Atomization device for promoting atrix behavior of young green-tail rainbow

Abstract

The invention relates to the technical field of atomization devices, and discloses an atomization device for promoting a green-tail rainbow juvenile courtship behavior, which comprises a natural fog generation mechanism, a cooling pushing mechanism and a natural fog recovery mechanism, the natural fog generation mechanism comprises a generation channel, a refrigeration assembly is arranged at the head of the generation channel, a steam generation assembly is arranged in the middle of the generation channel, and a breeze generation assembly is arranged at the tail end of the generation channel; the head end of the cooling pushing mechanism corresponds to the generation channel; the natural fog recovery mechanism is arranged corresponding to the tail end of the cooling pushing mechanism. Water vapor is mixed with air in the generation channel to form warm and humid air with the humidity close to the saturation state, then the warm and humid air is cooled to form natural fog, the natural fog slowly flows into the natural fog recycling mechanism in the breeding cage through pushing of the cooling pushing mechanism, and the natural fog is recycled. And after flowing into the natural fog recovery mechanism, the natural fog is dissipated and recovered, so that the natural fog is generated in the cage culture environment of the pheasants.

Description

Technical Field

[0001] The invention relates to the technical field of atomizing devices, in particular to an atomizing device for promoting the courtship behavior of green-tailed rainbow larvae. Background Art

[0002] Compared with their native habitat, the temperature and humidity of the captive environment of the green-tailed pheasant are stable, with little variation between day and night. In the native habitat of the green-tailed pheasant, the temperature is lower and the humidity is higher from 07:00 to 09:00 every day from March to May. The native habitat of the green-tailed pheasant has naturally generated fog during this period. The fog can enhance the visual haziness, enhance the iridescent refraction of the green-tailed pheasant's feathers, and transmit odor information. Therefore, the courtship behavior of the green-tailed pheasant often occurs during this period, thus generating natural fog in the captive environment of the green-tailed pheasant, which is conducive to promoting the courtship behavior of the green-tailed pheasant.

[0003] The formation of natural fog requires air humidity to be near saturation. When near-saturated air cools, its ability to hold water vapor decreases, and the excess water vapor condenses into countless tiny droplets in the air, forming fog. However, existing atomization devices mechanically crush water into fine droplets ranging from 10 to 100 microns, forcibly dispersing them into the air to increase the liquid water content and humidity in the air. However, the fine droplets obtained by mechanical crushing are much larger than the droplets condensed in natural fog. Moreover, after being sprayed out, the fine droplets do not have an air atmosphere with near-saturated humidity. As a result, existing atomization devices produce a spray that resembles natural fog and can only be generated briefly in a small area. It lacks the humidity, temperature, fluidity, and refractive effects of natural fog.

[0004] Therefore, how to generate natural fog in the cage environment of the green-tailed pheasant is a problem that needs to be solved urgently in this technical field. Summary of the Invention

[0005] The purpose of the present invention is to disclose an atomizing device for promoting the courtship behavior of green-tailed rainbow juveniles, so as to improve the above-mentioned problem. To achieve the above-mentioned purpose, the technical solution adopted by the present invention is as follows: The present application provides an atomizing device for promoting the courtship behavior of green-tailed rainbow larvae, comprising: Natural mist generating mechanism, cooling and moving mechanism and natural mist recovery mechanism; The natural mist generating mechanism is used to generate natural mist into the breeding cage of the green-tailed rainbow fry. The natural mist generating mechanism includes a generating channel. The head of the generating channel is provided with a refrigeration component, the middle of the generating channel is provided with a water vapor generating component, and the tail end of the generating channel is provided with a breeze generating component. The head end of the cooling and pushing mechanism corresponds to the generation channel setting. The cooling and pushing mechanism is used to be arranged in the breeding cage of the green-tailed rainbow trout to cool and humidify the breeding cage and push the natural mist to move in the breeding cage. The natural mist recovery mechanism is arranged at the tail end of the cooling pushing mechanism, and is used to dissipate and recover the natural mist.

