rod is fixed to the vertical surface of the transfer plate. The transfer plate is an L-shaped plate. The glass instrument transfer assembly also includes a conveyor belt assembly. A second sensor is provided on the outer shell of the conveyor belt assembly corresponding to one end of the support seat, and the conveyor belt assembly and the support seat are arranged at 90 degrees.

[0012] Optionally, baffle assemblies are respectively provided on the cooling troughs, and the baffle assemblies are used to block glass instruments, limit the glass instruments after the glass instrument transfer assembly transfers the glass instruments to the cooling trough, and block the glass instruments when the glass instrument transfer assembly exits the cooling trough, so that the glass instruments remain in the cooling trough, and the glass instrument transfer assembly exits the cooling trough, and the baffle assembly includes a lifting cylinder, a baffle plate connecting frame and a baffle plate, the baffle plate fixes the lower end of the baffle plate connecting frame, the baffle plate connecting frame fixes the movable end of the lifting cylinder, the lifting cylinder is fixed to the upper side of the cooling trough, and the baffle plate can block the entrance of the cooling trough.

[0013] Optionally, the support seat is also connected to a pushing assembly, which includes a pushing cylinder and a pushing plate. The pushing cylinder is fixedly connected to the other end vertical surface of the support seat, and the movable end of the pushing cylinder fixes the pushing plate. When all the cooling grooves are in the same straight line, the cooling grooves are aligned with the discharge channel, and the pushing plate can be extended into the cooling groove under the push of the pushing cylinder to push the glassware out of the discharge channel.

[0014] After the cooling troughs are adjusted to be in the same straight line, a pushing assembly is provided to push out the glassware in the cooling trough and move it out from the discharge channel. Preferably, a cold air nozzle is also provided in the discharge channel to spray cold air for another cooling to ensure the cooling effect. The pushing cylinder can drive the pushing plate to move into the cooling trough to push the glassware to move. The glassware in each cooling trough enters the discharge channel in turn under the pushing action of the previous one and is then discharged. The end of the pushing plate that contacts the glassware is preferably made of silicone material to protect the glassware and avoid damage to its surface.

[0015] Optionally, a gentle slope plate sloping downward is provided at the outer end of the discharge channel.

[0016] Optionally, it also includes a controller, which is electrically connected to the first sensor and the second sensor, the first sensor is a temperature sensor, the second sensor is a visual sensor, the first sensor and the second sensor are electrically connected to the controller, and the controller is electrically connected to the first electric push rod, the second electric push rod, the third electric push rod, the pushing cylinder, the stepper motor and the lifting cylinder.

[0017] In summary, the present invention includes at least one of the following beneficial technical effects: Through the multiple cooling grooves and cold air nozzles in the cooling assembly, rapid cooling of glassware is achieved, and the cooling efficiency is significantly improved. The cooling grooves are provided to accommodate the glassware, and the cold air nozzles are used to spray cold air to cool the glassware. The driving module can drive the cooling grooves to move through the connecting module. When the cooling grooves swing upward and unfold in a stepped shape, the glassware can be placed in the cooling grooves respectively, and then the cold air nozzles are used to spray cold air for cooling. The first sensor can monitor the temperature in the cooling groove in real time to ensure that the temperature required for cooling is reached and the cold air nozzles stop spraying after the temperature is constant.

[0018] Through the coordinated use of the controller and the sensor, precise control of the cooling process is achieved, including temperature monitoring and visual detection, to ensure the stability and reliability of the cooling process. After the glass instrument transfer assembly transfers the glass instrument to the cooling trough, the glass instrument is limited, and the glass instrument is blocked when the glass instrument transfer assembly exits the cooling trough, so that the glass instrument remains in the cooling trough. The glass instrument transfer assembly exits the cooling trough, and the baffle assembly includes a lifting cylinder, a baffle plate connecting frame and a baffle plate. The baffle plate fixes the lower end of the baffle plate connecting frame, and the baffle plate connecting frame fixes the movable end of the lifting cylinder. The lifting cylinder is fixed on the upper side of the cooling trough, and the baffle plate can block the entrance of the cooling trough. The second sensor arranged at the discharge end of the conveyor belt assembly is a visual sensor, which can monitor in real time whether the transfer plate moves to the conveyor belt assembly. When the transfer plate is at the discharge end of the conveyor belt assembly, the conveyor belt assembly works to drive the glass instrument to move until the glass instrument falls on the transfer plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 The structure of the embodiment of the present invention is shown in FIG. Figure 1 ; Figure 2 The structure of the embodiment of the present invention is shown in FIG. Figure 2 ; Figure 3 is a schematic diagram of the overall structure of an embodiment of the present invention; Figure 4 The structure of the embodiment of the present invention is shown in FIG. Figure 2 three; Figure 5 is a structural side view of an embodiment of the present invention; Figure 6 The structure of the embodiment of the present invention is shown in FIG. Figure 4 .

