Ice making device for analyzing efficient energy storage thermodynamic properties of water-based microcapsules

Abstract

The invention relates to the technical field of ice making, and discloses an ice making device for water-based microcapsule efficient energy storage thermodynamic performance analys.The ice making device comprises a bottom plate, a glass cavity is fixedly connected to the top of the bottom plate, a support is fixedly connected to the top of the bottom plate, the top of the glass cavity communicates with a water inlet pipe, and a power device is fixedly connected to the inner wall of the support; a circular groove is formed in the bottom of the bottom plate, a threaded ring is fixedly connected to the bottom of the bottom plate, a storage frame is in threaded connection with the surface of the threaded ring, an ice making device is arranged at the bottom of the inner wall of the glass cavity, a triangular groove is formed in the top of the bottom plate, and an ice scraping component is arranged in the glass cavity. After water is added into a glass cavity through a water inlet pipe, the water can be attached to the surface of the ice making device, the ice making device is started to start operation, after the water is condensed into ice on the surface of the ice making device, a power device is started to drive a telescopic rod to rotate, and the telescopic rod drives a scraper to rotate through a U-shaped frame during rotation; and the scraper rotates to scrape off ice on the surface of the ice making device.

Description

Technical Field

[0001] The present invention relates to the technical field of ice making, and specifically to an ice making device for the analysis of the thermodynamic performance of high-efficiency energy storage of water-based microcapsules. Background Technique

[0002] Water-based microcapsules utilize the latent heat of phase change during the ice making process to achieve cold energy storage and release in a high-efficiency energy storage system. The core of its thermodynamic performance analysis lies in optimizing the encapsulation technology of phase change materials and the heat transfer efficiency. Water undergoes a phase change between liquid and solid at 0 °C, and this process is accompanied by a large amount of latent heat exchange. The microcapsule technology encapsulates water in nanoscale particles and forms a stable shell through chemical deposition or physicochemical methods to prevent the leakage of liquid water during the phase change process and improve the cycle life.

[0003] After the ice making device currently in use finishes making ice, it is necessary to scrape the ice off with a scraper. The ice crystals after scraping will accumulate inside the ice making device. Since the scraper is rotatably arranged inside the ice making device, when the scraper scrapes the ice, the ice will be thrown out due to centrifugal force, resulting in ice crystals being distributed everywhere inside the ice making device, thus affecting the extraction of ice crystals. Summary of the Invention

[0004] The purpose of the present invention is to provide an ice making device for the analysis of the thermodynamic performance of high-efficiency energy storage of water-based microcapsules to solve the problems raised in the above background technique.

[0005] To solve the above technical problems, the present invention is realized through the following technical solutions:

[0006] The present invention is an ice making device for the analysis of the thermodynamic performance of high-efficiency energy storage of water-based microcapsules, including a bottom plate. A glass chamber is fixedly connected to the top of the bottom plate. A bracket is fixedly connected to the top of the bottom plate. A water inlet pipe is communicated with the top of the glass chamber. A power device is fixedly connected to the inner wall of the bracket. A circular groove is opened at the bottom of the bottom plate. A threaded ring is fixedly connected to the bottom of the bottom plate. A storage rack is threadedly connected to the surface of the threaded ring. An ice making device is arranged at the bottom of the inner wall of the glass chamber. A triangular groove is opened at the top of the bottom plate. A ice scraping component is arranged inside the glass chamber.

[0007] The ice scraping component includes a U-shaped frame. A cylindrical hole is formed inside the U-shaped frame. At the bottom of the inner wall of the cylindrical hole, a telescopic rod is fixedly connected. At the bottom of the inner wall of the cylindrical hole, a compression spring is fixedly connected. The upper surface of the compression spring is fixedly connected to the surface of the telescopic rod. A scraper is fixedly connected to the inner wall of the U-shaped frame. The top of the telescopic rod is fixedly connected to the output end of the power device. A bent plate is fixedly connected to the surface of the U-shaped frame. One end of the bent plate away from the U-shaped frame is fixedly connected to a material pushing frame. An elastic frame is fixedly connected to the surface of the bent plate. An auxiliary plate is fixedly connected to the bottom of the elastic frame. A pressing plate is fixedly connected to the top of the bent plate. A stress component is arranged inside the glass cavity, and a discharging component is arranged below the stress component.

