Scorpion venom freeze-drying device and whole scorpion wine production method

Abstract

The application discloses a scorpion venom freeze-drying device and belongs to the field of medicinal liquor production. The device comprises a freezing box, a containing box connected in the freezing box, a refrigeration sheet arranged at the bottom of the containing box, a planing frame horizontally and slidably connected to the upper end of the containing box, and a planing blade connected to the planing frame. A rectangular plate is vertically and slidably connected to the bottom of the containing box. When the rectangular plate moves upwards, the frozen scorpion venom is pushed upwards. When the frozen scorpion venom moves upwards, the planing frame moves horizontally and reciprocally, so that the planing blade planes the frozen scorpion venom into ice chips. After the scorpion venom is frozen, the freezing box is vacuumized, the rectangular plate is controlled to move upwards, and the planing frame is controlled to move horizontally and reciprocally. When the frozen scorpion venom is pushed upwards by the rectangular plate, the planing blade connected to the planing frame that moves horizontally and reciprocally planes the lifted frozen scorpion venom into ice chips, improves the surface area, and thus the sublimation speed of the water in the subsequent ice chips is improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of liquor production, in particular to a scorpion venom freeze-drying device and a whole scorpion wine production method. BACKGROUND

[0002] In the field of medicine and biotechnology, scorpion venom has attracted much attention due to its unique biological activity and medicinal value. However, the preservation and processing of scorpion venom has always been an important link restricting its application. Traditional methods of preserving scorpion venom are mostly in liquid or solid state, but during long-term preservation, the active ingredients in scorpion venom are prone to degradation due to changes in environmental factors such as temperature and humidity, resulting in reduced efficacy. In addition, further processing of scorpion venom, such as extraction and purification, also needs to consider the state and characteristics of scorpion venom.

[0003] In recent years, with the continuous development of freeze-drying technology, its application in the field of biological material preservation and processing has become more and more extensive. Freeze-drying technology can remove water from biological materials through low-temperature freezing and vacuum sublimation in two steps, without destroying the active ingredients, thus achieving the purpose of long-term preservation and facilitating subsequent processing. For scorpion venom, freeze-drying technology not only effectively preserves its active ingredients, but also changes the state of scorpion venom from liquid or solid to a loose and porous solid, making it easier to process.

[0004] However, the existing scorpion venom freeze-drying equipment has some problems in the operation process. As we all know, increasing the surface area of ice can increase the sublimation speed, but the sublimation operation of freeze-dried scorpion venom needs to be carried out in a negative pressure state. The existing device has two methods to increase the surface area of freeze-dried scorpion venom: expanding the receiving tray of freeze-dried scorpion venom or planing the freeze-dried scorpion venom before operation. Expanding the receiving tray will increase the floor space of the equipment, while planing the freeze-dried scorpion venom requires taking out the freeze-dried scorpion venom for operation, which requires a low-temperature and clean environment to ensure that the freeze-dried scorpion venom does not melt and is not contaminated again, resulting in complex operation and low production efficiency. SUMMARY

[0005] The purpose of the present application is to provide a scorpion venom freeze-drying device with small floor area and high production efficiency, and a whole scorpion wine production method that shortens the production time and maintains the overall appearance of the scorpion, solving the problem of low production efficiency of the existing device.

[0006] To achieve the above-mentioned purpose, the present application provides the following technical solution: a scorpion venom freeze-drying device, comprising a freezer, a containing box connected in the freezer, a refrigeration fin arranged at the bottom of the containing box, a planing frame horizontally slidingly connected to the upper end of the containing box, and a planing blade connected to the planing frame.

[0007] The bottom of the containing box is vertically and slidably connected with a rectangular plate, which can push the frozen scorpion venom upwards when moving upwards, and the shaving frame moves transversely and reciprocally when the frozen scorpion venom moves upwards, so that the shaving blade shaves the frozen scorpion venom into ice chips.

[0008] Preferably, two symmetrical rotating shafts are fixedly connected in the containing box, and transmission gears are connected to the two rotating shafts and mesh with each other.

[0009] Cam gears are connected to the two rotating shafts, a vertical plate is connected to the shaving frame, two round rods are vertically connected to the vertical plate between the two cam gears, and a straight-through groove is formed in the vertical plate and matched with the two rotating shafts.

[0010] When the two rotating shafts rotate, the two cam gears can alternately push the two round rods to make the shaving frame move transversely and reciprocally.

