Biological enzyme catalytic synthesis reaction device

Abstract

The invention relates to the technical field of bio-enzyme catalytic synthesis, and discloses a bio-enzyme catalytic synthesis reaction device which comprises a reaction tank, and a stirrer used for stirring bio-enzyme is rotatably connected to the interior of the reaction tank. A motor used for driving the stirrer to rotate is fixedly connected to the center of the bottom of the reaction tank, the tail end of a rotor of the motor is coaxially and fixedly connected with the stirrer, and a heat removal assembly used for automatically removing heat is arranged in the reaction tank; two groups of oxygen conveying assemblies for conveying oxygen into the reaction tank are symmetrically arranged outside the reaction tank, and water squeezing assemblies for squeezing absorbed water vapor are arranged on the oxygen conveying assemblies. According to the device, the problem that the activity of the biological enzyme is reduced due to the fact that the temperature in the device is easily increased due to the fact that a large amount of heat is released during the catalytic synthesis reaction of the biological enzyme is effectively avoided.

Description

Technical Field

[0001] This invention relates to the field of bio-enzyme catalytic synthesis technology, and in particular to a bio-enzyme catalytic synthesis reaction apparatus. Background Technology Biological enzymes are organic compounds produced by living cells that have catalytic activity; most are proteins, with a very small portion being RNA. The preparation of biological enzymes requires a catalytic synthesis reaction, thus necessitating the use of specialized catalytic synthesis apparatus.

[0002] Existing bio-enzyme catalytic synthesis reactions are generally carried out in sealed reaction vessels. Because enzymes lower the activation energy of chemical reactions, the reactions proceed rapidly under mild conditions, which easily generates a large amount of heat. This heat continuously accumulates inside the reaction vessel, causing the internal temperature to rise, which in turn reduces the activity of the bio-enzyme and affects the normal progress of the bio-enzyme catalytic synthesis reaction. To address this, we provide a bio-enzyme catalytic synthesis reaction apparatus. Summary of the Invention

[0003] To address the problem in the aforementioned background technology that the large amount of heat released during bio-enzyme catalytic synthesis reactions can easily lead to an increase in the internal temperature of the device, resulting in a decrease in the activity of the bio-enzymes, this invention provides a bio-enzyme catalytic synthesis reaction device.

[0004] The present invention is achieved by the following technical solution: a bio-enzyme catalytic synthesis reaction device, comprising a reaction vessel, wherein a stirrer for agitating the bio-enzyme is rotatably connected inside the reaction vessel, a motor for driving the stirrer to rotate is fixedly connected to the center of the bottom of the reaction vessel, and the rotor end of the motor is coaxially fixedly connected to the stirrer, a heat dissipation component for automatic heat dissipation is provided inside the reaction vessel, and two sets of oxygen supply components for supplying oxygen into the reaction vessel are symmetrically arranged outside the reaction vessel, wherein a water squeezing component for squeezing out absorbed water vapor is provided on the oxygen supply component.

[0005] As a further improvement to the above solution, the heat dissipation assembly includes a copper shell fixedly connected to the top of the inner cavity of the reaction vessel via a connecting column. The shell contains an air bladder capable of thermal expansion and contraction. Two sets of movable plates are symmetrically connected inside the shell, each set positioned on one side of the air bladder. A crossbar is fixedly connected to one side of each movable plate, with its end extending to the outside of the shell. A spring is fitted around the outside of the crossbar, with both ends of the spring fixedly connected to the inner wall of the shell and the movable plate, respectively. Two sets of heat dissipation pipes for venting heat are symmetrically connected to the top of the reaction vessel. An annular rubber seal is fixedly connected inside each heat dissipation pipe. A frustum-shaped rubber sealing plug for sealing the pipe is also provided inside the heat dissipation pipe. A vertical rod is fixedly connected to the bottom center of the sealing plug, with its bottom end extending into the interior of the reaction vessel. A connecting rod is symmetrically hinged between the vertical rod and the crossbar on the same side via a hinge.