[0008] Further, the top of the telescopic rod penetrates through the glass cavity and extends above the glass cavity. The bottom of the scraper contacts the top of the ice making device. The number of the elastic frames is two, and the two elastic frames are symmetrically arranged with the scraper as the center.

[0009] Further, the bottom of the auxiliary plate contacts the top of the ice making device. The inner wall of the material pushing frame is rotatably connected to the surface of the ice making device. The inner wall of the U-shaped frame is slidably connected to the surface of the telescopic rod. The end of the scraper extends to the outer end of the U-shaped frame.

[0010] Further, the stress component includes a sliding plate. The surface of the sliding plate is fixedly connected to the inner wall of the glass cavity. A moving frame is slidably connected to the surface of the sliding plate. A vertical rod is fixedly connected to the bottom of the moving frame. An inclined plate is hinged to the top of the moving frame. A sliding block is hinged to the top of the inclined plate. A chute plate is fixedly connected to the top of the sliding plate. A circular plate is fixedly connected to the surface of the sliding block.

[0011] Further, the number of the sliding plates is four, and the four sliding plates are arranged at the four corners inside the glass cavity. The upper surface of the sliding block is slidably connected to the inner wall of the chute plate.

[0012] Further, one end of the circular plate away from the sliding block extends to the outer end of the chute plate. The chute plate is located above the inside of the glass cavity. The bottom of the vertical rod extends below the sliding plate.

[0013] Further, the discharging component includes a limiting disk. A round hole rod is fixedly connected to the inner wall of the limiting disk. A spring is fixedly connected to the bottom of the inner wall of the round hole rod. The top of the spring is fixedly connected to the top of the inner wall of the round groove. A synchronous plate is fixedly connected to the surface of the limiting disk. A triangular plate is fixedly connected to the top of the synchronous plate. An inclined groove is formed at the top of the triangular plate.

[0014] Further, the limiting disk is located inside the threaded ring. The surface of the triangular plate contacts the inner wall of the triangular groove. The top of the triangular plate and the top of the bottom plate are horizontally arranged. There are four triangular plates, and the four triangular plates are located at the four corners of the bottom of the glass cavity.

[0015] The present invention has the following beneficial effects:

[0016] In the present invention, the ice scraper scrapes off the ice on the surface of the ice-making device by rotation. The scraped ice crystals will be pushed into the glass cavity by the ice scraper for collection. The auxiliary plate assists the ice scraper in processing the ice, improving the scraping effect of the ice. The scraped ice will be pushed into the glass cavity by the thrust generated by the rotation of the auxiliary plate and the ice scraper for collection, preventing the ice crystals from accumulating on the surface of the ice-making device and recondensing together. When the pusher rotates, it will push the ice crystals into the triangular groove for discharging treatment, preventing the ice crystals from spreading inside the glass cavity and affecting the material taking.

[0017] In the present invention, through the linkage and cooperation of the pressing plate, circular plate, sliding block, inclined plate, moving frame and discharging component, the ice crystals entering the triangular groove can fall into the storage rack for storage. When the circular plate separates from the pressing plate, the discharging component will move upward to seal the triangular groove, and at the same time of scraping the ice by the ice scraper, the ice crystals will be pushed into the storage rack to complete the discharging, improving the convenience of discharging the ice crystals.

[0018] In the present invention, the ice crystals entering the triangular groove will contact the top of the triangular plate. When the moving frame moves downward, the moving frame will push the triangular plate into the storage rack through the vertical rod. There is an inclined groove on the top of the triangular plate, and the ice crystals on the surface of the triangular plate will slide down into the storage rack through the inclined groove to complete the collection. When the pressing plate contacts the circular plate, vibration will be generated. The vibration can make the ice crystals on the surface of the triangular plate slide, preventing the ice crystals from accumulating on the surface of the triangular plate and affecting the discharging.

[0019] Of course, it is not necessary for any product implementing the present invention to achieve all the above advantages simultaneously. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the drawings required for describing the embodiments will be briefly introduced below. Obviously, the drawings in the following description are only some embodiments of the present invention. For those of ordinary skill in the art, other drawings can be obtained based on these drawings without creative efforts.

