A hot-pressing type distillation water machine spraying mechanism
By using multiple hollow tubes and motor-driven spray pipes in a hot-press distillation water machine, combined with structures such as a water distribution plate, copper ring, and baffle plate, the problem of uneven contact between the spray water and the hollow tubes is solved, thereby improving the steam condensation effect and production efficiency.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- HUNAN JINJIAN PHARMA
- Filing Date
- 2025-07-04
- Publication Date
- 2026-07-24
AI Technical Summary
The spraying method of traditional hot-press distillation water machines results in uneven contact between the sprayed water and the hollow tube, reducing the effect of secondary steam condensation.
Multiple hollow tubes are used to expand the distribution range of high-temperature steam inside the evaporator. Combined with the motor-driven rotation of the spray pipes, the distribution and contact area of the spray water are optimized through structures such as water distribution plates, copper rings, vibration plates and baffle plates to enhance the steam condensation effect.
It increases the contact area between spray water and high-temperature steam, enhances the steam condensation effect, reduces scale accumulation and impurities, and improves the production efficiency of distilled water.
Smart Images
Figure CN120698547B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of distilled water machines, specifically a spray mechanism for a thermostatic distilled water machine. Background Technology
[0002] The autoclave water distiller is a highly efficient and energy-saving water treatment device widely used in pharmaceuticals, chemicals, electronics, and other fields to produce high-purity water for injection or other process water. The autoclave utilizes steam mechanical recompression technology, using a compressor to compress the secondary steam generated by the evaporation system, increasing its temperature and pressure, thereby increasing its enthalpy. This high-enthalpy secondary steam is then returned to the evaporation system as a heat source, replacing most of the industrial steam. Only a small amount of industrial steam is needed for initial system startup, replenishing heat losses, and covering the enthalpy required for the inlet and outlet water temperature difference. This steam recycling method significantly reduces energy consumption.
[0003] Existing technologies disclose the specific working principle of thermostatic water distillation machines. For example, Chinese Patent No. CN104326520B discloses a horizontal tube falling film thermostatic water distillation machine. In this machine, raw water is preheated by a heat exchanger before entering the evaporation chamber. It is then heated by a supplementary heater to generate secondary steam. This secondary steam is drawn into the steam compressor and compressed to form high-temperature secondary steam, which enters the tubes of the horizontal tube heater. Simultaneously, the raw water is pumped into a spraying device via a circulating pump, evenly spraying it onto the outer wall of the horizontal tube heater. Heat transfer through the tube wall causes the raw water outside the tube to evaporate, continuously generating secondary steam. The high-temperature secondary steam is condensed inside the tube, producing distilled water.
[0004] During use and observation, it was found that traditional hot-press distillation water machines spray the original water onto the surface of the hollow tube where the secondary steam is located. Since the angle of the spray pipe is fixed, there is a tendency for uneven contact between the sprayed water and the hollow tube, which reduces the condensation effect of the secondary steam.
[0005] Therefore, a hot-press distillation water machine spray mechanism is proposed to address the above problems. Summary of the Invention
[0006] In order to overcome the shortcomings of the prior art, at least one technical problem raised in the background art is solved.
[0007] The technical solution adopted by this invention to solve its technical problem is as follows: A spray mechanism for a thermostatic distillation water machine, comprising a base, an evaporator, an air compressor, a water pump, and a motor fixedly connected to the top of the base; a water inlet pipe connected to one side of the evaporator; an air duct connected to the other side of the evaporator; a gas phase distributor and a liquid phase distributor fixedly connected to one end of the evaporator, with the gas phase distributor located inside the liquid phase distributor; the air duct and the input end of the air compressor connected via a pipe, and a pipe installed between the output end of the air compressor and the gas phase distributor; multiple hollow pipes connecting the gas phase distributor and the liquid phase distributor; a spray pipe rotatably connected through and installed on one side of the evaporator; the spray pipe is located within multiple hollow pipes. The evaporator contains a core tube; multiple spray nozzles are installed on the outer wall of the spray pipe; a belt is fitted between the end of the spray pipe and the motor output end; the water pump input end is connected to the bottom of the evaporator, and the water pump output end and the end of the spray pipe are rotatably connected; a steam heater is installed inside the evaporator; a separation component is provided between the air duct and the evaporator; by setting multiple hollow tubes, the distribution range of high-temperature steam in the evaporator can be expanded, thereby increasing the contact area between the spray water and the high-temperature steam. At the same time, by setting a motor, the spray pipe can be rotated to spray water, increasing the distribution range of spray water in the evaporator, thereby expanding the contact area between the spray water and the high-temperature steam, and improving the condensation effect of the steam in the hollow tube.