[0011] Preferably, a piston cylinder is connected to each corner of the shaving frame, and a piston rod is slidably connected in the piston cylinder, and the shaving frame moves axially and reciprocally along the piston rod.

[0012] The end of each piston rod is fixedly connected to the inner wall of the containing box.

[0013] Preferably, a liquid suction pipe and a liquid discharge pipe are connected to the piston cylinder, and a one-way valve is arranged on each of the liquid suction pipe and the liquid discharge pipe.

[0014] The liquid suction pipe is connected to an external refrigerant, and the liquid discharge pipe is connected to a space in the containing box below the rectangular plate.

[0015] When the shaving frame moves transversely, the piston cylinder can input the refrigerant into the space in the containing box below the rectangular plate, so that the rectangular plate moves upwards.

[0016] Preferably, a rectangular cylinder is connected to the bottom wall of the containing box, and the lower end surface of the rectangular cylinder is flush with the lower end surface of the freezing box.

[0017] A rectangular rod is slidably connected in the rectangular cylinder, and when the space in the containing box below the rectangular plate is filled with refrigerant, the rectangular rod moves downward relative to the rectangular cylinder and supports the freezing box to make the freezing box tilt, so that the shaved ice chips can slide to the upper part of the containing box.

[0018] Preferably, a receiving disc is connected in the freezing box, a through hole is formed in the middle of the receiving disc and matched with the containing box, and the receiving disc can receive the shaved ice chips.

[0019] Preferably, the outer wall of the container is connected to a support, a striking rod is vertically slidably connected to the support, a toothed gear is connected to the end of the rotating shaft, a rectangular groove is provided on the striking rod, and teeth that intermittently mesh with the toothed gear are provided in the rectangular groove;

[0020] When the toothed gear rotates, it can drive the striking rod to move upward and then fall under gravity to strike the receiving plate, thereby causing the receiving plate to vibrate and flatten the ice chips after planing.

[0021] Preferably, a condenser is provided at the top of the freezer, and a pipe is connected between the condenser and the freezer. A vacuum pump is provided on the pipe, and the vacuum pump draws the air and sublimated water vapor from the freezer into the condenser.

[0022] Preferably, a conical guide cap is fixedly installed at the upper part of the pipe inside the condenser box, and a condenser pipe is connected to the bottom wall of the condenser box. Water vapor flows towards the condenser pipe after being guided by the conical guide cap, thereby causing the water vapor to liquefy.

[0023] A temperature-conducting plate is connected to the outer wall of the freezer. The end of the refrigeration element passes through and is connected to the inside of the temperature-conducting plate. A flexible cylinder is connected to the condenser tube near the liquid inlet. A pressure plate is connected to the upper part of the flexible cylinder. An electric telescopic rod is connected between the pressure plate and the temperature-conducting plate. A sensor for detecting water vapor flow is installed inside the pipe. When the sensor detects an increase in water vapor flow, the electric telescopic rod shortens so that the pressure plate squeezes the flexible cylinder against the temperature-conducting plate, thereby increasing the contact area between the flexible cylinder and the temperature-conducting plate.

[0024] A method for producing scorpion wine, wherein the scorpion wine is blended from scorpion venom prepared by scorpion venom freeze-drying equipment, includes the following steps:

[0025] S1. Add freeze-dried scorpion venom during brewing and blending;

[0026] S2. Before bottling, add whole scorpions after scorpion venom extraction to the wine after blending scorpion venom.

[0027] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0028] 1. This invention allows scorpion venom to be added into a holding chamber by opening the chamber door, then closing the door and activating the cooling coils to freeze the scorpion venom. After the scorpion venom is frozen, a vacuum is drawn into the freezing chamber, while simultaneously controlling the upward movement of a rectangular plate and the lateral reciprocating movement of a planing frame. The inner wall of the holding chamber is polished or coated, so that the upward movement of the rectangular plate can push the frozen scorpion venom upward within the holding chamber. As the rectangular plate pushes the frozen scorpion venom upward, the planing blades connected to the laterally reciprocating planing frame plan the raised frozen scorpion venom into ice chips, increasing the surface area and thus accelerating the sublimation rate of water in the subsequent ice chips. Attached Figure Description

[0029] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0030] Figure 2 This is a cross-sectional view of the freezer of the present invention;

[0031] Figure 3 This is a schematic diagram of the internal structure of the freezer of the present invention;

[0032] Figure 4 This is a schematic diagram of the structure of the cam in this invention;

[0033] Figure 5 This is a schematic diagram of the structure at the round rod of the present invention;

[0034] Figure 6 This is a schematic diagram of the rectangular plate structure of the present invention;

[0035] Figure 7 This is a schematic diagram of the rectangular tube portion of the present invention;

[0036] Figure 8 This is a schematic diagram of the structure of the condenser box of the present invention.