[0006] Preferably, the refrigeration component includes a refrigeration table, which is provided with a liquid storage tank. The liquid storage tank is arranged through the generation channel and is used to store liquid. After the liquid in the liquid storage tank is cooled by the refrigeration table, the air in the head of the flow generation channel is cooled.

[0007] Preferably, the water vapor generating component includes a heating chamber, a heating tube and a silent water pump. The heating chamber is provided with a steam channel, the steam channel is connected to the middle of the generating channel, the heating tube is arranged in the heating chamber, the output end of the silent water pump is arranged through the heating chamber, and the silent water pump is used to inject water into the heating chamber.

[0008] Preferably, a jet pipe is provided in the heating chamber, the jet pipe is communicated with the output end of the first silent water pump, and a plurality of atomizing nozzles are connected through the jet pipe.

[0009] Preferably, the breeze generating component includes an airflow channel, a docking channel and a fan, one end of the airflow channel is closed, the fan is arranged at the other end of the airflow channel, a plurality of strip holes are opened on the peripheral wall of the airflow channel, one end of the docking channel is connected to the tail end of the generating channel, and the other end of the docking channel is sealed with the peripheral wall of the airflow channel, and the plurality of strip holes are located in the docking channel.

[0010] Preferably, the cooling and pushing mechanism includes a first silent air pump, a refrigeration pipe, a tee pipe and two insulation pipes. The refrigeration pipe is arranged in a wavy shape in the refrigeration assembly. One end of the refrigeration pipe is connected to the output end of the first silent air pump, and the other end of the refrigeration pipe is connected to the first interface of the tee pipe. One end of the two insulation pipes is closed, and the other ends of the two insulation pipes are respectively connected to the second interface and the third interface of the tee pipe. A plurality of first flat nozzles are connected on the insulation pipe, and the first flat nozzles are inclined. The two insulation pipes are used to be arranged on the two side edges of the green-tailed rainbow fry breeding cage.

[0011] Preferably, a diverter hood is provided in the generation channel, the diverter hood is located between the refrigeration component and the water vapor generation component, the input end of the first silent air pump is connected to the diverter hood, and the diverter hood is used to divert the air with increased humidity in the generation channel.

[0012] Preferably, the insulation pipe is connected with a plurality of insulation branches, the ends of the insulation branches are connected with a second flat nozzle, the second flat nozzle is connected to the camouflage object, and the insulation branches of the two insulation pipes are staggered.

[0013] Preferably, the natural mist recovery mechanism includes a collecting tank, a second silent air pump, a heat conduction pipe and a flow guide pipe. The collecting tank is provided with a collecting cover, the flow guide pipe is mounted in the collecting cover, and a plurality of blowing nozzles are connected to the flow guide pipe. The blowing nozzles are arranged toward the collecting tank. One end of the flow guide pipe is closed, and the other end of the flow guide pipe is connected to the tail end of the heat conduction pipe through the first insulation pipe. The heat conduction pipe is arranged in a wavy shape in the heating chamber, and the head end of the heat conduction pipe is connected to the output end of the second silent air pump.

[0014] Preferably, the collecting tank is used to store water injected into the heating chamber, a heat conducting plate is provided in the collecting tank, a filter plate is connected to the top of the collecting tank, a second insulation pipe is provided between the output end of the silent water pump and the heating chamber, and the input end of the silent water pump is connected to the bottom of the collecting tank.

[0015] The beneficial effects of the present invention are: The present invention mixes water vapor with air in a generation channel to form warm and humid air with a humidity close to saturation. The refrigeration component then cools the warm and humid air to reduce the air's ability to accommodate water vapor. Excess water vapor condenses into countless tiny water droplets in the air to form natural fog. The cooling and humidification in the breeding cage are performed in advance by a cooling and pushing mechanism. After the natural fog enters the breeding cage, it can maintain a stable shape and is pushed by the cooling and pushing mechanism to make the natural fog flow slowly toward the natural fog recovery mechanism in the breeding cage, thereby simulating the natural flow of natural fog. After the natural fog flows into the natural fog recovery mechanism, the natural fog recovery mechanism dissipates and recovers the natural fog, thereby avoiding the negative impact of the natural fog on the environment outside the breeding cage, thereby achieving the generation of natural fog in the cage environment of the green-tailed pheasant.