[0020] Explanation of the reference numerals in the accompanying drawings: 1. glass instrument transfer assembly; 11. support plate; 12. second electric push rod; 13. stepping motor; 14. third electric push rod; 15. transfer plate; 2. discharge channel; 3. gentle slope plate; 4. cooling assembly; 41. cooling trough; 42. connecting shaft; 43. straight groove rod; 44. cold air nozzle; 45. connecting rod; 46. slider; 47. linear rail; 5. pushing assembly; 51. return bag; 52. pushing cylinder; 6. support seat; 7. baffle assembly; 71. blocking plate connecting frame; 72. blocking plate; 73. lifting cylinder; 8. limiting mechanism; 81. limiting ring; 82. guide column; 83. extending arm; 9. driving module; 91. first electric push rod; 92. fixing block; 10. conveyor belt assembly; 101. second sensor. DETAILED DESCRIPTION

[0021] The following combination Figures 1 to 6 The present invention is described in further detail.

[0022] Example:

[0023] The embodiment of the present invention discloses a high-efficiency cooling device for laboratory glass instrument processing. Figures 1 to 6 , a high-efficiency cooling device for laboratory glass instrument processing, comprising a support seat 6, characterized in that: a glass instrument transport component 1, the glass instrument transport component 1 is arranged on the support seat 6, and is used to transport glass instruments; A cooling component 4, wherein the cooling component 4 is disposed on the support seat 6 and is used to cool the glass instrument; The cooling assembly 4 includes a cooling slot 41, a driving module 9, a cold air nozzle 44 and a connecting module. There are a plurality of cooling slots 41, all of which are connected through the connecting module. The connecting module is connected to the driving module 9, and the driving module 9 is arranged on the supporting seat 6. Each cooling slot 41 is provided with a plurality of evenly distributed cold air nozzles 44. A first sensor is disposed in each cooling slot 41 .

[0024] In the present invention, the cold air nozzle 44 is connected to a cold air machine, which is a prior art. The height of the cooling slot 41 can be set as needed, and the figure is only an example.

[0025] In this embodiment, the cooling groove 41 is provided to accommodate the glassware, and the cold air is sprayed out by the cold air nozzle 44 to cool the glassware. The driving module can drive the cooling groove 41 to move through the connecting module. When the cooling groove 41 swings upward and spreads out in a step-like shape (such as Figure 1 As shown), the glassware can be placed in the cooling tank 41 respectively, and then the cold air nozzle 44 is used to spray cold air for cooling. The first sensor can monitor the temperature in the cooling tank 41 in real time to ensure that the temperature required for cooling is reached and the cold air nozzle 44 stops spraying after the temperature is constant.

[0026] The connecting module includes a connecting shaft 42, a straight groove rod 43, a connecting rod 45, a slider 46, a linear track 47 and a limiting mechanism 8. One end of each cooling groove 41 is fixedly connected to the connecting shaft 42, and all the connecting shafts 42 are arranged in the slide groove of the straight groove rod 43. One end of the straight groove rod 43 is rotatably connected to one side end of the discharge channel 2 fixed at one end of the support seat 6, and the other end of the straight groove rod 43 is rotatably connected to one end of the connecting rod 45. The other end of the connecting rod 45 is rotatably connected to the slider 46. The slider 46 is slidably arranged in the linear track 47. The linear rail 47 is fixed to the middle part of one side of the support seat 6, and the other end of the adjacent cooling groove 41 is connected through the limiting mechanism 8, and the limiting mechanism 8 includes a limiting ring 81, a guide column 82 and an extension arm 83. The other end of each cooling groove 41 is fixedly connected to the limiting ring 81, and each limiting ring 81 is passed through by the guide column 82, and the lower end of each guide column 82 is fixedly connected to the extension arm 83. One of the extension arms 83 at one end fixes the other end of the discharge channel 2, and each of the other extension arms 83 is fixedly connected to the adjacent cooling groove 41.