[0037] In the diagram: 1. Freezer; 101. Refrigeration element; 11. Storage box; 12. Planing frame; 13. Planing blade; 14. Vertical plate; 15. Round rod; 16. Shaft; 17. Transmission gear; 18. Motor; 19. Cam; 2. Piston cylinder; 21. Piston rod; 22. Liquid extraction pipe; 23. Liquid discharge pipe; 24. Rectangular plate; 25. Rectangular cylinder; 26. Rectangular rod; 3. Receiving plate; 31. Striking rod; 32. Gear with missing teeth; 33. Support; 34. Horizontal frame; 4. Condenser; 41. Pipe; 42. Vacuum pump; 43. Conical guide cap; 44. Condenser tube; 45. Flexible cylinder; 46. Temperature guide plate; 47. Electric telescopic rod; 48. Pressure plate; 49. Exhaust pipe. Detailed Implementation

[0038] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention. Example

[0039] Reference Figures 1-8 The present invention provides a technical solution: a scorpion venom freeze-drying device, including a freezing box 1, a holding box 11 connected inside the freezing box 1, a cooling plate 101 provided at the bottom of the holding box 11, a planing frame 12 slidably connected to the upper port of the holding box 11, and a planing blade 13 connected to the planing frame 12; a rectangular plate 24 slidably connected to the bottom of the holding box 11, when the rectangular plate 24 moves upward, it can push the frozen scorpion venom upward, when the frozen scorpion venom moves upward, the planing frame 12 moves horizontally back and forth, so that the planing blade 13 planes the frozen scorpion venom into ice chips.

[0040] The freezer 1 is equipped with a door. Opening the door allows scorpion venom to be added into the container 11. After closing the door, the cooling coil 101 is activated to freeze the scorpion venom in the container 11. Once the scorpion venom is frozen, a vacuum is drawn inside the freezer 1. Simultaneously, the rectangular plate 24 is moved upwards, and the planing frame 12 moves laterally back and forth. The inner wall of the container 11 is polished or coated, so that the upward movement of the rectangular plate 24 can push the frozen scorpion venom upwards within the container 11. As the rectangular plate 24 pushes the frozen scorpion venom upwards, the planing blade 13 connected to the laterally reciprocating planing frame 12 planes the raised frozen scorpion venom into ice chips, increasing the surface area and thus accelerating the sublimation of water in the ice chips.

[0041] The container 11 has two symmetrically arranged rotating shafts 16 connected to a fixed axis. Each rotating shaft 16 is connected to a transmission gear 17, which meshes with each other. Each rotating shaft 16 is connected to a cam 19. The planer frame 12 is connected to a vertical plate 14. The vertical plate 14 is vertically connected to two round rods 15 between the two cams 19, and the vertical plate 14 has a straight through groove that mates with the two rotating shafts 16. When the two rotating shafts 16 rotate, the two cams 19 can alternately push the two round rods 15, thereby causing the planer frame 12 to move laterally back and forth.

[0042] One of the rotating shafts 16 is driven to rotate by a motor 18. The motor 18 is connected to the outer wall of the freezer 1. When the motor 18 starts, it can drive the rotating shaft 16 to rotate. The motor 18 and the rotating shaft 16 can be connected by a magnetic coupler to ensure the sealing of the freezer 1. When one rotating shaft 16 rotates, it can drive the other rotating shaft 16 to rotate through the transmission gear 17. Thus, the cams 19 on the two rotating shafts 16 alternately push the round rod 15, so that the planer 12 can move back and forth. The straight groove on the vertical plate 14 allows the rotating shaft 16 to move radially relative to the vertical plate 14, so that the movement of the planer 12 is not interfered with.

[0043] Piston cylinders 2 are connected to the four corners of the planer frame 12. Piston rods 21 are slidably connected inside the piston cylinders 2. The planer frame 12 moves back and forth along the axial direction of the piston rods 21. The ends of the four piston rods 21 are fixedly connected to the inner wall of the container 11.

[0044] The arrangement of piston cylinder 2 and piston rod 21 restricts the sliding direction of planing frame 12, thereby enabling planing frame 12 to move back and forth in a straight line, ensuring that planing blade 13 can stably contact the frozen scorpion venom to complete the planing, and that piston rod 21 can slide relative to piston cylinder 2 when planing frame 12 moves back and forth.

