Aerogel packaging mechanism

Abstract

The utility model belongs to the technical field of aerogel processing, and particularly relates to an aerogel packaging mechanism which comprises a heating unit, a supporting machine box, a sliding frame, a stretching plate, a lifting machine base, limiting vertical rods, a guide-out frame and a cutting unit. The heating unit is arranged above the supporting machine box, and at least two limiting vertical rods are arranged on the edge of one side of the supporting machine box; the two sides, adjacent to the two limiting vertical rods, of the heating unit are each provided with a lifting plate, the lower end of each lifting plate is embedded into the lifting base, and the heating unit is matched with the lifting base through the lifting plates on the two opposite sides. At least two sliding frames are arranged above the supporting machine box, transverse openings are formed in the sides, facing each other, of the two sliding frames, and a stretching plate is embedded between the transverse openings of the two sliding frames in a sliding mode. And the aerogel subjected to film covering and hot pressing can be cut and separated.

Description

Technical Field

[0001] This utility model belongs to the field of aerogel processing technology, and in particular relates to an aerogel encapsulation mechanism. Background Technology

[0002] Aerogel encapsulation is a process of treating aerogel. Encapsulated aerogel products not only provide some protection for the aerogel itself, but also improve the durability and stability of the aerogel.

[0003] Conventional aerogel encapsulation involves covering the aerogel surface with a polymer film and then hot-pressing it for encapsulation. However, in the conventional hot-pressing process, the aerogel needs to be manually embedded between the hot-pressing equipment and the pad. Therefore, this method can easily lead to burns from touching the hot-pressing equipment. Furthermore, during the encapsulation process, the appropriate polymer film needs to be cut according to the size of the aerogel before covering the aerogel surface, which also consumes a certain amount of manpower. Utility Model Content

[0004] To address the technical deficiencies in the background art, this utility model proposes an aerogel encapsulation mechanism, which solves the aforementioned technical problems and meets practical needs. The specific technical solution is as follows:

[0005] An aerogel encapsulation mechanism includes: a heating unit, a supporting housing, a sliding frame, a stretching plate, a lifting base, limiting uprights, an guide frame, and a cutting unit. The heating unit is located above the supporting housing. At least two limiting uprights are provided on one side and edge of the supporting housing. The heating unit has at least two locking slots, which respectively engage with each of the limiting uprights. A lifting plate is provided on each side of the heating unit adjacent to the two limiting uprights. The lower end of each lifting plate is embedded in the lifting base. Two heating units are respectively located on the outside of the supporting housing. The heating units cooperate with the lifting base through the lifting plates on opposite sides. The device moves up and down along the two limiting uprights; at least two sliding frames are provided above the support box, each sliding frame has a horizontal opening on one side facing each other, and each sliding frame has a corresponding lifting plate on its outward side, with a stretching plate slidably embedded between the horizontal openings of the two sliding frames; one of the two sliding frames has an outlet frame at each of its outward ends, and a roller is provided between the two outlet frames; a hot press plate is provided on the side of the heating unit facing the support box, and a placement groove is provided on each of the opposite sides of the hot press plate, with a cutting unit placed in each of the two placement grooves.

[0006] Each of the limiting uprights has a protruding strip on each side of its contact with the heating unit, and the two protruding strips of the limiting upright are respectively embedded in the side of the heating unit that is in contact with it; one of the two protruding strips of each limiting upright has a through slot; each limiting upright is hollow inside, and a wire tube is provided inside the limiting upright. One end of the wire tube of the limiting upright passes through the slot and extends into the heating unit, and the other end of the wire tube inside the limiting upright extends into the support housing.

[0007] A side plate is attached to one side of each of the two sliding frames. The side plate is located at the upper edge of the support housing. A reset button is provided on the inward side of the side plate. The reset button is made of a conduit that passes through the side plate and extends into the support housing. A reserve power supply is provided inside the support housing. The reserve power supply is connected to the conduit extending from the reset button and is linearly electrically connected.

[0008] The stretching plate moves back and forth between the two sliding frames; one side of the stretching plate is attached to the side plate and the reset button is pressed; a groove is provided on the side of the stretching plate away from the side plate; a working plate is provided above the stretching plate, and the working plate has several locking holes, each of which is filled with a limiting protrusion; at least two limiting protrusions are provided on the working plate above it and facing the groove.