[0008] Preferably, multiple water distribution plates are fixedly connected to one side of the gas phase distributor, and the water distribution plates are located on one side of the hollow tube; the water distribution plates have a W-shaped structure; by setting the water distribution plates, the spray water can be guided and expanded, further increasing the contact heat exchange area between the spray water and the steam in the hollow tube.
[0009] Preferably, a copper ring is fixed to the inner wall of the water distribution plate; the copper ring is sleeved on the outside of the hollow tube; by setting the copper ring, since the copper ring has high thermal conductivity, the high temperature steam in the hollow tube can exchange heat with the water distribution plate through the copper ring, so that the direct contact between the water distribution plate, the copper ring and the water can be transformed into indirect heat exchange with the steam, thereby increasing the heat exchange area between the steam and the spray water.
[0010] Preferably, a vibrating plate is fixedly connected to the surface of the spray pipe; the vibrating plate and the evaporator are rotatably connected; an inner ring is fixedly connected to the inner wall of the vibrating plate; a sphere is provided inside the vibrating plate; by setting the vibrating plate and the sphere, when the spray pipe rotates, the sphere will slide along the cavity between the vibrating plate and the inner ring. As the spray pipe rotates, the sphere will continuously switch the corner of the vibrating plate under the action of gravity and keep it at the lowest point. During the switching process, the vibrating plate will also continuously collide with the inner wall of the vibrating plate. The impact generated by the collision can be transmitted to the spray pipe and the nozzle, which can help to remove water impurities in the nozzle, reduce the scale formed by the accumulation of impurities in the nozzle, and also accelerate the discharge of water bubbles in the spray pipe.
[0011] Preferably, a plurality of sliding rods are slidably connected through the middle of the vibrating plate; a ball is fixedly connected to one side of the sliding rod; a spring is fixedly connected to the other side of the sliding rod; the spring and the outer wall of the vibrating plate are both fixedly connected; during the switching process at the corner of the vibrating plate, the ball will collide with the ball and make a relatively crisp sound, so as to reduce the direct contact between the ball and the vibrating plate, and at the same time provide external feedback, so that the staff can judge whether the ball is working properly. At the same time, when the ball gets stuck at a corner due to compression, the staff can push the ball out by pressing the end of the sliding rod.
[0012] Preferably, a fluorescent ring is fixed to the outer wall of the slide bar; by setting the fluorescent ring, when the working environment is dim, the staff can observe the exposure of the fluorescent ring. The fluorescent ring on the surface of the slide bar at the corner where the ball is located will be exposed and fluorescent, which facilitates the repositioning of the ball.
[0013] Preferably, the separation component includes a baffle plate; the baffle plate is fixedly installed inside the evaporator, and the surface of the baffle plate has an arc-shaped structure; multiple baffle plates are fixedly connected to the inner wall of the air duct, and the baffle plates are staggered and inclined; through the cooperation of the baffle plate and the baffle plates, the baffle plate will block the water sprayed by the nozzle, preventing it from entering the air duct. At the same time, through the labyrinth structure formed by multiple staggered baffle plates, the flow path of steam between the baffle plates is extended, thereby pre-liquefying the steam that is about to condense and dehydrating the steam entering the air duct, further reducing the amount of water entering the air compressor.
[0014] Preferably, the outer wall of the air duct is fixed with thermal insulation cotton; by setting thermal insulation cotton, the outer wall of the pipe between the evaporator and the air compressor can be pasted with thermal insulation cotton to keep the medium transport path of the device warm and reduce the interference of the external ambient temperature on the thermo-pressurization system of the device.
[0015] The advantages of this invention are: 1. The spraying mechanism of the hot-press distillation water machine of the present invention, by setting multiple hollow tubes, can expand the distribution range of high-temperature steam in the evaporator, thereby increasing the contact area between the sprayed water and the high-temperature steam. At the same time, by setting a motor, the spraying tube can be rotated to spray water, increasing the distribution range of sprayed water in the evaporator, thereby expanding the contact area between the sprayed water and the high-temperature steam and improving the condensation effect of steam in the hollow tubes.