[0016] Other features and advantages of the present invention will be described in the following description, and in part will become apparent from the description, or understood by practicing the embodiments of the present invention. The purposes and other advantages of the present invention can be realized and obtained by the structures particularly pointed out in the written description, claims, and drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for use in the embodiments. It should be understood that the following drawings only illustrate certain embodiments of the present invention and therefore should not be regarded as limiting the scope. For ordinary technicians in this field, other relevant drawings can be obtained based on these drawings without paying any creative work.

[0018] Figure 1 This is a schematic diagram of the structure of this application; Figure 2 This is a schematic diagram of the structure of the natural fog generating mechanism of this application; Figure 3 This is a schematic diagram of the refrigeration component structure of this application; Figure 4 This is a schematic diagram of the internal structure of the heating chamber of this application; Figure 5 This is a schematic diagram of the structure of the breeze generating component of this application; Figure 6 A cross-sectional view of the generated channel for this application; Figure 7 This is a schematic diagram of the second flat nozzle connection of this application; Figure 8 This is a schematic diagram of the flow guide pipe connection of this application; Figure 9 This is a schematic diagram of the collection tank connection of this application; Markings in the figure: natural mist generating mechanism 1, generating channel 11, diverter cover 111, refrigeration component 12, refrigeration table 121, liquid storage tank 122, water vapor generating component 13, heating chamber 131, heating pipe 132, silent water pump 133, steam channel 134, jet pipe 135, atomizing nozzle 136, breeze generating component 14, air flow channel 141, docking channel 142, fan 143, strip hole 144, cooling and pushing mechanism 2, first silent air pump 21, refrigeration pipe 22, three-way pipe 23, insulation pipe 24, first flat nozzle 25, insulation branch pipe 26, second flat nozzle 27, camouflage 28, natural mist recovery mechanism 3, collecting tank 31, second silent air pump 32, heat conduction pipe 33, flow guide pipe 34, collecting cover 35, blowing nozzle 36, first insulation pipe 37, heat conduction sheet 38, filter plate 39, second insulation pipe 310. DETAILED DESCRIPTION

[0019] In order to make the purpose, technical solutions and advantages of the embodiments of the present invention clearer, the technical solutions in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. The components of the embodiments of the present invention generally described and shown in the drawings herein can be arranged and designed in various different configurations. Therefore, the following detailed description of the embodiments of the present invention provided in the drawings is not intended to limit the scope of the claimed invention, but merely represents selected embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative work are within the scope of protection of the present invention.

[0020] It should be noted that similar reference numerals and letters represent similar items in the following drawings. Therefore, once an item is defined in one drawing, it does not need to be further defined or explained in subsequent drawings. At the same time, in the description of the present invention, the terms "first", "second", etc. are used only to distinguish the description and should not be understood as indicating or implying relative importance.

[0021] As the instruction manual Figure 1-Figure 2 As shown, this embodiment provides an atomizing device for promoting the courtship behavior of green-tailed rainbow larvae, comprising: Natural mist generating mechanism 1, cooling and moving mechanism 2 and natural mist recovery mechanism 3; The natural mist generating mechanism 1 is used to generate natural mist into the breeding cage of the green-tailed rainbow finches. The natural mist generating mechanism 1 includes a generating channel 11. A refrigeration component 12 is provided at the head of the generating channel 11, a water vapor generating component 13 is provided in the middle of the generating channel 11, and a breeze generating component 14 is provided at the tail end of the generating channel 11. The head end of the cooling and pushing mechanism 2 is arranged corresponding to the generation channel 11. The cooling and pushing mechanism 2 is used to be arranged in the breeding cage of the green-tailed rainbow trout to cool and humidify the breeding cage and push the natural mist to move in the breeding cage; The natural mist recovery mechanism 3 is provided at the tail end of the cooling and pushing mechanism 2, and the natural mist recovery mechanism 3 is used to dissipate and recover the natural mist.