[0006] As a further improvement to the above solution, the oxygen delivery assembly includes two sets of outer casings symmetrically fixed to the outside of the reaction vessel via brackets. An inner casing for storing hydrogen peroxide is located inside each outer casing. Two sets of sliding rods are symmetrically fixed to the bottom of the inner cavity of each outer casing. Two sets of sliding plates are also symmetrically arranged at the bottom of the inner cavity of each outer casing, and both sets of sliding plates are simultaneously slidably connected to the two sets of sliding rods. Springs are fitted on both sides of each sliding rod, and the two ends of each spring are fixedly connected to the inner wall of the outer casing and the sliding plate, respectively. Two sets of connecting rods are symmetrically hinged between the sliding plates and the bottom of the inner casing via hinges. An oxygen delivery pipe for delivering oxygen is connected to the inner casing, and the end of the oxygen delivery pipe extends to the bottom of the inner cavity of the reaction vessel. A dehumidification box is installed on the oxygen delivery pipe and is fixedly connected to the reaction vessel via a connecting frame. An absorbent sponge for absorbing moisture from the oxygen is installed inside the dehumidification box.

[0007] As a further improvement to the above solution, the water-squeezing assembly includes a connecting rod fixedly connected to the inner box, with the top end of the connecting rod extending into the interior of the dehumidification box on the same side. A fixed clamping plate is fixedly connected to one side of the water-absorbing sponge, and a movable clamping plate is movably connected to the other side of the water-absorbing sponge. Drainage holes for draining water are evenly provided on both the fixed clamping plate and the movable clamping plate. A connecting rod is symmetrically hinged between the movable clamping plate and the connecting rod through a hinge.

[0008] As a further improvement to the above scheme, a feed pipe is fixedly connected to the upper part of one side of the reaction vessel, and a discharge pipe is fixedly connected to the lower part of one side of the reaction vessel. A valve is installed on both the feed pipe and the discharge pipe.

[0009] As a further improvement to the above solution, the outlet end of the heat exhaust pipe and the inlet end of the oxygen supply pipe both extend into the interior of the inner box, and the heat exhaust pipe and the oxygen supply pipe are slidably connected to the inner box through a sealing ring.

[0010] As a further improvement to the above solution, a drain pipe is fixedly connected to the bottom center of the dehumidification box, and a valve is added to the drain pipe.

[0011] As a further improvement to the above solution, an injection pipe is fixedly connected to the outer casing, and the end of the injection pipe extends into the interior of the inner casing. A valve three is added to the injection pipe, and the injection pipe and the inner casing are connected in a sealed manner by a sealing ring two.

[0012] As a further improvement to the above solution, a drain pipe is fixedly connected to the bottom center of the inner box, and the end of the drain pipe extends movably to the outside of the outer box. A valve is added to the drain pipe.

[0013] As a further improvement to the above solution, four sets of guide rods are symmetrically fixedly connected between the fixed clamping plate and the inner wall of the dehumidification box, and all four sets of guide rods are simultaneously slidably connected to the movable clamping plate on the same side. The guide rods are fixedly fitted with retaining rings.

[0014] Compared with the prior art, the beneficial effects of the present invention are as follows: 1. This invention utilizes a copper shell to rapidly conduct heat within the reaction vessel, causing the internal gasbags to expand quickly. As the gasbags expand, they push two sets of movable plates to the sides, and this movement of the plates causes the crossbar to move as well. The hinged connection between the crossbar, vertical bar, and connecting rod 1 allows the sealing plug to move vertically downwards, opening the heat exhaust pipe. At this point, the heat inside the reaction vessel is discharged through the heat exhaust pipe, preventing excessively high temperatures and effectively avoiding the reduction in enzyme activity caused by overheating. Conversely, when the temperature decreases, the gasbags automatically contract. The rebound action of spring 1 then automatically resets the sealing plug, sealing the heat exhaust pipe.