[0027] The driving module 9 includes a fixing block 92 and a first electric push rod 91 . The fixing block 92 is mounted on the supporting seat 6 . The fixing block 92 fixes the first electric push rod 91 . The output shaft of the first electric push rod 91 is fixedly connected to the slider 46 .

[0028] In this embodiment, the slider 46 is driven by the driving module 9 to move in the linear track 47, the slider 46 drives the connecting rod 45 to swing, the connecting rod 45 drives the straight groove rod 43 to swing, the straight groove rod 43 is provided with a connecting shaft 42, the straight groove rod 42 drives the connecting shaft 42 to move, the connecting shaft 42 drives the cooling groove 41 to move, the cooling groove 41 drives the limit ring 81 to move along the extension rod 83, and the extension rod 43 fixed to the cooling groove 41 follows the movement to realize the displacement of the cooling groove 41. When the cooling groove 41 is as Figure 1 When the cooling tank 41 is opened in a step-like manner as shown, glass instruments are placed in the cooling tank 41 one by one.

[0029] A glass instrument transfer assembly 1 is fixed to the other end of the support seat 6, and the glass instrument transfer assembly 1 includes a stepper motor 13, a second electric push rod 12, a support plate 11, a third electric push rod 14 and a transfer plate 15. The stepper motor 13 is fixed to the middle of the upper side of the other end of the support seat 6, and the second electric push rod 12 is fixed to the output shaft of the stepper motor 13. The support plate 11 is fixed to the upper side of the movable end of the second electric push rod 12. The vertical surface of the support plate 11 is fixed with the symmetrical third electric push rod 14. The movable end of the third electric push rod 14 is fixed to the vertical surface of the transfer plate 15. The transfer plate 15 is an L-shaped plate. The glass instrument transfer assembly 1 also includes a conveyor belt assembly 10. A second sensor 101 is provided on the outer shell of the conveyor belt assembly 10 corresponding to one end of the support seat 6, and the conveyor belt assembly 10 and the support seat 6 are arranged at 90 degrees.

[0030] The cooling trough 41 is respectively provided with a baffle assembly 7, and the baffle assembly 7 is used to block the glassware, limit the glassware after the glassware transfer assembly 1 transfers the glassware to the cooling trough 41, and block the glassware when the glassware transfer assembly 1 exits the cooling trough 41, so that the glassware remains in the cooling trough 41, and the glassware transfer assembly exits the cooling trough 41. The baffle assembly 7 includes a lifting cylinder 73, a baffle plate connecting frame 71 and a baffle plate 72, the baffle plate 72 fixes the lower end of the baffle plate connecting frame 71, the baffle plate connecting frame 71 fixes the movable end of the lifting cylinder 73, the lifting cylinder 73 is fixed on the upper side of the cooling trough 41, and the baffle plate 72 can block the entrance of the cooling trough 41.