[0021] Figure 1 It is a schematic diagram of the overall structure of the present invention;

[0022] Figure 2 It is a schematic diagram of the threaded ring structure of the present invention;

[0023] Figure 3 Schematic cross-sectional structure diagram of the glass cavity of the present invention;

[0024] Figure 4 Overall structure diagram of the ice scraping component of the present invention;

[0025] Figure 5 Schematic cross-sectional structure diagram of the U-shaped frame of the present invention;

[0026] Figure 6 Overall structure diagram of the force-bearing component of the present invention;

[0027] Figure 7 Another structure diagram of the force-bearing component of the present invention;

[0028] Figure 8 Overall structure diagram of the unloading component of the present invention.

[0029] In the attached drawings, the list of components represented by each reference numeral is as follows:

[0030] In the figure: 1, bottom plate; 2, glass cavity; 3, bracket; 4, water inlet pipe; 5, power device; 6, storage rack; 7, threaded ring; 8, circular groove; 9, triangular groove; 10, ice making device; 11, ice scraping component; 12, force-bearing component; 13, unloading component; 20, U-shaped frame; 21, auxiliary plate; 22, scraper; 23, elastic frame; 24, bent plate; 25, extrusion plate; 26, pushing rack; 27, telescopic rod; 28, compression spring; 29, cylindrical hole; 30, vertical rod; 31, sliding plate; 32, moving frame; 33, inclined plate; 34, chute plate; 35, circular plate; 36, sliding block; 40, limiting disc; 41, spring; 42, triangular plate; 43, synchronous plate; 44, round hole rod; 45, inclined groove. Detailed implementation manners

[0031] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0032] Please refer to Figures 1-8As shown in the figure, the present invention is an ice-making device for the analysis of the thermodynamic performance of high-efficiency energy storage of water-based microcapsules, including a bottom plate 1. A glass chamber 2 is fixedly connected to the top of the bottom plate 1. A bracket 3 is fixedly connected to the top of the bottom plate 1. A water inlet pipe 4 is communicated with the top of the glass chamber 2. A power device 5 is fixedly connected to the inner wall of the bracket 3. A circular groove 8 is opened at the bottom of the bottom plate 1. A threaded ring 7 is fixedly connected to the bottom of the bottom plate 1. A storage rack 6 is threadedly connected to the surface of the threaded ring 7. An ice-making device 10 is arranged at the bottom of the inner wall of the glass chamber 2. A triangular groove 9 is opened at the top of the bottom plate 1. A scraping component 11 is arranged inside the glass chamber 2;

[0033] The scraping component 11 includes a U-shaped frame 20. A cylindrical hole 29 is opened inside the U-shaped frame 20. A telescopic rod 27 is fixedly connected to the bottom of the inner wall of the cylindrical hole 29. A compression spring 28 is fixedly connected to the bottom of the inner wall of the cylindrical hole 29. The upper surface of the compression spring 28 is fixedly connected to the surface of the telescopic rod 27. A scraper 22 is fixedly connected to the inner wall of the U-shaped frame 20. The top of the telescopic rod 27 penetrates through the glass chamber 2 and extends above the glass chamber 2. When the U-shaped frame 20 rotates, it drives the auxiliary plate 21 to rotate through the connection between the bent plate 24 and the elastic frame 23. The auxiliary plate 21 assists the scraper 22 in processing the ice, improving the scraping effect on the ice. The scraped ice will be pushed into the glass chamber 2 by the thrust generated by the rotation of the auxiliary plate 21 and the scraper 22 for collection, preventing ice crystals from accumulating on the surface of the ice-making device 10 and re-condensing together. The pushing frame 26 will rotate inside the glass chamber 2 as the bent plate 24 rotates. When the pushing frame 26 rotates, it will push the ice crystals into the triangular groove 9 for discharging treatment, preventing the ice crystals from spreading inside the glass chamber 2 and affecting the material taking. The bottom of the scraper 22 contacts the top of the ice-making device 10. The number of elastic frames 23 is set to two, and the two elastic frames 23 are symmetrically arranged with the scraper 22 as the center.