[0015] 2. This invention can transfer excess heat to the inner chamber through the heat dissipation pipe. At this time, the temperature in the inner chamber will continuously rise. As the temperature in the inner chamber rises, it will heat the hydrogen peroxide, causing the hydrogen peroxide to decompose and generate oxygen, which will be transported to the reaction tank through the oxygen supply pipe. This ensures the oxygen content required for the bio-enzyme catalytic synthesis reaction, thereby ensuring the stable progress of the bio-enzyme catalytic synthesis reaction.

[0016] 3. The present invention uses an absorbent sponge to absorb and filter water vapor in the delivered oxygen, thereby ensuring the oxygen is dry and avoiding the problem that the entry of moisture will affect the effect of bio-enzyme catalytic synthesis reaction.

[0017] 4. In the process of oxygen delivery, the present invention uses a motor to drive a stirrer to stir the reactants, which ensures the uniformity of oxygen content in the reactants and further improves the stability of the bio-enzyme catalytic synthesis reaction.

[0018] 5. During the process of hydrogen peroxide decomposing into oxygen upon heating, the overall mass of the hydrogen peroxide continuously decreases. At this time, the sliding engagement between the sliding plate and the sliding rod, the hinged engagement between the sliding plate and the inner box and the second connecting rod, and the rebound action of the second spring cause the inner box to move upward. The upward movement of the inner box can push the connecting rod upward as well. With the sliding engagement between the movable clamping plate and the guide rod, and the hinged engagement between the movable clamping plate and the connecting rod and the third connecting rod, the movable clamping plate can be pushed closer to the fixed clamping plate to squeeze the absorbent sponge, thereby squeezing out the water from the absorbent sponge to ensure its normal water absorption effect. It is highly practical. Conversely, when new hydrogen peroxide is added to the inner box, the movable clamping plate will automatically return to its original position.

[0019] 6. This invention uses a motor to drive a stirrer to stir the reactants in the bio-enzyme catalytic synthesis reaction, which also ensures the uniform distribution of key components such as pH, effective substrate, vitamins, and nutrients in the reactants, thereby optimizing the reaction conditions. Attached Figure Description

[0020] Figure 1 This is a three-dimensional structural diagram of the present invention; Figure 2 This is a longitudinal section three-dimensional structural diagram of the present invention; Figure 3 This is a schematic diagram of the longitudinal section of the outer shell of the present invention. Figure 4 This is a longitudinal sectional perspective view of the connection structure of the heat dissipation pipe, sealing element and sealing plug of the present invention; Figure 5 This is a schematic diagram of the longitudinal section of the outer casing of the present invention. Figure 6 This is a longitudinal section three-dimensional structural diagram of the dehumidification box of the present invention.

[0021] Explanation of key symbols: 1. Reaction vessel; 2. Stirrer; 3. Motor; 4. Feed pipe; 5. Discharge pipe; 101. Shell; 102. Airbag; 103. Movable plate; 104. Crossbar; 105. Spring 1; 106. Heat exhaust pipe; 107. Seal; 108. Sealing plug; 109. Vertical rod; 110. Connecting rod 1; 201. Outer casing; 202. Inner casing; 203. Slide rod; 204. Slide plate; 205. Spring 2; 206. Connecting rod 2; 207. Oxygen supply pipe; 208. Dehumidifier box; 209. Absorbent sponge; 210. Liquid injection pipe; 211. Liquid drain pipe; 301. Connecting rod; 302. Fixed clamp; 303. Movable clamp; 304. Drain hole; 305. Connecting rod 3; 306. Drain pipe; 307. Guide rod; 308. Retaining ring. Detailed Implementation

[0022] The present invention will now be further described in conjunction with the accompanying drawings and specific embodiments. It should be noted that, without conflict, the various embodiments or technical features described below can be arbitrarily combined to form new embodiments.