[0009] The heating unit is equipped with a heating structure. One side of the heating structure is connected to a hot press plate. A temperature control component is provided on the side of the heating structure away from the hot press plate. A control unit is provided on the side of the temperature control component away from the heating structure. The heating structure, the temperature control component, and the control unit are all linearly electrically connected. The control unit has wires extending outward and connecting to a pressing block. Each pressing block is located in the heating unit between a placement slot and a limiting protrusion provided on the stretching plate.

[0010] Each of the placement slots has a heat insulation plate on its outer side; two parallel guide rails are provided on the upper part of each placement slot and on opposite sides, and the upper surface of the lower guide rail has a number of serrations and extends along the guide rail.

[0011] Each of the cutting units has a guide wheel on each of its opposite sides. The surface of the guide wheel is engaged with the teeth of the guide rail located below. Each of the two guide wheels is connected by a rotating shaft that runs through the center of the circle. The other end of the rotating shaft runs through the cutting unit. A drive motor is installed inside the cutting unit. The drive motor has a drive shaft inside, and a belt is wrapped around the drive shaft. The drive shaft of the drive motor is located inside the motor. A section of the belt that runs around the drive shaft is housed inside the drive motor. The other section of the belt runs outside the drive motor and around the rotating shaft. The rotating shaft connecting the two guide wheels runs through the cutting unit. Each cutting unit has an air hole on a vertical panel and a bottom panel. An air pump is connected between the two air holes. The air pump is connected to a spring tube through a vertical panel. The other end of the spring tube is connected to an air inlet / outlet.

[0012] Each of the cutting units is connected to an air cylinder at its lower end. The air cylinder is connected to the injection air pump through an air hole in the bottom plate. The air cylinder has an inlet and outlet hole at its lower end. An ejector rod is provided inside the air cylinder. One end of the ejector rod extends to the outside through the inlet and outlet hole. A cutting blade holder is connected to the end of the ejector rod. The other end of the ejector rod is provided with a top plate, which is placed horizontally inside the air cylinder. A spring is provided between the top plate of the ejector rod and the bottom of the outer side of the cutting unit.

[0013] Each of the export frames is provided with a guide groove on its upper and lower sides, and a limiting rod is provided on its upper and lower sides; each of the limiting rods is provided with a sliding protrusion on the side facing the export frame, and the sliding protrusion of the limiting rod is embedded in the corresponding guide groove; each of the export frames moves back and forth in one direction through the cooperation of the guide groove and the two limiting rods.

[0014] The beneficial effects of this utility model are as follows:

[0015] This invention employs an upper and lower pressing method to encapsulate aerogel. During aerogel processing, a stretching plate is pulled outwards in one direction to expose a processing area for the aerogel. The aerogel is then fixed above the stretching plate, which is then pushed inwards until it reaches the heating unit above it. (As the stretching plate is pulled outwards, a guide frame is also pulled out, which holds the film encapsulating the aerogel; this film is rolled up and stored.) At this point, a lifting plate descends via a lower lifting base, simultaneously driving the heating unit to perform heat pressing on the upper surface of the stretching plate. Before the heat pressing, the film, rolled up on a roller, can be pulled out and applied to the outer surface of the aerogel. During the heat pressing process, a cutting unit pops outwards to cut the film. After the above process is completed, the heating unit resets, exposing the processed encapsulated aerogel, which can then be removed and transported to the next processing step. Attached Figure Description

[0016] Figure 1 This is a three-dimensional structural diagram of an aerogel encapsulation mechanism.

[0017] Figure 2 This is a schematic diagram of the extension plate structure of an aerogel encapsulation mechanism.

[0018] Figure 3 This is a schematic diagram of the internal structure of a heating unit for an aerogel encapsulation mechanism.

[0019] Figure 4 This is a schematic diagram of the moving structure of a cutting unit in an aerogel encapsulation mechanism.

[0020] Figure 5 This is a schematic diagram of the internal structure of the support casing for an aerogel encapsulation mechanism.

[0021] Figure 6 This is a schematic diagram of the internal structure of a cutting unit for an aerogel encapsulation mechanism.