[0022] It can be understood that when promoting the courtship behavior of the green-tailed rainbow larvae, the cooling and pushing mechanism 2 is first started, and the temperature and humidification of the breeding cage of the green-tailed rainbow larvae are cooled by the cooling and pushing mechanism 2; then the natural mist generating mechanism 1 is started, and the cooling component 12 is used to cool the head of the generating channel 11, and the breeze generating component 14 continuously introduces air into the generating channel 11, pushing the air flow in the generating channel 11, and the water vapor generating component 13 generates water vapor and enters the generating channel 11, and the water vapor is mixed with the air in the generating channel 11 to increase the humidity and temperature of the air, so that the humidity of the air When the warm and humid air is close to saturation, warm and humid air is formed. When the warm and humid air passes through the head of the flow generation channel 11, the refrigeration component 12 cools the warm and humid air. After the warm and humid air is cooled, the ability to accommodate water vapor decreases, and the excess water vapor condenses into countless tiny water droplets in the air, thereby forming natural fog; the natural fog is pushed by the breeze generation component 14 and enters the breeding cage of the green-tailed rainbow larvae through the generation channel 11. The cooling and humidification in the breeding cage are carried out in advance by the cooling and pushing mechanism 2. After entering the breeding cage, the natural fog can maintain a stable shape and will not dissipate under the action of dry air. The pushing of the cooling pushing mechanism 2 causes the natural fog to flow slowly toward the natural fog recovery mechanism 3 in the breeding cage, thereby simulating the natural flow of natural fog. After the natural fog flows into the natural fog recovery mechanism 3, the natural fog recovery mechanism 3 dissipates and recovers the natural fog, thereby avoiding the negative impact of the natural fog on the environment outside the breeding cage; in this technical solution, water vapor is mixed with air in the generating channel 11 to form warm and humid air with humidity close to saturation, and the refrigeration component 12 cools the warm and humid air to reduce the air's ability to accommodate water vapor, and the excess water vapor is in the air. Countless tiny water droplets condense in the air to form natural fog. The cooling and humidification in the breeding cage are carried out in advance by the cooling and pushing mechanism 2. The natural fog can maintain a stable shape after entering the breeding cage, and is pushed by the cooling and pushing mechanism 2 to make the natural fog slowly flow toward the natural fog recovery mechanism 3 in the breeding cage, thereby simulating the natural flow of natural fog. After the natural fog flows into the natural fog recovery mechanism 3, the natural fog recovery mechanism 3 dissipates and recovers the natural fog, avoiding the negative impact of natural fog on the environment outside the breeding cage, thereby realizing the generation of natural fog in the cage environment of the green-tailed pheasant.

[0023] As the instruction manual Figure 3 As shown, the refrigeration component 12 includes a refrigeration table 121, on which a liquid storage tank 122 is provided. The liquid storage tank 122 is arranged through the generation channel 11, and the liquid storage tank 122 is used to store liquid. After the liquid in the liquid storage tank 122 is cooled by the refrigeration table 121, the air in the head of the flow generation channel 11 is cooled.

[0024] It can be understood that after the liquid is injected into the liquid storage tank 122, the refrigeration table 121 refrigerates the liquid in the liquid storage tank 122. The refrigerated liquid will generate a low-temperature environment in the head of the generation channel 11. When the warm and humid air flows through the head of the generation channel 11, the low-temperature environment generated by the liquid cools the warm and humid air. After the warm and humid air is cooled, its ability to accommodate water vapor decreases, and the excess water vapor condenses into countless tiny water droplets in the air, thereby prompting the warm and humid air to form natural fog.

[0025] As the instruction manual Figure 1 and Figure 4 As shown, the water vapor generating component 13 includes a heating chamber 131, a heating tube 132 and a silent water pump 133. The heating chamber 131 is provided with a steam channel 134, and the steam channel 134 is connected to the middle part of the generating channel 11. The heating tube 132 is arranged in the heating chamber 131, and the output end of the silent water pump 133 is arranged through the heating chamber 131. The silent water pump 133 is used to inject water into the heating chamber 131.