[0023] Example 1: Please combine Figure 1-6 This embodiment of a bio-enzyme catalytic synthesis reaction apparatus includes a reaction vessel 1. A stirrer 2 for agitating the bio-enzyme is rotatably connected inside the reaction vessel 1. A motor 3 for driving the stirrer 2 is fixedly connected to the center of the bottom of the reaction vessel 1, and the rotor end of the motor 3 is coaxially fixedly connected to the stirrer 2. A heat dissipation assembly for automatic heat dissipation is provided inside the reaction vessel 1. Two sets of oxygen supply assemblies for supplying oxygen into the reaction vessel 1 are symmetrically arranged outside the reaction vessel 1. A water squeezing assembly for squeezing out absorbed water vapor is provided on the oxygen supply assembly. A feed pipe 4 is fixedly connected to the upper part of one side of the reaction vessel 1, and a discharge pipe 5 is fixedly connected to the lower part of one side of the reaction vessel 1. A valve is provided on both the feed pipe 4 and the discharge pipe 5 to facilitate the addition of reactants into the reaction vessel 1 and the discharge of reactants from the reaction vessel 1.

[0024] The heat dissipation assembly includes a copper shell 101 fixedly connected to the top of the inner cavity of the reaction vessel 1 via connecting columns. Inside the shell 101 is an air bladder 102 capable of thermal expansion and contraction. Two sets of movable plates 103 are symmetrically and movably connected inside the shell 101, with the two sets of movable plates 103 respectively positioned on either side of the air bladder 102. A crossbar 104 is fixedly connected to one side of each movable plate 103, with the end of the crossbar 104 extending to the outside of the shell 101. A spring 105 is sleeved on the outside of the crossbar 104, with both ends of the spring 105 respectively connected to the inner wall of the shell 101 and the movable plate 102. 3. Fixed connection: Two sets of heat exhaust pipes 106 for discharging heat are symmetrically and fixedly connected to the top of the reaction vessel 1. An annular rubber seal 107 is fixedly connected inside the heat exhaust pipe 106. A frustum-shaped rubber sealing plug 108 for sealing the pipe is also provided inside the heat exhaust pipe 106. A vertical rod 109 is fixedly connected to the bottom center of the sealing plug 108 and the bottom end of the vertical rod 109 extends into the interior of the reaction vessel 1. The vertical rod 109 is slidably connected to the inner wall of the heat exhaust pipe 106. A connecting rod 110 is symmetrically hinged between the vertical rod 109 and the horizontal rod 104 on the same side through a hinge.

[0025] The oxygen delivery assembly includes two sets of outer casings 201 symmetrically fixed to the outside of the reaction vessel 1 via brackets. Inside each outer casing 201 is an inner casing 202 for storing hydrogen peroxide. Two sets of sliding rods 203 are symmetrically fixed to the bottom of the inner cavity of each outer casing 201. Two sets of sliding plates 204 are also symmetrically arranged at the bottom of the inner cavity of each outer casing 201, and both sets of sliding plates 204 are simultaneously slidably connected to the two sets of sliding rods 203. Springs 205 are sleeved on both sides of each sliding rod 203, and the two ends of each spring 205 are respectively connected to… The inner wall of the outer casing 201 and the sliding plate 204 are fixedly connected. Two sets of connecting rods 206 are symmetrically hinged between the sliding plate 204 and the bottom of the inner casing 202 via hinges. An oxygen supply pipe 207 for supplying oxygen is connected to the inner casing 202, and the end of the oxygen supply pipe 207 extends to the bottom of the inner cavity of the reaction vessel 1. A dehumidification box 208 is installed on the oxygen supply pipe 207, and the dehumidification box 208 is fixedly connected to the reaction vessel 1 via a connecting bracket. The dehumidification box 208 is equipped with a water-absorbing cap for absorbing moisture from the oxygen. The outlet end of the heat exhaust pipe 106 and the inlet end of the oxygen supply pipe 207 both extend into the interior of the inner box 202. Both the heat exhaust pipe 106 and the oxygen supply pipe 207 are slidably connected to the inner box 202 via a sealing ring to prevent heat leakage from the inner box 202. A drain pipe 306 is fixedly connected to the bottom center of the dehumidification box 208, and a valve is installed on the drain pipe 306 to facilitate the discharge of squeezed water from the dehumidification box 208. A liquid injection pipe 210 is fixedly connected to the outer box 201. Furthermore, the end of the injection pipe 210 extends into the interior of the inner box 202. A valve three is installed on the injection pipe 210. The injection pipe 210 and the inner box 202 are connected in a sealed manner by a sealing ring two, which facilitates the addition of hydrogen peroxide into the inner box 202. A drain pipe 211 is fixedly connected to the bottom center of the inner box 202, and the end of the drain pipe 211 extends movably to the outside of the outer box 201. A valve four is installed on the drain pipe 211, which facilitates the discharge of used hydrogen peroxide from the inner box 202.