[0022] Labeling Explanation: 1. Heating Unit; 11. Hot Press Plate; 12. Heating Structure; 13. Temperature Control Component; 14. Placement Slot; 15. Air Inlet / Outlet; 16. Spring Conduit; 2. Support Housing; 21. Reserve Power Supply; 3. Sliding Frame; 31. Reset Button; 32. Side Plate; 4. Stretching Plate; 41. Working Plate; 42. Groove; 43. Limiting Protrusion; 5. Lifting Base; 51. Lifting Plate; 6. Limiting Vertical Rod; 7. Guide Frame; 71. Limiting Rod; 72. Roller; 8. Cutting Unit; 81. Guide Rail; 82. Spring; 83. Ejector Rod; 84. Air Cylinder; 85. Cutting Blade Holder; 810. Guide Wheel; 9. Drive Motor; 91. Air Pump; 10. Control Unit; 101. Pressing Block 101. Detailed Implementation

[0023] The embodiments of this utility model will be described below with reference to the accompanying drawings and related examples. The embodiments of this utility model are not limited to the following examples, and this utility model relates to relevant necessary components in this technical field, which should be regarded as well-known technology in this technical field and can be known and mastered by those skilled in this technical field.

[0024] like Figures 1 to 6 As shown, an aerogel encapsulation mechanism includes: a heating unit 1, a support housing 2, a sliding frame 3, a stretching plate 4, a lifting base 5, limiting uprights 6, an guide frame 7, and a cutting unit 8. The heating unit 1 is located above the support housing 2. At least two limiting uprights 6 are provided on one side and edge of the support housing 2. The heating unit 1 has at least two latches that interlock with each limiting upright 6. A lifting plate 51 is provided on each side of the heating unit 1 adjacent to the two limiting uprights 6. The lower end of each lifting plate 51 is embedded in the lifting base 5. The two lifting bases 5 are located on the outside of the support housing 2. The heating unit 1 is connected to the lifting bases 5 via the lifting plates 51 on opposite sides. The machine is assembled and moves up and down along the two limiting uprights 6; at least two sliding frames 3 are provided above the support box 2, and a horizontal opening is provided on the side of the two sliding frames 3 facing each other. A corresponding lifting plate 51 is provided on the side of the two sliding frames 3 facing outwards. A stretching plate 4 is slidably embedded between the horizontal openings of the two sliding frames 3; an outlet frame 7 is provided at one of the two sliding frames 3 and at each of the two outlet frames 7, and a roller 72 is provided between the two outlet frames 7; a hot press plate 11 is provided on the side of the heating unit 1 facing the support box 2, and a placement groove 14 is provided on each of the two opposite sides of the hot press plate 11, and a cutting unit 8 is placed in each of the two placement grooves 14.

[0025] This invention employs an upper and lower pressing method to encapsulate aerogel. During aerogel processing, a stretching plate 4 is pulled outwards in one direction to expose a processing area for placing the aerogel. The aerogel is then fixed above the stretching plate 4, and the stretching plate 4 is pushed inwards until it reaches the heating unit 1 above it. (As the stretching plate 4 is pulled outwards, a guide frame 7 is also pulled out; the guide frame 7 is used to hold the film encapsulating the aerogel, and this film is rolled up for storage.) At this time, the lifting plate 5... 1. The device is lowered via the lifting base 5 below. At the same time, the lifting plate 51 drives the heating unit 1 to heat press the upper surface of the stretching plate 4. Before the heating unit 1 heats and presses, the film placed in a roll from the roller 72 can be pulled out and covered to cover the outer surface of the aerogel. During the heat pressing process of the heating unit 1, the cutting unit 8 pops out to cut the film. After the above process is completed, the heating unit 1 is reset, exposing the processed encapsulated aerogel, which can be taken out and transported to the next processing step.

[0026] After adopting the above structure, it should be further explained that after the above processing, the heating unit 1 is equipped with a gear motor, and the lifting plate 51 is provided with a longitudinal rack on the outside and the side opposite to the gear motor. The heating unit 1 then uses the internal gear motor to move the lifting plate 51 up and down repeatedly. The gear motor is linearly electrically connected to the power supply 21 and control unit 10 in the support housing 2 through a conduit.

[0027] Each limiting rod 6 has a protruding strip on each side of its contact with the heating unit 1, and the two protruding strips of the limiting rod 6 are respectively embedded in the side of the heating unit 1 that is in contact with it; one of the two protruding strips of each limiting rod 6 has a through slot; each limiting rod 6 is hollow inside, and a wire tube is installed inside the limiting rod 6. One end of the wire tube of the limiting rod 6 passes through the slot and extends into the heating unit 1, and the other end of the wire tube inside the limiting rod 6 extends into the support housing 2.

[0028] With the above structure, it should be further explained that the two limiting rods 6 are embedded at the edge of the heating unit 1 to prevent the heating unit 1 from swaying back and forth when it is raised and lowered, which would affect the operation. In addition to providing the limit for the up and down movement, the two limiting rods 6 also serve as the power transmission between the heating unit 1 and the power source. The conduit leading out of the heating unit 1 extends from the two limiting rods 6 and extends to the power source in the supporting housing 2.