[0026] It can be understood that after the silent water pump 133 draws water and injects it into the heating chamber 131, the heating tube 132 continuously heats the water in the heating chamber 131, so that water vapor is generated in the heating chamber 131. After the water vapor rises in the heating chamber 131, it passes through the steam channel 134 and enters the middle part of the generation channel 11. The water vapor mixes with the air in the generation channel 11. The water vapor increases the humidity and temperature of the air, so that the humidity of the air is close to saturation, forming warm and humid air.

[0027] like Figure 4 As shown, a jet pipe 135 is provided in the heating chamber 131 , and the jet pipe 135 is communicated with the output end of the first silent water pump 133 , and a plurality of atomizing nozzles 136 are connected through the jet pipe 135 .

[0028] It can be understood that the water in the heating chamber 131 is in a state of continuous consumption as the natural mist is generated. During the generation of natural mist, a large amount of water is added to the heating chamber 131, which will cause a blank period in the generation of water vapor, resulting in the interruption of the generation of natural mist. Therefore, a jet pipe 135 is provided in the heating chamber 131, and a plurality of atomizing nozzles 136 are connected to the jet pipe 135. Before generating water vapor, the first silent water pump 133 is first started for a certain period of time to draw a certain amount of preheated water and spray it into the heating chamber 13 through the plurality of atomizing nozzles 136. 1; in the process of generating water vapor, when the water in the heating chamber 131 is consumed to a set value, the first silent water pump 133 draws preheated water into the jet pipe 135, and then the water is sprayed into one side of the heating chamber 131 by multiple atomizing nozzles 136. The hot air in the heating chamber 131 further heats the preheated water sprayed out to reduce the temperature difference between the newly injected water and the original water in the heating chamber 131, so that the newly injected water can be heated to the temperature of the original water in a shorter time, thereby ensuring that water vapor can be continuously generated and avoiding interruption of the generation of natural fog.

[0029] As the instruction manual Figure 5 As shown, the breeze generating component 14 includes an air flow channel 141, a docking channel 142 and a fan 143. One end of the air flow channel 141 is closed, and the fan 143 is arranged at the other end of the air flow channel 141. A plurality of strip holes 144 are opened on the peripheral wall of the air flow channel 141. One end of the docking channel 142 is connected to the tail end of the generating channel 11, and the other end of the docking channel 142 is sealed with the peripheral wall of the air flow channel 141. A plurality of strip holes 144 are located in the docking channel 142.

[0030] It can be understood that the fan 143 pushes air into the air flow channel 141, and the air flow channel 141 weakens the flow rate of the air injected by the fan 143. When the amount of air entering the air flow channel 141 is large, the air flows into the docking channel 142 from the multiple strip holes 144, and then flows into the generation channel 11 from the docking channel 142, thereby generating a breeze airflow in the generation channel 11, simulating the breeze flow environment in the natural environment, and the generated breeze airflow is mixed with water vapor in the generation channel 11, increasing the humidity and temperature of the breeze airflow, so that the humidity of the breeze airflow is close to saturation, forming a flowing warm and humid airflow. When the flowing warm and humid airflow passes through the head of the flow generation channel 11, the refrigeration component 12 cools the flowing warm and humid airflow. After the flowing warm and humid airflow is cooled, the ability to accommodate water vapor decreases, and the excess water vapor condenses into countless tiny water droplets, thereby forming a flowing natural fog; the flowing natural fog then flows into the breeding cage of the green-tailed rainbow fry through the generation channel 11, thereby avoiding the dissipation of natural fog caused by the strong wind environment.