[0034] The top of the telescopic rod 27 penetrates through the glass chamber 2 and extends above the glass chamber 2. When the U-shaped frame 20 rotates, it drives the auxiliary plate 21 to rotate through the connection between the bent plate 24 and the elastic frame 23. The auxiliary plate 21 assists the scraper 22 in processing the ice, improving the scraping effect on the ice. The scraped ice will be pushed into the glass chamber 2 by the thrust generated by the rotation of the auxiliary plate 21 and the scraper 22 for collection, preventing ice crystals from accumulating on the surface of the ice-making device 10 and re-condensing together. The pushing frame 26 will rotate inside the glass chamber 2 as the bent plate 24 rotates. When the pushing frame 26 rotates, it will push the ice crystals into the triangular groove 9 for discharging treatment, preventing the ice crystals from spreading inside the glass chamber 2 and affecting the material taking. The bottom of the scraper 22 contacts the top of the ice-making device 10. The number of elastic frames 23 is set to two, and the two elastic frames 23 are symmetrically arranged with the scraper 22 as the center.

[0035] The bottom of the auxiliary plate 21 is in contact with the top of the ice-making device 10. The inner wall of the pusher frame 26 is rotatably connected to the surface of the ice-making device 10. The inner wall of the U-shaped frame 20 is slidably connected to the surface of the telescopic rod 27. The end of the scraper 22 extends to the outer end of the U-shaped frame 20.

[0036] The force-bearing member 12 includes a sliding plate 31. The surface of the sliding plate 31 is fixedly connected to the inner wall of the glass cavity 2. A moving frame 32 is slidably connected to the surface of the sliding plate 31. A vertical rod 30 is fixedly connected to the bottom of the moving frame 32. An inclined plate 33 is hinged to the top of the moving frame 32. A sliding block 36 is hinged to the top of the inclined plate 33. A chute plate 34 is fixedly connected to the top of the sliding plate 31. A circular plate 35 is fixedly connected to the surface of the sliding block 36.

[0037] The number of the sliding plates 31 is set to four. The four sliding plates 31 are arranged at the four corners inside the glass cavity 2. The upper surface of the sliding block 36 is slidably connected to the inner wall of the chute plate 34.

[0038] One end of the circular plate 35 away from the sliding block 36 extends to the outer end of the chute plate 34. In the present invention, when the bent plate 24 rotates, it drives the pressing plate 25 to rotate. When the pressing plate 25 rotates, it contacts the circular plate 35 and pushes the circular plate 35 to move. When the circular plate 35 moves, it pushes the sliding block 36 to slide inside the chute plate 34. When the sliding block 36 moves, it pushes the moving frame 32 to move downward through the inclined plate 33. When the moving frame 32 moves downward, it will push the discharging member 13 to move downward, so that the ice crystals entering the triangular groove 9 can fall into the storage rack 6 for storage. When the circular plate 35 is separated from the pressing plate 25, the discharging member 13 will move upward to seal the triangular groove 9. While the scraper 22 scrapes off the ice, it pushes the ice crystals into the storage rack 6 to complete the discharging, improving the convenience during the discharging of the ice crystals. The chute plate 34 is located above the inside of the glass cavity 2. The bottom of the vertical rod 30 extends below the sliding plate 31.

[0039] The discharging member 13 includes a limiting disk 40. The inner wall of the limiting disk 40 is fixedly connected with a round-hole rod 44. A spring 41 is fixedly connected to the bottom of the inner wall of the round-hole rod 44. The top of the spring 41 is fixedly connected to the top of the inner wall of the round groove 8. The surface of the limiting disk 40 is fixedly connected with a synchronous plate 43. The top of the synchronous plate 43 is fixedly connected with a triangular plate 42. An inclined groove 45 is formed at the top of the triangular plate 42.

[0040] The limiting disc 40 is located inside the threaded ring 7. The ice crystals that enter the inside of the triangular groove 9 in the present invention will contact the top of the triangular plate 42. When the moving frame 32 moves downward, the moving frame 32 will push the triangular plate 42 into the inside of the storage rack 6 through the vertical rod 30. An inclined groove 45 is provided at the top of the triangular plate 42. The ice crystals on the surface of the triangular plate 42 will slide down through the inclined groove 45 into the inside of the storage rack 6 to complete collection. When the pressing plate 25 contacts the circular plate 35, vibrations will be generated. The vibrations can cause the ice crystals on the surface of the triangular plate 42 to slide, preventing the ice crystals from accumulating on the surface of the triangular plate 42 and affecting the unloading. The surface of the triangular plate 42 contacts the inner wall of the triangular groove 9. The top of the triangular plate 42 and the top of the bottom plate 1 are horizontally arranged. The number of triangular plates 42 is four, and the four triangular plates 42 are located at the four corners of the bottom of the glass cavity 2.