[0029] A side plate 32 is attached to one side of each of the two sliding frames 3. The side plate 32 is located at the upper edge of the support housing 2. A reset button 31 is provided on the inward side of the side plate 32. The reset button 31 is installed in the side plate 32 by means of a conduit and extends into the support housing 2. A reserve power supply 21 is provided in the support housing 2. The reserve power supply 21 is connected to the conduit extending from the reset button 31 and is linearly electrically connected.

[0030] With the above structure, it should be further explained that the stretching plate 4 is pressed against the side plate 32 by the two sliding frames 3, and at the same time the reset button 31 is pressed into the side plate 32. The reset button 31 is a start switch used to connect or disconnect the power supply and the electrical components of this utility model. When the stretching plate 4 is pulled outward, the reset button 31, which is pressed, will rebound. This method can reduce the continuous operation of the equipment and avoid continuous energy consumption when not processing.

[0031] The stretching plate 4 moves back and forth between the two sliding frames 3; one side of the stretching plate 4 is attached to the side plate 32 and the reset button 31 is pressed; a groove 42 is provided on the side of the stretching plate 4 away from the side plate 32; a working plate 41 is provided on the top of the stretching plate 4, and the working plate 41 has several locking holes, and a limiting protrusion 43 is filled in the several locking holes; at least two limiting protrusions are provided on the top of the working plate 41 and on the side facing the groove 42.

[0032] With the above structure, it should be further explained that the setting of the stretching plate 4 can avoid the operator from bending down between the heating unit 1 and the support box 2 to place the aerogel to be processed. At the same time, the stretching plate 4, which can be pulled outward, can facilitate the operator to operate above the working plate 41. In order to further fix the placed aerogel and prevent displacement during the hot pressing process, several locking holes are started on the outer surface of the working plate 41, and a limiting protrusion 43 can be inserted into each locking hole. By inserting the limiting protrusion 43, the position of the aerogel placed on the upper surface of the working plate 41 is limited and fixed.

[0033] The heating unit 1 is provided with a heating structure 12. One side of the heating structure 12 is connected to the hot press plate 11. A temperature control component 13 is provided on the side of the heating structure 12 away from the hot press plate 11. A control unit 10 is provided on the side of the temperature control component 13 away from the heating structure 12. The heating structure 12, the temperature control component 13, and the control unit 10 are respectively linearly electrically connected. The control unit 10 has wires extending outward and connecting to a pressing block 101. Each pressing block 101 is located in the heating unit 1 between a placement groove 14 and a limiting protrusion provided on the stretching plate 4.

[0034] With the above structure, it should be further explained that the heating structure 12 is controlled to start and stop by the control unit 10 above, and the heating structure 12 heats up by resistance heating. The resistance heating method is relatively simple in structure and heats up relatively quickly. Therefore, it is the optimal heating method of this utility model.

[0035] The heat generated by the heating structure 12 is transferred to the hot press plate 11, and then the hot press plate 11 encapsulates the coated aerogel.

[0036] The temperature control component 13 of this utility model is used to control the temperature of the heating structure 12. When the temperature control component 13 receives a signal that the temperature of the heating structure 12 is too high, it feeds the information back to the control unit 10. At this time, the control unit 10 disconnects the power supply from the heating structure 12 to perform cooling.

[0037] The control unit 10 used in this utility model is composed of several circuit boards.

[0038] Each of the placement slots 14 has a heat insulation plate on its outer side; two parallel guide rails 81 are provided on the upper part of each placement slot 14 and on opposite sides, and the upper surface of the guide rail 81 at the bottom is provided with a number of serrations and extends along the swing direction of the guide rail 81.

[0039] With the above structure, it should be further explained that the heat insulation plate of the placement slot 14 can prevent the heat generated by the heating structure 12 from affecting the operation of the cutting unit 8.