[0031] In some embodiments, by providing the glassware transport assembly 1, the glassware can be placed in the step-shaped cooling groove 41 in sequence. After the cooling groove 41 is arranged in a step-shaped manner, it is convenient for the glassware transport assembly to place the glassware in sequence, and the glassware is placed separately for cooling, so as to avoid deformation caused by collision between the formed and uncooled glassware. In the initial state, the transfer plate 15 corresponds to the inlet of the cooling trough 41, and is driven by the stepper motor 13 to drive the second electric push rod 12 to rotate, thereby driving the support plate 11, the third electric push rod 14 and the transfer plate 15 to rotate, so as to drive the transfer plate 15 to rotate to the discharge end of the conveyor belt assembly 10. The second electric push rod 12 and the third electric push rod 14 can adjust the height and position of the transfer plate 15. The second sensor 101 provided at the discharge end of the conveyor belt assembly 10 is a visual sensor, which can monitor in real time whether the transfer plate 15 moves to the conveyor belt assembly 10. When the transfer plate 15 is at the discharge end of the conveyor belt assembly 10, the conveyor belt assembly 10 works to drive the glass instrument to move until the glass instrument falls on the transfer plate 15. Preferably, a pressure sensor is provided on the transfer plate 15. When the glass instrument falls on the transfer plate 15, the pressure sensor is After the glass instrument falls on the transfer plate 15, the pressure sensor feeds back the monitored pressure data to the controller, and the controller controls the output shaft of the stepper motor 13 to rotate in the opposite direction and return to the initial state. The second electric push rod 12 controls the height adjustment of the transfer plate 15, and the third electric push rod 14 controls the position adjustment of the transfer plate 15, so that the bottom of the transfer plate 15 moves to the cooling groove 41 along the inner bottom end of the cooling groove 41. At this time, the glass instrument also enters the cooling groove 41, and then the third electric push rod 14 controls the transfer plate 15 to move in the opposite direction and move out of the cooling groove 41. During this process, the baffle assembly 7 works to retain the glass instrument in the cooling groove 41, and this process is repeated to achieve that all cooling grooves 41 are filled with glass instruments. The lifting cylinder 73 of the baffle assembly 7 can drive the baffle plate 2 to rise and fall through the baffle plate connecting frame 71.

[0032] The support seat 6 is also connected to the pushing assembly 5, and the pushing assembly 5 includes a pushing cylinder 52 and a pushing plate 51. The pushing cylinder 52 is fixedly connected to the other end vertical surface of the support seat 6, and the movable end of the pushing cylinder 52 fixes the pushing plate 51. When all the cooling grooves 41 are in the same straight line, the cooling grooves 41 are aligned with the discharge channel 2. The pushing plate 51 can be extended into the cooling groove 41 under the push of the pushing cylinder 52 to push the glassware out of the discharge channel 2.

[0033] In some embodiments, after the cooling trough 41 is adjusted to be in the same straight line, a pushing assembly 5 is provided to push out the glassware in the cooling trough 41 and move it out from the discharge channel 2. Preferably, a cold air nozzle is also provided in the discharge channel 2 to spray cold air for another cooling to ensure the cooling effect. The pushing cylinder 52 can drive the pushing plate 51 to move into the cooling trough 41 and push the glassware to move. The glassware in each cooling trough 41 enters the discharge channel 2 in turn under the pushing action of the previous one and is then discharged. The end of the pushing plate 51 that contacts the glassware is preferably made of silicone material, which can protect the glassware and avoid damaging its surface.

[0034] The outer end of the discharge channel 2 is provided with a gentle slope plate 3 inclined downward.

[0035] In some embodiments, the gentle slope plate 3 can assist the glass instrument in sliding out and achieve a buffering effect. The angle between the gentle slope plate 3 and the ground is 8-15 degrees, ensuring that the glass instrument can slide slowly.

[0036] It also includes a controller, which is electrically connected to the first sensor and the second sensor, the first sensor is a temperature sensor, the second sensor is a visual sensor, the first sensor and the second sensor are electrically connected to the controller, and the controller is electrically connected to the first electric push rod 91, the second electric push rod 12, the third electric push rod 14, the pushing cylinder 52, the stepping motor 13 and the lifting cylinder 73.

[0037] Preferably, a pressure sensor is provided on the transfer plate 15, which can identify whether there is a glass instrument on the transfer plate 15 by monitoring the pressure. The controller is electrically connected to the pressure sensor, and controls the first electric push rod 91, the second electric push rod 12, the third electric push rod 14, the pushing cylinder 52, the stepping motor 13 and the lifting cylinder 73 as well as the cold air nozzle 44 and the conveyor belt assembly 10 through the controller to realize the entire cooling process of the glass instrument.