[0041] During use, after water is added into the interior of the glass chamber 2 through the water inlet pipe 4, the water will come into contact with the surface of the ice-making device 10, and the ice-making device 10 is started to operate. After the water condenses into ice on the surface of the ice-making device 10, the power device 5 is started to drive the telescopic rod 27 to rotate. When the telescopic rod 27 rotates, it drives the scraper 22 to rotate through the U-shaped frame 20. The scraper 22 scrapes off the ice on the surface of the ice-making device 10 by rotating, and the scraped ice crystals will be pushed into the interior of the glass chamber 2 by the scraper 22 for collection. When the U-shaped frame 20 rotates, it drives the auxiliary plate 21 to rotate through the connection between the bent plate 24 and the elastic frame 23. The auxiliary plate 21 assists the scraper 22 in processing the ice, improving the scraping effect on the ice. The scraped ice will be pushed into the interior of the glass chamber 2 by the thrust generated by the rotation of the auxiliary plate 21 and the scraper 22 for collection, preventing the ice crystals from accumulating on the surface of the ice-making device 10 and re-condensing together. The material pushing frame 26 will rotate in the interior of the glass chamber 2 as the bent plate 24 rotates. When the material pushing frame 26 rotates, it will push the ice crystals into the interior of the triangular groove 9 for discharging treatment, preventing the ice crystals from spreading in the interior of the glass chamber 2 and affecting the material taking. When the bent plate 24 rotates, it drives the pressing plate 25 to rotate. When the pressing plate 25 rotates, it contacts the circular plate 35 and pushes the circular plate 35 to move. When the circular plate 35 moves, it pushes the sliding block 36 to slide inside the chute plate 34. When the sliding block 36 moves, it pushes the moving frame 32 downward through the inclined plate 33. When the moving frame 32 moves downward, it will push the discharging component 13 downward, so that the ice crystals entering the interior of the triangular groove 9 can fall into the interior of the storage rack 6 for storage. When the circular plate 35 separates from the pressing plate 25, the discharging component 13 will move upward to seal the triangular groove 9, and at the same time as the scraper 22 scrapes off the ice, it will push the ice crystals into the interior of the storage rack 6 to complete the discharging, improving the convenience during the discharging of the ice crystals. The ice crystals entering the interior of the triangular groove 9 will contact the top of the triangular plate 42. When the moving frame 32 moves downward, the moving frame 32 will push the triangular plate 42 into the interior of the storage rack 6 through the vertical rod 30. There is an inclined groove 45 on the top of the triangular plate 42, and the ice crystals on the surface of the triangular plate 42 will slide into the interior of the storage rack 6 through the inclined groove 45 to complete the collection. When the pressing plate 25 contacts the circular plate 35, it will generate vibration. The vibration can make the ice crystals on the surface of the triangular plate 42 slide, preventing the ice crystals from accumulating on the surface of the triangular plate 42 and affecting the discharging.

[0042] The preferred embodiments of the present invention disclosed above are only used to help illustrate the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to the specific embodiments described. Obviously, according to the content of this specification, many modifications and changes can be made. This specification selects and specifically describes these embodiments in order to better explain the principle and practical application of the present invention, so that those skilled in the relevant technical field can well understand and utilize the present invention. The present invention is only limited by the claims and their full scope and equivalents.

Claims

1. An ice-making device for analyzing the thermodynamic properties of water-based microcapsules with high-efficiency energy storage, comprising a bottom plate (1), characterized in that: The top of the bottom plate (1) is fixedly connected to a glass cavity (2), the top of the bottom plate (1) is fixedly connected to a bracket (3), the top of the glass cavity (2) is connected to a water inlet pipe (4), the inner wall of the bracket (3) is fixedly connected to a power device (5), the bottom of the bottom plate (1) is provided with a circular groove (8), the bottom of the bottom plate (1) is fixedly connected to a threaded ring (7), the surface of the threaded ring (7) is threadedly connected to a storage rack (6), an ice-making device (10) is arranged at the bottom of the inner wall of the glass cavity (2), the top of the bottom plate (1) is provided with a triangular groove (9), and an ice scraping component (11) is arranged inside the glass cavity (2); The ice scraping component (11) comprises a U-shaped frame (20), a cylindrical hole (29) is provided inside the U-shaped frame (20), a telescopic rod (27) is fixedly connected to the bottom of the inner wall of the cylindrical hole (29), a pressing spring (28) is fixedly connected to the bottom of the inner wall of the cylindrical hole (29), the upper surface of the pressing spring (28) is fixedly connected to the surface of the telescopic rod (27), a scraper (22) is fixedly connected to the inner wall of the U-shaped frame (20), and the top of the telescopic rod (27) is fixedly connected to the output end of the power device (5). A bent plate (24) is fixedly connected to the surface of the U-shaped frame (20), an end of the bent plate (24) away from the U-shaped frame (20) is fixedly connected to a material pushing frame (26), an elastic frame (23) is fixedly connected to the surface of the bent plate (24), an auxiliary plate (21) is fixedly connected to the bottom of the elastic frame (23), a pressing plate (25) is fixedly connected to the top of the bent plate (24), a force-bearing component (12) is arranged inside the glass cavity (2), and a discharge component (13) is arranged below the force-bearing component (12).