[0040] Each of the cutting machine units 8 has a guide wheel 810 on each of its opposite sides. The surface of the guide wheel 810 is engaged with the toothed grooves of the guide rail 81 located below. Each of the two guide wheels 810 is connected by a rotating shaft that runs through the center of the circle. The other end of the rotating shaft runs through the inside of the cutting machine unit 8. A drive motor 9 is installed inside the cutting machine unit 8. A drive shaft is installed inside the drive motor 9, and a belt is wrapped around the drive shaft. The drive shaft of the drive motor 9 is located inside the drive motor 9. A section of the belt that runs around the drive shaft is housed inside the drive motor 9. The other section of the belt of the drive motor 9 is located outside the drive motor 9 and runs around the rotating shaft. The rotating shaft connecting the two guide wheels 810 runs through the cutting machine unit 8. Each cutting machine unit 8 has an air hole on a vertical panel and a bottom panel. An air pump 91 is connected between the two air holes. The air pump 91 is connected to a spring tube 16 through a vertical panel. The other end of the spring tube 16 is connected to an air inlet / outlet port 15.

[0041] With the above structure, it should be further explained that the guide wheel 810 rotates by driving the motor 9, and the motor 9 of this utility model is a motor that can rotate in both directions. Therefore, the motor 9 can drive the two guide wheels 810 to move back and forth. The motor 9 drives the drive shaft by driving a belt, and the way the drive shaft is driven is not unique. Gears can also be used to mesh with the drive shaft to achieve meshing drive.

[0042] The motor 9 has an electrical conduit extending outward and passing through the limiting rod 6, and is linearly electrically connected to the power supply 21.

[0043] The spring tube 16 is connected to the air inlet / outlet 15 and is used to provide air for the pumping pump 91 to pump air and exhaust air.

[0044] Each cutting unit 8 is connected to an air cylinder 84 at its lower end. The air cylinder 84 is connected to an air pump 91 through an air hole in the bottom plate. An inlet and outlet hole is provided at the lower end of the air cylinder 84. An ejector rod 83 is provided inside the air cylinder 84. One end of the ejector rod 83 extends to the outside through the inlet and outlet hole. A cutting blade holder 85 is connected to the end of the ejector rod 83. A top plate is provided at the other end of the ejector rod 83 and is placed horizontally inside the air cylinder 84. A spring 82 is provided between the top plate of the ejector rod 83 and the bottom of the outer side of the cutting unit 8.

[0045] With the above structure, it should be further explained that the ejector rod 83 injects air into the air cylinder 84 through the air pump 91. The expanding air in the air cylinder 84 pushes the top plate of the ejector rod 83 outward, thereby causing the ejector rod 83 to drive the cutting blade holder 85 outward. The motor 9 then drives the two guide wheels 810 to move in one direction, thereby cutting the film. When the ejector rod 83 is not needed to be ejected, it is reset and retracted by the spring 82.

[0046] Each guide frame 7 has a guide groove on its upper and lower sides, and a limiting rod 71 on its upper and lower sides. Each limiting rod 71 has a sliding protrusion on the side facing the guide frame 7, and the sliding protrusion of the limiting rod 71 is embedded in the corresponding guide groove. Each guide frame 7 moves back and forth in one direction through the mutual cooperation of the guide groove and the two limiting rods 71.

[0047] With the above structure, it should be further explained that the cooperation between the guide frame 7 and the upper and lower limit rods 71 ​​allows the guide frame 7 to move left and right. Thus, when the roller 72 is filled with a roll of film, it can be pulled out according to the diameter of the film, avoiding contact and collision between the film and the lifting plate 51.

[0048] The above description is only a preferred embodiment of the present utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the principle of the present utility model, and these improvements and modifications should also be considered within the protection scope of the present utility model.

Claims

1. An aerogel encapsulation mechanism, comprising: A heating unit, a supporting housing, a sliding frame, a stretching plate, a lifting base, limiting uprights, an guide frame, and a cutting unit are characterized in that the heating unit is located above the supporting housing, and at least two limiting uprights are provided on one side and at the edge of the supporting housing. The heating unit has at least two latches, which are respectively engaged with each of the limiting uprights. A lifting plate is provided on each side of the heating unit adjacent to the two limiting uprights. The lower end of each lifting plate is embedded in the lifting base, and two heating units are respectively located on the outside of the supporting housing. The heating unit cooperates with the lifting base through the lifting plates on opposite sides and moves up and down along the two limiting uprights. At least two sliding frames are provided above the support housing. A horizontal opening is provided on one side of the two sliding frames facing each other. A corresponding lifting plate is provided on the outward side of each of the two sliding frames. A stretching plate is slidably embedded between the horizontal openings of the two sliding frames. One of the two sliding frames is provided with a guide frame at each of its outward-facing ends, and a roller is provided between the two guide frames; The heating unit is provided with a hot press plate facing one side of the supporting box. A placement groove is provided on each of the two opposite sides of the hot press plate, and a cutting unit is placed in each of the two placement grooves.