[0026] The water-squeezing assembly includes a connecting rod 301 fixedly connected to the inner box 202, with the top end of the connecting rod 301 extending into the interior of the dehumidification box 208 on the same side. A fixed clamping plate 302 is fixedly connected to one side of the water-absorbing sponge 209, and a movable clamping plate 303 is movably connected to the other side of the water-absorbing sponge 209. Drainage holes 304 for draining water are evenly provided on both the fixed clamping plate 302 and the movable clamping plate 303. A connecting rod 305 is symmetrically hinged between the movable clamping plate 303 and the connecting rod 301 through a hinge.

[0027] The implementation principle of the bio-enzyme catalytic synthesis reaction device in this application embodiment is as follows: First, the reactants are added to the reaction tank 1 through the feed pipe 4. Then, the motor 3 is started, and the motor 3 drives the stirrer 2 to rotate, so that the reactants can be stirred, thereby ensuring the uniform distribution of key components such as acidity, alkalinity, effective substrate, vitamins, and nutrients in the reactants, thereby optimizing the reaction conditions. The heat generated during the catalytic synthesis reaction of the reactants will accumulate at the top of the inner cavity of the reaction tank 1. The heat inside the reaction tank 1 is quickly conducted through the copper shell 101, so that the gas bladder 102 inside it will be rapidly heated and expanded. When the gas bladder 102 expands, it will push the two sets of movable plates 103 to move to both sides respectively. The movement of the movable plates 103 will drive the crossbar 104 to move together. At this time, the spring 105 will be compressed. The hinge action between the crossbar 104 and the vertical bar 109 and the connecting rod 110 will enable the reaction to proceed smoothly. The sealing plug 108 moves vertically downwards, opening the heat exhaust pipe 106. At this time, the heat inside the reaction vessel 1 is discharged through the heat exhaust pipe 106, thus preventing the temperature inside the reaction vessel 1 from becoming too high. This effectively avoids the problem of reduced activity of the biological enzymes due to excessive temperature. Conversely, when the temperature drops, the air bladder 102 automatically contracts. At this time, the spring 105 rebounds, allowing the sealing plug 108 to automatically reset and seal the heat exhaust pipe 106. The heat entering the heat exhaust pipe 106 is eventually transferred to the inner chamber 202. As the temperature in the inner chamber 202 rises, it heats the hydrogen peroxide, causing it to decompose and generate oxygen, which is then transported to the reaction vessel 1 through the oxygen supply pipe 207. This ensures the oxygen content required for the biological enzyme catalytic synthesis reaction, thus ensuring the stable progress of the biological enzyme catalytic synthesis reaction. The chemical formula for the decomposition of hydrogen peroxide into oxygen is: 2H2O2 → 2H2O + O2↑.The absorbent sponge 209 absorbs and filters the water vapor in the delivered oxygen, ensuring its dryness and preventing moisture from affecting the bio-enzyme catalytic synthesis reaction. During oxygen delivery, the motor 3 drives the stirrer 2 to agitate the reactants, ensuring uniform oxygen content and further improving the stability of the bio-enzyme catalytic synthesis reaction. Simultaneously, the decomposition of hydrogen peroxide produces oxygen and water vapor. Oxygen escapes from the solution, while water vapor dissipates into the space in gaseous form, causing a decrease in solution mass. Due to this continuous decrease in overall mass, the sliding engagement between the slide plate 204 and the slide rod 203, the hinged engagement between the slide plate 204 and the inner box 202 and the connecting rod 206, and the rebound effect of the spring 205 ensure that the inner box 202... 2. The inner box 202 moves upward, which in turn pushes the connecting rod 301 upward. With the hinge action between the movable clamp 303 and the connecting rod 301 and the connecting rod 305, the movable clamp 303 can be pushed closer to the fixed clamp 302 to squeeze the water-absorbing sponge 209, thereby squeezing out the water in the water-absorbing sponge 209 to ensure its normal water absorption effect. It is highly practical. Conversely, when new hydrogen peroxide is added to the inner box 202, the movable clamp 303 will automatically return to its original position. Since the movable clamp 303 is in contact with the surface of the water-absorbing sponge 209 in the initial state, the inner box 202 can squeeze the water-absorbing sponge 209 as long as it moves vertically upward. By opening valve 2, the squeezed water can be discharged from the dehumidifier box 208 through the drain pipe 306. Finally, by opening valve 1, the reactants can be discharged through the discharge pipe 5.