[0038] When in use, the controller drives the first electric push rod 91 to drive the slider 46 to move in the linear track 47, thereby making the cooling slots 41 unfold in sequence. When the cooling slots 41 are opened in a step-like manner, the transfer plate 15 puts the glassware into each cooling slot 41 in sequence, starts the stepper motor 13, rotates the transfer plate 15 to the discharge end of the conveyor belt assembly 10, and the visual sensor monitors the position of the transfer plate 15. The controller controls the conveyor belt assembly 10 to transport the glassware to be cooled and places the glassware on the transfer plate 15. After the pressure sensor monitors that the glassware is on the transfer plate 15, the controller controls the stepper motor 13 to work and drive the transfer plate 15 back to the initial position, and moves the transfer plate 15 into the cooling slot 41 through the second electric push rod 12 and the third electric push rod 14, and then the transfer plate 15 withdraws from the cooling slot 41. When the transfer plate 15 withdraws from the cooling slot 41, the baffle assembly 7 The blocking plate 72 will drop to ensure that the glassware remains in the cooling groove 41. When the pressure sensor of the transfer plate 15 can no longer sense the pressure of the glassware, the controller controls the blocking plate 72 to move back to its position. This process is repeated until there are glassware in all cooling grooves 41. The controller controls the cold air nozzle 44 to spray cold air to cool the glassware in the cooling groove 41. The temperature sensor monitors the temperature in real time. When the temperature is constant or reaches a preset value, the controller controls the cold air nozzle to stop working. The controller drives the first electric push rod 91 to drive the slider 46 to move in the linear track 47, thereby returning the cooling grooves 41 in turn. The cooling grooves 41 are in the same linear state, and the movable end of the first electric push rod 91 no longer moves. When the cooling of the glassware in all cooling grooves 41 is completed, the push cylinder 52 of the push assembly 5 starts to work, and the push plate 51 extends into the cooling groove 41. Pushed by the cylinder, the push plate 51 pushes the glassware out of the cooling tank 41 and into the discharge channel 2 in turn. A cold air nozzle is provided in the discharge channel 2 to cool the glassware just pushed out again to ensure its temperature stability. After the glassware slides out of the discharge channel 2, it slides out through the gentle slope plate 3. A transmission mechanism (existing conveyor belt technology, no longer detailed, no longer shown) can be provided at the lower end of the gentle slope plate 3 to transport the glassware away, or the glassware can be taken away manually.

[0039] The above are all preferred embodiments of the present invention, and are not intended to limit the protection scope of the present invention. Therefore, any equivalent changes made based on the structure, shape, and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. A high-efficiency cooling device for laboratory glass instrument processing, comprising a support base (6), characterized in that: A glass instrument transport assembly (1), the glass instrument transport assembly (1) being arranged on the support seat (6) and used for transporting glass instruments; A cooling component (4), the cooling component (4) being arranged on the support seat (6), and the cooling component (4) being used to cool the glass instrument; The cooling assembly (4) includes a cooling trough (41), a driving module (9), a cold air nozzle (44) and a connecting module, wherein the cooling troughs (41) are multiple, and all the cooling troughs (41) are connected via the connecting module, and the connecting module is connected to the driving module (9), and the driving module (9) is arranged on the supporting seat (6), and each cooling trough (41) is provided with multiple evenly distributed cold air nozzles (44); A first sensor is respectively provided in each cooling groove (41).

2. The high-efficiency cooling device for laboratory glassware processing according to claim 1, characterized in that: The connecting module includes a connecting shaft (42), a straight groove rod (43), a connecting rod (45), a slider (46), a linear track (47) and a limiting mechanism (8), one end of each cooling groove (41) is fixedly connected to the connecting shaft (42), all the connecting shafts (42) are arranged in the slide groove of the straight groove rod (43), one end of the straight groove rod (43) is rotatably connected to one side end of the discharge channel (2) fixed at one end of the support seat (6), the other end of the straight groove rod (43) is rotatably connected to a button of the connecting rod (45), the other end of the connecting rod (45) is rotatably connected to the slider (46), and the slider (46) is slidably arranged in the linear track (47). The linear track (47) is fixed to the middle of one side of the support seat (6), and the other end of the adjacent cooling grooves (41) is connected through the limiting mechanism (8), and the limiting mechanism (8) includes a limiting ring (81), a guide column (82) and an extension arm (83), and the other end of each cooling groove (41) is fixedly connected to the limiting ring (81), and each limiting ring (81) is passed through by the guide column (82), and the lower end of each guide column (82) is fixedly connected to the extension arm (83), and one extension arm (83) at one end fixes the other end of the discharge channel (2), and the remaining extension arms (83) are fixedly connected to the adjacent cooling grooves (41).