[0016] 2. The spray mechanism of the hot-press distillation water machine of the present invention can guide and expand the spray water by setting a water distribution plate, thereby further increasing the contact heat exchange area between the spray water and the steam in the hollow tube. Attached Figure Description
[0017] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.
[0018] Figure 1 This is a schematic diagram of the main body of the present invention; Figure 2 This is a schematic diagram of the evaporator structure in this invention; Figure 3 This is a schematic diagram of the gas phase distributor in this invention; Figure 4 This is a schematic diagram of the hollow tube structure in this invention; Figure 5 This is a schematic diagram of the water distribution plate in this invention; Figure 6 This is a schematic diagram of the structure of the spray pipe in this invention; Figure 7 This is a schematic diagram of the structure of the vibrating plate in this invention; Figure 8 This is a schematic diagram of the water-baffle plate in this invention.
[0019] In the diagram: 1. Base; 12. Evaporator; 13. Water inlet pipe; 14. Air compressor; 15. Air duct; 16. Gas phase distributor; 17. Liquid phase distributor; 18. Drain pipe; 19. Hollow pipe; 110. Water pump; 111. Motor; 112. Spray pipe; 113. Spray head; 114. Steam heater; 2. Water distribution plate; 3. Copper ring; 4. Vibrating plate; 42. Inner ring; 43. Sphere; 5. Sliding rod; 52. Bumper ball; 53. Spring; 6. Fluorescent ring; 7. Water baffle plate; 72. Water baffle plate; 8. Insulation cotton. Detailed Implementation
[0020] 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.
[0021] Specific implementation examples are given below.
[0022] Please see Figures 1 to 8As shown in the embodiment of the present invention, a spray mechanism for a thermostatic distilled water machine includes a base 1. An evaporator 12, an air compressor 14, a water pump 110, and a motor 111 are fixedly connected to the top of the base 1. One side of the evaporator 12 is connected to a water inlet pipe 13; the other side of the evaporator 12 is connected to an air duct 15. A gas phase distributor 16 and a liquid phase distributor 17 are fixedly connected to one end of the evaporator 12, with the gas phase distributor 16 located inside the liquid phase distributor 17. The air duct 15 is connected to the input end of the air compressor 14 via a pipe, and a pipe is installed between the output end of the air compressor 14 and the gas phase distributor 16. The gas phase distributor 16 and the liquid phase distributor 17 are connected... The evaporator 12 has multiple hollow tubes 19; a spray pipe 112 is rotatably connected to one side of the evaporator 12; the spray pipe 112 is located inside the multiple hollow tubes 19; multiple nozzles 113 are installed on the outer wall of the spray pipe 112 located inside the evaporator 12; a belt is fitted between the end of the spray pipe 112 and the output end of the motor 111; the input end of the water pump 110 is connected to the bottom of the evaporator 12, and the output end of the water pump 110 is rotatably connected to the end of the spray pipe 112; a steam heater 114 is installed inside the evaporator 12; a separation component is provided between the air duct 15 and the evaporator 12; during operation, tap water can be preheated through a heat exchanger, and then the preheated water can be... Tap water is introduced into the evaporator 12 through the inlet pipe 13. The steam heater 114 is activated and heats the water to form hot steam. The inlet of the steam heater 114 is connected to external steam. After the mixed gas in the evaporator 12 is dehydrated by the separation component, the hot steam enters the air compressor 14 through the air duct 15 and pipeline and is compressed. The compressed high-temperature and high-pressure steam enters the gas phase distributor 16 through the pipeline and then enters the hollow tube 19. At this time, the water pump 110 and the motor 111 are both running. The water pump 110 pumps the water in the evaporator 12 through the pipeline to the spray pipe 112 and sprays it out through the nozzle 113. At the same time, the motor 111 starts up. The spray pipe 112 is driven to rotate by a belt. Since the water pipe between the spray pipe 112 and the water pump 110 is connected by a rotating pipe, it will not hinder the water delivery of the water pump 110. The rotating spray pipe 112 will spray the air inlet end of all hollow pipes 19 through the nozzle 113. The steam in the hollow pipes 19 will heat the spray water and provide heat to the water in the evaporator 12. At the same time, it will also condense into distilled water. The condensed distilled water can be discharged through the liquid phase distributor 17 through the drain pipe 18 to the heat exchanger to provide residual heat to the initial tap water. The heat exchanger and related valve and pipeline structure involved in the above distillation process are mature existing technologies, so they are not shown in the figure and will not be described in detail here.By setting multiple hollow tubes 19, the distribution range of high-temperature steam within the evaporator 12 can be expanded, thereby increasing the contact area between the spray water and high-temperature steam in the spray pipes 112. Simultaneously, by setting a motor 111, the spray pipes 112 can rotate to spray water, increasing the distribution range of spray water within the evaporator 12, further expanding the contact area between the spray water and high-temperature steam, and improving the condensation effect of the steam within the hollow tubes 19.