[0031] As the instruction manual Figure 1-Figure 2As shown, the cooling and pushing mechanism 2 includes a first silent air pump 21, a refrigeration pipe 22, a tee pipe 23 and two insulation pipes 24. The refrigeration pipe 22 is arranged in a wavy shape in the refrigeration assembly 12. One end of the refrigeration pipe 22 is connected to the output end of the first silent air pump 21, and the other end of the refrigeration pipe 22 is connected to the first interface of the tee pipe 23. One end of the two insulation pipes 24 is closed, and the other ends of the two insulation pipes 24 are respectively connected to the second interface and the third interface of the tee pipe 23. A plurality of first flat nozzles 25 are connected on the insulation pipe 24, and the first flat nozzles 25 are inclined. The two insulation pipes 24 are used to be arranged on the two side edges of the green-tailed rainbow fry breeding cage.

[0032] It can be understood that after the first silent air pump 21 is started, the air with increased humidity is drawn into the refrigeration pipe 22, and the air with increased humidity in the refrigeration pipe 22 is cooled and cooled by the refrigeration component 12. By arranging the refrigeration pipe 22 in a wave shape in the refrigeration component 12, the cooling time of the air with increased humidity is prolonged, so that the air with increased humidity is fully cooled in the refrigeration pipe 22. The cooled air flows through the three-way pipe 23 and enters the two insulation pipes 24 respectively. The insulation pipes 24 reduce the impact of the external temperature on the cooled air. Under the influence of the air, the cooled air in the insulation tube 24 is then ejected in a fan shape by multiple first flat nozzles 25. After the cooled air is ejected, the breeding cage of the green-tailed rainbow fry is cooled and humidified, so that the natural mist can maintain a stable form after entering the breeding cage and will not dissipate under the action of dry air. In addition, after the cooled air is ejected by the inclined first flat nozzle 25, a push air curtain is formed. Through the pushing of the push air curtain, the natural mist slowly flows in the breeding cage toward the natural mist recovery mechanism 3, thereby simulating the natural flow of natural mist.

[0033] As the instruction manual Figure 2 and Figure 6 As shown, a diverter cover 111 is provided in the generation channel 11, and the diverter cover 111 is located between the refrigeration component 12 and the water vapor generation component 13. The input end of the first silent air pump 21 is connected to the diverter cover 111, and the diverter cover 111 is used to divert the air with increased humidity in the generation channel 11.

[0034] It is understandable that additionally increasing the humidity of the air for extraction by the first silent air pump 21 will increase equipment cost and noise; therefore, a diverter hood 111 is set in the generation channel 11, and the fan 143 pushes the air into the air flow channel 141 to mix with water vapor to form warm and humid air. Part of the warm and humid air flows toward the refrigeration component 12, and the other part of the warm and humid air enters the diverter hood 111. After the first silent air pump 21 is started, the warm and humid air in the diverter hood 111 is extracted into the refrigeration pipe 22, and then the warm and humid air in the refrigeration pipe 22 is cooled and cooled by the refrigeration component 12, thereby reducing equipment cost and noise.

[0035] like Figure 7 As shown, the insulation tube 24 is connected to a plurality of insulation branches 26 , and the ends of the insulation branches 26 are connected to a second flat nozzle 27 , which is connected to a camouflage 28 . The insulation branches 26 of the two insulation tubes 24 are staggered.

[0036] It can be understood that when the width of the breeding cage of the green-tailed rainbow croaker is large, the push air curtain sprayed by the first flat nozzle 25 from the two insulation tubes 24 cannot cover the entire ground range of the breeding cage, so that the middle position of the breeding cage is in a blank area without the push air curtain. The generated natural mist flows to the blank area under the push of the push air curtain sprayed by the first flat nozzle 25. After flowing to the blank area, it will dissipate under the action of dry air; therefore, a plurality of insulation branch pipes 26 are connected to the insulation tube 24, and the insulation branch pipe 26 is connected to the second flat nozzle 27. The second flat nozzle 27 is set in the middle position of the breeding cage through the camouflage 28, so that the push air curtain sprayed by the first flat nozzle 25 on one side pushes the generated natural mist to the second flat nozzle 27 on one side, and the second flat nozzle 27 on one side The second pushing air curtain sprayed by the flat nozzle 27 pushes the generated natural mist to flow toward the pushing air curtain sprayed by the first flat nozzle 25 on the other side. When the generated natural mist flows to the pushing air curtain range sprayed by the first flat nozzle 25 on the other side, the pushing air curtain sprayed by the first flat nozzle 25 on the other side pushes the generated natural mist to the second flat nozzle 27 on the other side. The second pushing air curtain sprayed by the second flat nozzle 27 pushes the generated natural mist to flow toward the pushing air curtain sprayed by another first flat nozzle 25 on one side. Multiple first flat nozzles 25 and second flat nozzles 27 push in sequence until the generated natural mist flows into the natural mist recovery mechanism 3, so that the generated natural mist forms an S-shaped flow path in the breeding cage, thereby ensuring the flow effect of the generated natural mist in the breeding cage.