[0028] Example 2: Based on Embodiment 1, this embodiment is further improved in that: four sets of guide rods 307 are symmetrically fixedly connected between the fixed clamping plate 302 and the inner wall of the dehumidification box 208, and all four sets of guide rods 307 are simultaneously slidably connected to the movable clamping plate 303 on the same side. A retaining ring 308 is fixedly sleeved on the outside of the guide rods 307, which can play a certain guiding role in the horizontal movement of the movable clamping plate 303.

[0029] The above embodiments are merely preferred embodiments of the present invention and should not be construed as limiting the scope of protection of the present invention. Any non-substantial changes and substitutions made by those skilled in the art based on the present invention shall fall within the scope of protection claimed by the present invention.

Claims

1. A bio-enzyme-catalyzed synthesis reaction apparatus, characterized in that, The reaction vessel includes a reaction vessel (1), which is rotatably connected to a stirrer (2) for agitating the biological enzyme. A motor (3) for driving the stirrer (2) to rotate is fixedly connected to the bottom center of the reaction vessel (1), and the rotor end of the motor (3) is coaxially fixedly connected to the stirrer (2). The reaction vessel (1) is equipped with a heat dissipation component for automatic heat dissipation. Two sets of oxygen supply components for supplying oxygen into the reaction vessel (1) are symmetrically arranged on the outside of the reaction vessel (1). The oxygen supply components are equipped with a water squeezing component for squeezing out the absorbed water vapor.

2. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 1, characterized in that, The heat dissipation assembly includes a copper shell (101) fixedly connected to the top of the inner cavity of the reaction vessel (1) via connecting columns. The shell (101) contains an air bladder (102) capable of thermal expansion and contraction. Two sets of movable plates (103) are symmetrically connected to the inside of the shell (101), with each set positioned on either side of the air bladder (102). A crossbar (104) is fixedly connected to one side of each movable plate (103), with the end of the crossbar (104) extending to the outside of the shell (101). A spring (105) is sleeved on the outside of the crossbar (104), with both ends of the spring (105) connected to the shell (101). The inner wall of the reaction vessel (1) and the movable plate (103) are fixedly connected. The top of the reaction vessel (1) is symmetrically connected to two sets of heat exhaust pipes (106) for discharging heat. The inside of the heat exhaust pipe (106) is fixedly connected to an annular rubber seal (107). The inside of the heat exhaust pipe (106) is also provided with a frustum-shaped rubber sealing plug (108) for sealing the pipe. The bottom center of the sealing plug (108) is fixedly connected to a vertical rod (109) and the bottom end of the vertical rod (109) extends into the inside of the reaction vessel (1). The vertical rod (109) and the horizontal rod (104) on the same side are symmetrically hinged to a connecting rod (110) through a hinge.

3. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 2, characterized in that, The oxygen delivery assembly includes two sets of outer casings (201) symmetrically fixed to the outside of the reaction vessel (1) via brackets. An inner casing (202) for storing hydrogen peroxide is provided inside each outer casing (201). Two sets of sliding rods (203) are symmetrically fixed to the bottom of the inner cavity of each outer casing (201). Two sets of sliding plates (204) are also symmetrically arranged at the bottom of the inner cavity of each outer casing (201), and both sets of sliding plates (204) are simultaneously slidably connected to the two sets of sliding rods (203). Springs (205) are sleeved on both sides of each sliding rod (203), and the two ends of each spring (205) are respectively connected to the outer casing. The inner wall of (201) and the slide plate (204) are fixedly connected. The slide plate (204) and the bottom of the inner box (202) are symmetrically hinged by two sets of connecting rods (206). The inner box (202) is connected to an oxygen supply pipe (207) for supplying oxygen, and the end of the oxygen supply pipe (207) extends to the bottom of the inner cavity of the reaction tank (1). A dehumidification box (208) is provided on the oxygen supply pipe (207), and the dehumidification box (208) is fixedly connected to the reaction tank (1) through a connecting frame. The dehumidification box (208) is provided with a water-absorbing sponge (209) for absorbing moisture in oxygen.

4. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 3, characterized in that, The water-squeezing assembly includes a connecting rod (301) fixedly connected to the inner box (202), and the top end of the connecting rod (301) extends into the interior of the dehumidification box (208) on the same side. A fixed clamping plate (302) is fixedly connected to one side of the water-absorbing sponge (209), and a movable clamping plate (303) is movably connected to the other side of the water-absorbing sponge (209). Drainage holes (304) for draining water are evenly opened on both the fixed clamping plate (302) and the movable clamping plate (303). A connecting rod (305) is symmetrically hinged between the movable clamping plate (303) and the connecting rod (301) through a hinge.

5. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 4, characterized in that, A feed pipe (4) is fixedly connected to the upper part of one side of the reaction vessel (1), and a discharge pipe (5) is fixedly connected to the lower part of one side of the reaction vessel (1). A valve is installed on both the feed pipe (4) and the discharge pipe (5).

6. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 5, characterized in that, The outlet end of the heat exhaust pipe (106) and the inlet end of the oxygen supply pipe (207) both extend into the interior of the inner box (202). The heat exhaust pipe (106) and the oxygen supply pipe (207) are slidably connected to the inner box (202) through a sealing ring.

7. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 6, characterized in that, The bottom center of the dehumidification box (208) is fixedly connected to a drain pipe (306), and a valve is installed on the drain pipe (306).

8. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 7, characterized in that, The outer casing (201) is fixedly connected to an injection pipe (210), and the end of the injection pipe (210) extends into the interior of the inner casing (202). A valve three is provided on the injection pipe (210), and the injection pipe (210) and the inner casing (202) are connected in a sealed manner by a sealing ring two.

9. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 8, characterized in that, The bottom center of the inner box (202) is fixedly connected to a drain pipe (211), and the end of the drain pipe (211) extends movably to the outside of the outer box (201). A valve is provided on the drain pipe (211).

10. The bio-enzyme catalytic synthesis reaction apparatus as described in claim 9, characterized in that, Four sets of guide rods (307) are symmetrically fixedly connected between the fixed clamping plate (302) and the inner wall of the dehumidification box (208), and all four sets of guide rods (307) are simultaneously slidably connected to the movable clamping plate (303) on the same side. A retaining ring (308) is fixedly sleeved on the outside of the guide rod (307).

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