[0023] Please see Figure 5 As shown, multiple water distribution plates 2 are fixedly connected to one side of the gas phase distributor 16, and the water distribution plates 2 are located on one side of the hollow tube 19; the water distribution plates 2 have a W-shaped structure; by setting the water distribution plates 2, when the rotating spray pipe 112 sprays water through the nozzle 113, some of the water will pass through the hollow tube 19 and contact the concave corner of the water distribution plates 2. Under the guidance of the concave corner of the water distribution plates 2, the water can be guided to the back of the hollow tube 19 and exchange heat with this part of the steam. At the same time, the concave corner of the water distribution plates 2 can also expand the flow of the remaining contacting water, thereby expanding the distribution range of the sprayed water in the evaporator 12 and increasing its contact area with the hollow tube 19; by setting the water distribution plates 2, the sprayed water can be guided and expanded, further expanding the contact heat exchange area between the sprayed water and the steam in the hollow tube 19.
[0024] Please see Figure 5 As shown, a copper ring 3 is fixed to the inner wall of the water distribution plate 2; the copper ring 3 is sleeved on the outside of the hollow tube 19; by setting the copper ring 3, since the copper ring 3 has high thermal conductivity, the high temperature steam in the hollow tube 19 can exchange heat with the water distribution plate 2 through the copper ring 3, so that the direct contact between the water distribution plate 2, the copper ring 3 and the water can be converted into indirect heat exchange with the steam, thereby increasing the heat exchange area between the steam and the spray water.
[0025] Please see Figure 6 and Figure 7 As shown, a vibrating plate 4 is fixedly connected to the surface of the spray pipe 112; the vibrating plate 4 and the evaporator 12 are rotatably connected; an inner ring 42 is fixedly connected to the inner wall of the vibrating plate 4; a sphere 43 is provided inside the vibrating plate 4; by setting the vibrating plate 4 and the sphere 43, when the spray pipe 112 rotates, the sphere 43 will slide along the cavity between the vibrating plate 4 and the inner ring 42. As the spray pipe 112 rotates, the sphere 43 will continuously switch its position at the corner of the vibrating plate 4 under the action of gravity and keep it at the lowest position. During the switching process, the vibrating plate 4 will also continuously collide with the inner wall of the vibrating plate 4. The impact generated by the collision can be transmitted to the spray pipe 112 and the nozzle 113, which can help to remove water impurities in the nozzle 113, reduce the scale formed by the accumulation of impurities in the nozzle 113, and also accelerate the discharge of water bubbles in the spray pipe 112.
[0026] Please see Figure 7As shown, a plurality of sliding rods 5 are slidably connected through the middle of the vibrating plate 4; a ball 52 is fixedly connected to one side of the sliding rod 5; a spring 53 is fixedly connected to the other side of the sliding rod 5; the spring 53 and the outer wall of the vibrating plate 4 are both fixedly connected; during the switching process at the corner of the vibrating plate 4, the ball 43 will collide with the ball 52 and make a relatively crisp sound, so as to reduce the direct contact between the ball 43 and the vibrating plate 4, and at the same time provide external feedback, so as to facilitate the staff to judge whether the ball 43 is working properly. At the same time, when the ball 43 is stuck in a corner due to compression, the staff can push the ball 43 out by pressing the end of the sliding rod 5.
[0027] Please see Figure 7 As shown, a fluorescent ring 6 is fixed to the outer wall of the slide bar 5. By setting the fluorescent ring 6, when the working environment is dim, the staff can observe the exposure of the fluorescent ring 6. The fluorescent ring 6 on the surface of the slide bar 5 at the corner where the ball 43 is located will be exposed and have fluorescence, which facilitates the repositioning of the ball 43.