2. The aerogel encapsulation mechanism according to claim 1, characterized in that: Each of the limiting uprights has a protruding strip on each side where it is in contact with the heating unit, and the two protruding strips of the limiting upright are respectively embedded in the side of the heating unit that is in contact with it. One of the two protrusions of each of the aforementioned limiting uprights has a through slot that extends both inside and out. Each of the limiting uprights is hollow and has a wire tube inside. One end of the wire tube passes through the slot and extends into the heating unit, while the other end of the wire tube extends into the support box.

3. The aerogel encapsulation mechanism according to claim 1, characterized in that: One side plate is attached to one side of each of the two sliding frames. The side plate is located at the upper edge of the support housing. A reset button is provided on the inward side of the side plate. The reset button is made of a conduit that passes through the side plate and extends into the support housing. A backup power supply is installed inside the support chassis. The backup power supply is connected to the conduit extending from the reset button, and the connection is linear.

4. The aerogel encapsulation mechanism according to claim 3, characterized in that: The tension plate moves back and forth between the two sliding frames; One side of the stretching plate is attached to the side plate, and the reset button is pressed; The stretching plate is located on the side away from the side plate, and a groove is provided on its top. A working plate is provided above the stretching plate, and the working plate has several locking holes, each of which is filled with a limiting protrusion. At least two limiting protrusions are provided above the working plate and on the side facing the groove.

5. The aerogel encapsulation mechanism according to claim 1, characterized in that: The heating unit is equipped with a heating structure. One side of the heating structure is connected to a hot press plate. A temperature control component is provided on the side of the heating structure away from the hot press plate. A control unit is provided on the side of the temperature control component away from the heating structure. The heating structure, the temperature control component, and the control unit are respectively linearly electrically connected. The control unit has wires extending outward and connecting to a pressing block. Each pressing block is located between the heating unit and a placement slot, and each pressing block corresponds to a limiting protrusion on the stretching plate.

6. The aerogel encapsulation mechanism according to claim 1, characterized in that: Each of the aforementioned placement slots has a heat insulation plate installed on its outer side; Above each of the placement slots, and on opposite sides, are two parallel guide rails. The upper surface of the lower guide rail is provided with several serrations, which extend along the guide rail.

7. An aerogel encapsulation mechanism according to claim 6, characterized in that: Each of the cutting units is provided with a guide wheel on each of its opposite sides, and the surface of the guide wheel is engaged with the toothed groove of the guide rail below. The two guide wheels are each connected by a rotating shaft that runs through the center of the circle. The other end of the rotating shaft runs through the cutting unit. A drive motor is installed inside the cutting unit. A drive shaft is installed inside the drive motor, and a belt is wrapped around the drive shaft. The drive shaft of the drive motor is located inside the motor. A section of the belt that wraps around the drive shaft is housed inside the drive motor. The other section of the belt of the drive motor is located outside the drive motor and wraps around the rotating shaft. The shaft connecting the two guide wheels runs across the cutting unit.

8. The aerogel encapsulation mechanism according to claim 1, characterized in that: Each of the cutting units has an air hole on a vertical panel and a bottom, and an air pump is connected between the two air holes. The air pump is connected to a spring tube through a vertical panel, and the other end of the spring tube is connected to an air inlet and outlet.

9. An aerogel encapsulation mechanism according to claim 8, characterized in that: Each of the cutting units is connected to an air cylinder at its lower end. The air cylinder is connected to the injection air pump through an air hole in the bottom plate. An inlet and outlet hole is provided at the lower end of the air cylinder. The air cylinder is equipped with a push rod, one end of which extends out to the outside through the inlet and outlet holes, and a cutting blade holder is connected to the end of the push rod. The other end of the ejector rod is provided with a top plate and is placed horizontally inside the air cylinder. A spring is provided between the top plate of the ejector rod and the bottom of the outer side of the cutting unit.

10. An aerogel encapsulation mechanism according to claim 1, characterized in that: Each of the aforementioned export frames is provided with a guide groove on its upper and lower sides, and a limiting rod is provided on its upper and lower sides; Each of the limiting rods has a sliding protrusion on the side facing the guide frame, and the sliding protrusion of the limiting rod is embedded in the corresponding guide groove; Each of the aforementioned guide frames moves reciprocally in one direction through the cooperation of the guide groove and the two aforementioned limiting rods.

Images