3. The high-efficiency cooling device for laboratory glassware processing according to claim 2, characterized in that: The driving module (9) comprises a fixed block (92) and a first electric push rod (91), wherein the fixed block (92) is mounted on the support seat (6), the fixed block (92) fixes the first electric push rod (91), and the output shaft of the first electric push rod (91) is fixedly connected to the slider (46).

4. The high-efficiency cooling device for laboratory glassware processing according to claim 3, characterized in that: The other end of the support seat (6) is fixed with the glass instrument transfer assembly (1), and the glass instrument transfer assembly (1) comprises a stepper motor (13), a second electric push rod (12), a support plate (11), a third electric push rod (14) and a transfer plate (15). The stepper motor (13) is fixed to the middle of the upper side of the other end of the support seat (6), the second electric push rod (12) is fixed to the output shaft of the stepper motor (13), and the upper side of the movable end of the second electric push rod (12) is fixed. The support plate (11) is fixed with the third electric push rod (14) symmetrically on the vertical surface of the support plate (11), and the movable end of the third electric push rod (14) is fixed with the vertical surface of the transfer plate (15), and the transfer plate (15) is an L-shaped plate. The glass instrument transfer assembly (1) also includes a conveyor belt assembly (10), and a second sensor (101) is provided on one end of the housing of the conveyor belt assembly (10) corresponding to the support base (6), and the conveyor belt assembly (10) and the support base (6) are arranged at 90 degrees.

5. The high-efficiency cooling device for laboratory glassware processing according to claim 4, characterized in that: The cooling trough (41) is provided with a baffle assembly (7), which is used to block the glass instrument, limit the glass instrument after the glass instrument transfer assembly (1) transfers the glass instrument to the cooling trough (41), and block the glass instrument when the glass instrument transfer assembly (1) exits the cooling trough (41), so that the glass instrument remains in the cooling trough (41) and the glass instrument transfer assembly exits the cooling trough (41). The baffle assembly (7) includes a lifting cylinder (73), a baffle plate connecting frame (71) and a baffle plate (72). The baffle plate (72) fixes the lower end of the baffle plate connecting frame (71), and the baffle plate connecting frame (71) fixes the movable end of the lifting cylinder (73). The lifting cylinder (73) is fixed on the upper side of the cooling trough (41), and the baffle plate (72) can block the inlet of the cooling trough (41).

6. The high-efficiency cooling device for laboratory glassware processing according to claim 2, characterized in that: The support seat (6) is also connected to a pusher assembly (5), and the pusher assembly (5) includes a pusher cylinder (52) and a pusher plate (51). The pusher cylinder (52) is fixedly connected to the other end vertical surface of the support seat (6), and the movable end of the pusher cylinder (52) fixes the pusher plate (51). When all the cooling grooves (41) are in the same straight line, the cooling grooves (41) are aligned with the discharge channel (2). The pusher plate (51) can be pushed into the cooling groove (41) by the pusher cylinder (52) to push the glassware out of the discharge channel (2).

7. The high-efficiency cooling device for laboratory glassware processing according to claim 2, characterized in that: The outer end of the discharge channel (2) is provided with a gentle slope plate (3) inclined downward.

8. The high-efficiency cooling device for laboratory glassware processing according to claim 5, characterized in that: The invention also includes a controller, wherein the controller is electrically connected to the first sensor and the second sensor, wherein the first sensor is a temperature sensor and the second sensor is a visual sensor, wherein the first sensor and the second sensor are electrically connected to the controller, and wherein the controller is electrically connected to the first electric push rod (91), the second electric push rod (12), the third electric push rod (14), the push cylinder (52), the stepping motor (13) and the lifting cylinder (73).

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