[0028] Please see Figure 8 As shown, the separation component includes a water baffle plate 7; the water baffle plate 7 is fixedly installed inside the evaporator 12, and the surface of the water baffle plate 7 has an arc-shaped structure; multiple water baffle plates 72 are fixedly connected to the inner wall of the air duct 15, and the water baffle plates 72 are staggered and inclined; through the cooperation of the water baffle plate 7 and the water baffle plates 72, the water baffle plate 7 will block the water sprayed by the nozzle 113, preventing it from entering the air duct 15. At the same time, through the labyrinth structure formed by the multiple staggered water baffle plates 72, the flow path of steam between the water baffle plates 72 is extended, thereby pre-liquefying the steam that is about to condense, and dehydrating the steam entering the air duct 15, further reducing the amount of water entering the air compressor 14.
[0029] Please see Figure 8 As shown, the outer wall of the air duct 15 is fixed with thermal insulation cotton 8; by setting thermal insulation cotton 8, the outer wall of the pipeline between the evaporator 12 and the air compressor 14 can be covered with thermal insulation cotton 8 to keep the medium transport path of the device warm and reduce the interference of the external ambient temperature on the thermo-pressurization system of the device.
[0030] Working principle: Tap water is preheated through a heat exchanger, and then the preheated tap water is added into the evaporator 12 through the inlet pipe 13. The steam heater 114 is activated and heats the water to form hot steam. The inlet of the steam heater 114 is connected to external steam. After the mixed gas in the evaporator 12 is dehydrated by the separation component, the hot steam enters the air compressor 14 through the air duct 15 and pipeline and is compressed. The compressed high-temperature and high-pressure steam enters the gas phase distributor 16 through the pipeline and then enters the hollow tube 19. At this time, the water pump 110 and the motor 111 are both running. The water pump 110 pumps the water in the evaporator 12 into the spray pipe 112 through the pipeline and sprays it through the nozzles. Spraying water from nozzle 113, and simultaneously starting motor 111, which drives spray pipe 112 to rotate via belt. Since the water pipe between spray pipe 112 and water pump 110 is rotatably connected, it does not obstruct water delivery by pump 110. The rotating spray pipe 112 sprays water through nozzle 113 onto the air inlet ends of all hollow pipes 19. The steam inside the hollow pipes 19 heats the sprayed water, providing heat to the water in evaporator 12, and simultaneously condenses into distilled water. The condensed distilled water can be discharged through liquid phase distributor 17 via drain pipe 18 to the heat exchanger to provide residual heat to the initial tap water. The heat exchanger and related valve and piping structures involved in the distillation process are mature existing technologies and are therefore not shown in the figure. This will not be elaborated further here; by setting up the water distribution plate 2, when the rotating spray pipe 112 sprays water through the nozzle 113, some of this water will pass through the hollow pipe 19 and contact the concave corner of the water distribution plate 2. Under the guidance of the concave corner of the water distribution plate 2, the water can be guided to the back of the hollow pipe 19 and exchange heat with this part of the steam. At the same time, the concave corner of the water distribution plate 2 can also expand the flow of the remaining contacting water, thereby expanding the distribution range of the sprayed water in the evaporator 12 and increasing its contact area with the hollow pipe 19; by setting up the copper ring 3, since the copper ring 3 has high thermal conductivity, the high-temperature steam in the hollow pipe 19 can exchange heat with the water distribution plate 2 through the copper ring 3, thereby enabling direct contact between the water distribution plate 2, the copper ring 3 and the water. It is converted into indirect heat exchange with steam, thereby increasing the heat exchange area between steam and spray water; by setting up the vibrating plate 4 and the ball 43, when the spray pipe 112 rotates, the ball 43 will slide along the cavity between the vibrating plate 4 and the inner ring 42. As the spray pipe 112 rotates, the ball 43 will continuously switch the corner of the vibrating plate 4 under the action of gravity and keep it at the lowest position. During the switching process, the vibrating plate 4 will also continuously collide with the inner wall of the vibrating plate 4. The impact generated by the collision can be transmitted to the spray pipe 112 and the nozzle 113, which can help to remove water impurities in the nozzle 113, reduce the scale formed by the accumulation of impurities in the nozzle 113, and also accelerate the discharge of water bubbles in the spray pipe 112.During the switching process at the corner of the vibrating plate 4, the sphere 43 will collide with the ball 52 and produce a relatively crisp sound, reducing the direct contact between the sphere 43 and the vibrating plate 4. This also provides external feedback, allowing operators to judge whether the sphere 43 is working properly. If the sphere 43 gets stuck at a corner due to compression, operators can push it out by pressing the end of the slide bar 5. By setting a fluorescent ring 6, when the working environment is dimly lit, operators can observe the exposure of the fluorescent ring 6. The fluorescent ring 6 on the surface of the slide bar 5 at the corner where the sphere 43 is located will be exposed and fluorescent, thus facilitating the repositioning of the sphere 43. By using a barrier... The water tray 7 and the baffle plate 72 work together to block the water sprayed by the nozzle 113, preventing it from entering the air duct 15. Simultaneously, the labyrinth structure formed by multiple staggered baffle plates 72 extends the flow path of steam between the baffle plates 72, thus pre-liquefying the steam about to condense and dehydrating the steam entering the air duct 15, further reducing the amount of water entering the air compressor 14. Furthermore, by installing insulation cotton 8, the outer walls of the pipes between the evaporator 12 and the air compressor 14 can be covered with insulation cotton 8 to insulate the medium transport path of the device, reducing the interference of external ambient temperature on the thermo-pressurization system of the device.