2. The ice-making device for analyzing the thermodynamic performance of water-based microcapsules with high-efficiency energy storage according to claim 1, characterized in that: The top of the telescopic rod (27) passes through the glass cavity (2) and extends to the top of the glass cavity (2); the bottom of the scraper (22) contacts the top of the ice-making device (10); and there are two elastic frames (23), which are symmetrically arranged with the scraper (22) as the center.

3. The ice-making device for analyzing the thermodynamic performance of water-based microcapsules with high-efficiency energy storage according to claim 2, characterized in that: The bottom of the auxiliary plate (21) contacts the top of the ice-making device (10), the inner wall of the pushing frame (26) is rotatably connected to the surface of the ice-making device (10), the inner wall of the U-shaped frame (20) is slidably connected to the surface of the telescopic rod (27), and the end of the scraper (22) extends to the outer end of the U-shaped frame (20).

4. The ice-making device for analyzing the thermodynamic performance of water-based microcapsules with high-efficiency energy storage according to claim 3, characterized in that: The force-bearing component (12) comprises a slide plate (31), the surface of the slide plate (31) is fixedly connected to the inner wall of the glass cavity (2), the surface of the slide plate (31) is slidably connected to a moving frame (32), the bottom of the moving frame (32) is fixedly connected to a hanging rod (30), the top of the moving frame (32) is hinged to an inclined plate (33), the top of the inclined plate (33) is hinged to a sliding block (36), the top of the slide plate (31) is fixedly connected to a sliding groove plate (34), and the surface of the sliding block (36) is fixedly connected to a circular plate (35).

5. The ice-making device for analyzing the thermodynamic performance of water-based microcapsules with high-efficiency energy storage according to claim 4, characterized in that: The number of the slide plates (31) is four, and the four slide plates (31) are arranged at the four inner corners of the glass cavity (2). The upper surface of the sliding block (36) is slidably connected to the inner wall of the sliding groove plate (34).

6. The ice-making device for analyzing the thermodynamic performance of water-based microcapsules with high-efficiency energy storage according to claim 5, characterized in that: One end of the circular plate (35) away from the sliding block (36) extends to the outer end of the slide slot plate (34), and the slide slot plate (34) is located above the interior of the glass cavity (2). The bottom of the vertical rod (30) extends to the bottom of the slide plate (31).

7. The ice-making device for analyzing the thermodynamic performance of water-based microcapsules with high-efficiency energy storage according to claim 6, characterized in that: The unloading component (13) comprises a limit plate (40), the inner wall of the limit plate (40) is fixedly connected to a round hole rod (44), the bottom of the inner wall of the round hole rod (44) is fixedly connected to a spring (41), the top of the spring (41) is fixedly connected to the top of the inner wall of the circular groove (8), the surface of the limit plate (40) is fixedly connected to a synchronous plate (43), the top of the synchronous plate (43) is fixedly connected to a triangular plate (42), and the top of the triangular plate (42) is provided with an inclined groove (45).

8. The ice-making device for analyzing the thermodynamic performance of water-based microcapsules with high-efficiency energy storage according to claim 7, characterized in that: The limiting plate (40) is located inside the threaded ring (7), the surface of the triangular plate (42) contacts the inner wall of the triangular groove (9), the top of the triangular plate (42) is horizontally arranged with the top of the bottom plate (1), and there are four triangular plates (42), which are located at the four corners of the bottom of the glass cavity (2).

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