[0045] The piston cylinder 2 is connected to a liquid extraction pipe 22 and a liquid discharge pipe 23, and both the liquid extraction pipe 22 and the liquid discharge pipe 23 are equipped with one-way valves. The liquid extraction pipe 22 is connected to an external refrigerant, and the liquid discharge pipe 23 is connected to the space located below the rectangular plate 24 inside the holding box 11. When the planer frame 12 moves laterally, the piston cylinder 2 can input the refrigerant into the space located below the rectangular plate 24 inside the holding box 11, thereby causing the rectangular plate 24 to move upward.

[0046] As the planer frame 12 slides back and forth, the piston cylinder 2 continuously inputs the refrigerant into the space between the container 11 and the rectangular plate 24, thereby gradually increasing the size of this space. Consequently, the rectangular plate 24 can move upward with the planer frame 12, ensuring that the freeze-dried scorpion venom can continuously move upward so that the planer blade 13 can plan the freeze-dried scorpion venom. In addition, when the refrigerant is filled into the space between the container 11 and the rectangular plate 24, the refrigerant can block the low temperature of the cooling plate 101, causing the freeze-dried scorpion venom to move away from the lowest temperature position, thus providing assistance for the subsequent sublimation of water in the scorpion venom.

[0047] A rectangular cylinder 25 is connected to the bottom wall of the holding box 11. The lower end face of the rectangular cylinder 25 is flush with the lower end face of the freezer box 1. A rectangular rod 26 is slidably connected inside the rectangular cylinder 25. When the space below the rectangular plate 24 in the holding box 11 is filled with refrigerant, the rectangular rod 26 moves down relative to the rectangular cylinder 25 and supports the freezer box 1 so that the freezer box 1 is tilted, so that the shaved ice chips can slide down to the upper part of the holding box 11.

[0048] When the refrigerant is filled into the space between the container 11 and the rectangular plate 24, due to the slight resistance between the frozen scorpion venom and the inner wall of the container 11, and the pressure of the freeze-dried scorpion venom on the rectangular plate 24, the refrigerant can move into the rectangular cylinder 25. As a result, the rectangular rod 26 inside the rectangular cylinder 25 is pushed and extends out from the bottom of the freezer 1, causing the freezer 1 to tilt. The container 11, which is located inside the freezer 1, tilts synchronously, allowing the shaved ice chips to slide down to the top of the container 11, thus preventing the shaved ice chips from accumulating on the top of the container 11 and affecting the sublimation of ice crystals.

[0049] The freezer 1 is connected to a receiving tray 3. The receiving tray 3 has a through hole in the middle that matches the holding box 11. The receiving tray 3 can receive the ice shavings after shaving.

[0050] The edge of the receiving tray 3 contacts the inner wall of the holding box 11, and the inside is opened with a hole that matches the receiving tray 3, so that the ice shavings can be completely received by the receiving tray 3. After the ice shavings fall onto the receiving tray 3, the surface area of ​​the frozen scorpion venom can be increased, thereby improving the sublimation speed and the degree of sublimation of the ice crystals.

[0051] The outer wall of the holding box 11 is connected to a bracket 33, and a striking rod 31 is vertically slidably connected to the bracket 33. A toothed gear 32 is connected to the end of the rotating shaft 16. A rectangular groove is provided on the striking rod 31, and teeth that intermittently mesh with the toothed gear 32 are provided in the rectangular groove. When the toothed gear 32 rotates, it can drive the striking rod 31 to move upward and then fall under gravity to strike the receiving plate 3, thereby causing the receiving plate 3 to vibrate and flatten the ice chips after planing.

[0052] While the shaft 16 rotates, the toothed gear 32 connected to the end of the shaft 16 rotates synchronously. At this time, the toothed gear 32 can intermittently mesh with the teeth in the rectangular groove on the striking rod 31. When the toothed gear 32 meshes with the teeth, it can drive the striking rod 31 to move upward. When the toothed gear 32 does not mesh with the teeth, the striking rod 31 can fall downward under gravity and strike the receiving plate 3, causing the receiving plate 3 to vibrate after being struck. This prevents the ice chips falling on the receiving plate 3 from accumulating too high, but instead spreads them out on the receiving plate 3. The shaft 16 continues to rotate, so the toothed gear 32 continues to rotate, allowing the striking rod 31 to continuously strike the receiving plate 3.