[0037] As the instruction manual Figure 1 and Figure 8 As shown, the natural mist recovery mechanism 3 includes a collecting tank 31, a second silent air pump 32, a heat pipe 33 and a flow pipe 34. A collecting cover 35 is provided on the collecting tank 31, and the flow pipe 34 is mounted in the collecting cover 35. A plurality of blowing nozzles 36 are connected to the flow pipe 34, and the blowing nozzles 36 are arranged toward the collecting tank 31. One end of the flow pipe 34 is closed, and the other end of the flow pipe 34 is connected to the tail end of the heat pipe 33 through the first insulation pipe 37. The heat pipe 33 is arranged in a wavy shape in the heating chamber 131, and the head end of the heat pipe 33 is connected to the output end of the second silent air pump 32.

[0038] It can be understood that after the second silent air pump 32 is started, air is drawn into the heat pipe 33, and the heat pipe 33 is heated by the heating pipe 132 in the heating chamber 131, so that the drawn air forms hot air after flowing through the heating pipe 132, and the hot air is then transported into the guide pipe 34 by the first insulation pipe 37. The hot air in the guide pipe 34 is ejected by multiple blowing nozzles 36 to form a hot flow air curtain. The natural mist generated by the natural mist generating mechanism 1 flows into the collecting cover 35 under the push of the cooling pushing mechanism 2. After the generated natural mist comes into contact with the hot flow air curtain, the natural mist dissipates under the action of the hot air, and the formed water enters the collecting tank 31 for collection, so as to avoid the negative impact of natural fog on the environment outside the breeding cage.

[0039] As the instruction manual Figure 1 and Figure 9 As shown, the collecting tank 31 is used to store the water injected into the heating chamber 131. A heat conducting plate 38 is provided in the collecting tank 31. The top of the collecting tank 31 is connected to a filter plate 39. A second insulation pipe 310 is provided between the output end of the silent water pump 133 and the heating chamber 131. The input end of the silent water pump 133 is connected to the bottom of the collecting tank 31.

[0040] It can be understood that after the hot air in the guide pipe 34 is ejected by the multiple blowing nozzles 36, it enters the collection tank 31, and the heat conducting plate 38 conducts the heat energy of the hot air to the water stored in the collection tank 31, thereby preheating the water stored in the collection tank 31, thereby recycling the heat energy in the hot air. When the silent water pump 133 is started, the preheated water in the collection tank 31 is extracted and enters the second insulation pipe 310. The second insulation pipe 310 insulates the preheated water and enters the heating chamber 131 after flowing through the second insulation pipe 310. This reduces the temperature difference between the newly injected water and the original water in the heating chamber 131, so that the newly injected water can be heated to the temperature of the original water in a shorter time, ensuring that water vapor can be generated continuously and uninterruptedly, and avoiding the interruption of natural fog generation; and the filter plate 39 connected to the top of the collection tank 31 can prevent residue from entering the collection tank 31 and block the water vapor generated in the collection tank 31. After the water vapor condenses into water droplets on the filter plate 39, it falls back into the collection tank 31, thereby ensuring the full utilization of the thermal energy in the hot air and reducing the consumption of water resources.

[0041] The foregoing description is merely a preferred embodiment of the present invention and is not intended to limit the present invention. Those skilled in the art will readily appreciate that various modifications and variations of the present invention are possible. Any modifications, equivalent substitutions, or improvements made within the spirit and principles of the present invention are intended to be within the scope of protection of the present invention.