[0031] The foregoing has shown and described the basic principles, main features, and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the claimed invention.
Claims
1. A spray mechanism for a hot-press distillation water machine, comprising a base (1), characterized in that: An evaporator (12), an air compressor (14), a water pump (110), and a motor (111) are fixedly connected to the top of the base (1); a water inlet pipe (13) is connected to one side of the evaporator (12); a duct (15) is connected to the other side of the evaporator (12); a gas phase distributor (16) and a liquid phase distributor (17) are fixedly connected to one end of the evaporator (12), and the gas phase distributor (16) is located inside the liquid phase distributor (17); the duct (15) and the input end of the air compressor (14) are connected by a pipe, and a pipe is installed between the output end of the air compressor (14) and the gas phase distributor (16); multiple pipes are connected between the gas phase distributor (16) and the liquid phase distributor (17). A hollow tube (19); a spray pipe (112) is rotatably connected through one side of the evaporator (12); the spray pipe (112) is located inside the hollow tubes (19); a plurality of nozzles (113) are installed on the outer wall of the spray pipe (112) located inside the evaporator (12); a belt is fitted between the end of the spray pipe (112) and the output end of the motor (111); the input end of the water pump (110) is connected to the bottom of the evaporator (12), and the output end of the water pump (110) is rotatably connected to the end of the spray pipe (112); a steam heater (114) is installed inside the evaporator (12); a separation assembly is provided between the air duct (15) and the evaporator (12); A vibrating plate (4) is fixedly attached to the surface of the spray pipe (112); the vibrating plate (4) and the evaporator (12) are rotatably connected; an inner ring (42) is fixedly attached to the inner wall of the vibrating plate (4); a sphere (43) is provided inside the vibrating plate (4); by setting the vibrating plate (4) and the sphere (43), when the spray pipe (112) rotates, the sphere (43) will slide along the cavity between the vibrating plate (4) and the inner ring (42). As the spray pipe (112) rotates, the sphere (43) will continuously switch the corner of the vibrating plate (4) under the action of gravity and keep it at the lowest point; The vibrating plate (4) has multiple sliding rods (5) that are slidably connected through the middle of it; a ball (52) is fixedly connected to one side of the sliding rod (5); a spring (53) is fixedly connected to the other side of the sliding rod (5); the spring (53) and the outer wall of the vibrating plate (4) are both fixedly connected. A fluorescent ring (6) is fixed to the outer wall of the slide bar (5).
2. The spray mechanism of a hot-press distillation water machine according to claim 1, characterized in that: The gas phase distributor (16) has multiple water distribution plates (2) fixedly connected to one side, and the water distribution plates (2) are located on one side of the hollow tube (19); the water distribution plates (2) are W-shaped structures.
3. The spray mechanism of a hot-press distillation water machine according to claim 2, characterized in that: A copper ring (3) is fixed to the inner wall of the water distribution plate (2); the copper ring (3) is sleeved on the outside of the hollow tube (19).
4. The spray mechanism of a hot-press distillation water machine according to claim 3, characterized in that: The separation component includes a baffle plate (7); the baffle plate (7) is fixedly installed inside the evaporator (12), and the surface of the baffle plate (7) is an arc-shaped structure; multiple baffle plates (72) are fixedly connected to the inner wall of the air duct (15), and the baffle plates (72) are staggered and inclined.
5. The spray mechanism of a hot-press distillation water machine according to claim 4, characterized in that: The outer wall of the air duct (15) is fixed with thermal insulation cotton (8).