[0053] A condenser 4 is installed at the top of the freezer 1. A pipe 41 connects the condenser 4 and the freezer 1. A vacuum pump 42 is installed on the pipe 41. The vacuum pump 42 draws the air and sublimated water vapor from the freezer 1 into the condenser 4.

[0054] When the vacuum pump 42 starts, it can extract the air and sublimated water vapor in the freezer 1, creating a negative pressure in the freezer 1 while simultaneously extracting the water vapor. After the air and water vapor enter the condenser 4, the pressure in the condenser 4 increases, thus the high pressure provides an accelerating aid to the condensation of the water vapor.

[0055] A conical guide cap 43 is fixedly installed above the pipe 41 inside the condenser box 4. A condenser pipe 44 is connected to the bottom wall of the condenser box 4. Water vapor flows towards the condenser pipe 44 after being guided by the conical guide cap 43, thereby liquefying the water vapor. A temperature guide plate 46 is connected to the outer wall of the freezer box 1. The end of the cooling plate 101 passes through and is connected to the inside of the temperature guide plate 46. A flexible cylinder 45 is connected to the condenser pipe 44 near the liquid inlet. A pressure plate 48 is connected to the upper part of the flexible cylinder 45. An electric telescopic rod 47 is connected between the pressure plate 48 and the temperature guide plate 46. A sensor for detecting water vapor flow is installed inside the pipe 41. When the sensor detects an increase in water vapor flow, the electric telescopic rod 47 shortens so that the pressure plate 48 presses the flexible cylinder 45 against the temperature guide plate 46, thereby increasing the contact area between the flexible cylinder 45 and the temperature guide plate 46.

[0056] A condenser tube 44 is installed inside the bottom wall of the condenser box 4. Refrigerant flows through the condenser tube 44. Water vapor enters the condenser box 4 through the pipe 41. A conical guide cap 43 is installed at the top of the pipe 41. After the water vapor impacts the conical guide cap 43, it is guided by the conical guide cap 43 and blown towards the condenser tube 44. When the water vapor is at the position of the condenser tube 44, it is condensed into water droplets due to the low temperature of the condenser tube 44. A sensor is also installed in the condenser box 4 to detect the amount of water vapor entering the condenser box 4. When a large amount of water vapor is detected, the electric telescopic rod 47 is shortened. At this time, the pressure plate 48 is pulled and squeezes the flexible cylinder 45. At this time, the contact area between the flexible cylinder 45 and the temperature guide plate 46 increases. In this way, the temperature guide plate 46 enhances the temperature cooling effect of the refrigerant flowing through the flexible cylinder 45, ensuring that the condenser box 4 can absorb enough heat for the condensation of water vapor when the amount of water vapor increases.

[0057] If the volume of the condenser 4 is much smaller than that of the freezer 1, an exhaust pipe 49 is installed on the condenser 4, and a pressure valve is installed on the exhaust pipe 49 to ensure that the condenser 4 will not rupture due to high pressure.

[0058] A method for producing whole scorpion wine, wherein the whole scorpion wine is blended from scorpion venom prepared by scorpion venom freeze-drying equipment, includes the following steps:

[0059] S1. Add freeze-dried scorpion venom during brewing and blending;

[0060] S2. Before bottling, add whole scorpions after scorpion venom extraction to the wine after blending scorpion venom.

[0061] By blending freeze-dried scorpion venom into the liquor, the production time is reduced compared to the soaking process in existing technologies. Adding whole scorpions to the blended liquor helps to preserve the scorpion's complete appearance.

[0062] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A scorpion venom freeze-drying device, comprising a freezer (1), characterized in that: The freezer (1) is connected to a container (11), and a cooling plate (101) is provided at the bottom of the container (11). A planer (12) is slidably connected to the upper port of the container (11), and a planer blade (13) is connected to the planer (12). The bottom of the container (11) is vertically slidably connected to a rectangular plate (24). When the rectangular plate (24) moves upward, it can push the frozen scorpion venom upward. When the frozen scorpion venom moves upward, the planer (12) moves horizontally back and forth, so that the planer blade (13) can plane the frozen scorpion venom into ice chips. The container (11) has two symmetrically arranged rotating shafts (16) rotatably connected to a fixed axis. Each of the two rotating shafts (16) is connected to a transmission gear (17), and the two transmission gears (17) mesh with each other. Cams (19) are connected to both of the two rotating shafts (16), and a vertical plate (14) is connected to the planing frame (12). Two round rods (15) are vertically connected between the two cams (19) on the vertical plate (14), and a straight through groove that cooperates with the two rotating shafts (16) is provided on the vertical plate (14). When the two shafts (16) rotate, the two cams (19) can alternately push the two round rods (15) so that the planer (12) moves laterally back and forth; The planer (12) is connected to piston cylinders (2) at all four corners, and a piston rod (21) is slidably connected inside the piston cylinder (2). The planer (12) moves back and forth along the piston rod (21) axially. The ends of the four piston rods (21) are all fixedly connected to the inner wall of the container (11); The piston cylinder (2) is connected to a liquid extraction pipe (22) and a liquid discharge pipe (23), and both the liquid extraction pipe (22) and the liquid discharge pipe (23) are equipped with a one-way valve; The liquid extraction pipe (22) is connected to an external refrigerant, and the liquid discharge pipe (23) is connected to the space located below the rectangular plate (24) inside the container (11); When the planer (12) moves laterally, the piston cylinder (2) can input the refrigerant into the space located below the rectangular plate (24) in the holding box (11), thereby causing the rectangular plate (24) to move upward.

2. The scorpion venom freeze-drying equipment according to claim 1, characterized in that: The bottom wall of the container (11) is connected to a rectangular tube (25), and the lower end face of the rectangular tube (25) is flush with the lower end face of the freezer (1). A rectangular rod (26) is slidably connected inside the rectangular cylinder (25). When the space below the rectangular plate (24) in the holding box (11) is filled with a refrigerant, the rectangular rod (26) moves down relative to the rectangular cylinder (25) and supports the freezer box (1) so that the freezer box (1) tilts, so that the shaved ice chips can slide down to the top of the holding box (11).

3. The scorpion venom freeze-drying equipment according to claim 2, characterized in that: The freezer (1) is connected to a receiving tray (3), and the receiving tray (3) has a through hole in the middle that matches the holding box (11). The receiving tray (3) can receive ice chips after planing.

4. The scorpion venom freeze-drying equipment according to claim 3, characterized in that: The outer wall of the container (11) is connected to a bracket (33), and a striking rod (31) is vertically slidably connected to the bracket (33). The end of the rotating shaft (16) is connected to a toothed gear (32). A rectangular groove is provided on the striking rod (31), and teeth that intermittently mesh with the toothed gear (32) are provided in the rectangular groove. When the toothed gear (32) rotates, it can drive the striking rod (31) to move upward and then fall under gravity to strike the receiving plate (3), thereby causing the receiving plate (3) to vibrate and flatten the ice chips after planing.

5. The scorpion venom freeze-drying equipment according to claim 4, characterized in that: A condenser box (4) is provided on the upper part of the freezer box (1). A pipe (41) is connected between the condenser box (4) and the freezer box (1). A vacuum pump (42) is provided on the pipe (41). The vacuum pump (42) draws the air and sublimated water vapor in the freezer box (1) into the condenser box (4).

6. The scorpion venom freeze-drying equipment according to claim 5, characterized in that: A conical guide cap (43) is fixedly installed in the condenser (4) above the pipe (41). A condenser pipe (44) is connected to the bottom wall of the condenser (4). Water vapor flows towards the condenser pipe (44) after being guided by the conical guide cap (43), thereby causing the water vapor to liquefy. A temperature-conducting plate (46) is connected to the outer wall of the freezer (1). The end of the cooling chip (101) passes through and is connected to the inside of the temperature-conducting plate (46). A flexible cylinder (45) is connected to the condenser tube (44) near the liquid inlet. A pressure plate (48) is connected to the upper part of the flexible cylinder (45). An electric telescopic rod (47) is connected between the pressure plate (48) and the temperature-conducting plate (46). A sensor for detecting water vapor flow is installed in the pipe (41). When the sensor detects an increase in water vapor flow, the electric telescopic rod (47) shortens so that the pressure plate (48) squeezes the flexible cylinder (45) against the temperature-conducting plate (46), thereby increasing the contact area between the flexible cylinder (45) and the temperature-conducting plate (46).

7. A method for producing whole scorpion wine, characterized in that: The whole scorpion wine is made by blending scorpion venom prepared using the scorpion venom freeze-drying equipment described in any one of claims 1-4, and includes the following steps: S1. Add freeze-dried scorpion venom during brewing and blending; S2. Before bottling, add whole scorpions after scorpion venom extraction to the wine after blending scorpion venom.

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