[0042] The above description is merely a specific embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any modifications or substitutions that can be easily conceived by a person skilled in the art within the technical scope disclosed in the present invention should be included within the scope of protection of the present invention. Therefore, the scope of protection of the present invention should be based on the scope of protection of the claims.

Claims

1. An atomizing device for promoting the courtship behavior of green-tailed rainbow larks, characterized in that: include: Natural mist generating mechanism, cooling and moving mechanism and natural mist recovery mechanism; The natural mist generating mechanism is used to generate natural mist into the breeding cage of the green-tailed rainbow fry. The natural mist generating mechanism includes a generating channel. The head of the generating channel is provided with a refrigeration component, the middle of the generating channel is provided with a water vapor generating component, and the tail end of the generating channel is provided with a breeze generating component. The head end of the cooling and pushing mechanism corresponds to the generation channel setting. The cooling and pushing mechanism is used to be arranged in the breeding cage of the green-tailed rainbow trout to cool and humidify the breeding cage and push the natural mist to move in the breeding cage. The natural mist recovery mechanism is arranged at the tail end of the cooling pushing mechanism, and is used to dissipate and recover the natural mist.

2. The atomizing device for promoting the courtship behavior of green-tailed rainbow larvae according to claim 1, characterized in that: The refrigeration component includes a refrigeration table, which is provided with a liquid storage tank. The liquid storage tank is arranged through the generation channel and is used to store liquid. After the liquid in the liquid storage tank is cooled by the refrigeration table, it cools the air in the head of the flow generation channel.

3. The atomizing device for promoting the courtship behavior of green-tailed rainbow larks according to claim 1, characterized in that: The water vapor generating component includes a heating chamber, a heating tube and a silent water pump. A steam channel is provided through the heating chamber, and the steam channel is connected to the middle of the generating channel. The heating tube is arranged in the heating chamber, and the output end of the silent water pump is arranged through the heating chamber. The silent water pump is used to inject water into the heating chamber.

4. The atomizing device for promoting the courtship behavior of green-tailed rainbow larks according to claim 3, characterized in that: A jet pipe is provided in the heating chamber, the jet pipe is communicated with the output end of the first silent water pump, and a plurality of atomizing nozzles are connected through the jet pipe.

5. The atomizing device for promoting the courtship behavior of green-tailed rainbow larvae according to claim 1, characterized in that: The breeze generating component includes an airflow channel, a docking channel and a fan. One end of the airflow channel is closed, and the fan is arranged at the other end of the airflow channel. A plurality of strip holes are opened on the peripheral wall of the airflow channel. One end of the docking channel is connected to the tail end of the generating channel, and the other end of the docking channel is sealed with the peripheral wall of the airflow channel. The plurality of strip holes are located in the docking channel.

6. The atomizing device for promoting the courtship behavior of green-tailed rainbow larks according to claim 1, characterized in that: The cooling and pushing mechanism includes a first silent air pump, a refrigeration pipe, a tee pipe and two insulation pipes. The refrigeration pipe is arranged in a wave shape in the refrigeration assembly. One end of the refrigeration pipe is connected to the output end of the first silent air pump, and the other end of the refrigeration pipe is connected to the first interface of the tee pipe. One end of the two insulation pipes is closed, and the other ends of the two insulation pipes are respectively connected to the second interface and the third interface of the tee pipe. A plurality of first flat nozzles are connected on the insulation pipe, and the first flat nozzles are inclined. The two insulation pipes are used to be arranged on the two side edges of the green-tailed rainbow fry breeding cage.

7. The atomizing device for promoting the courtship behavior of green-tailed rainbow larvae according to claim 6, characterized in that: A diverter hood is provided in the generation channel, which is located between the refrigeration component and the water vapor generation component. The input end of the first silent air pump is connected to the diverter hood, which is used to divert the air with increased humidity in the generation channel.

8. The atomizing device for promoting the courtship behavior of green-tailed rainbow larvae according to claim 6, characterized in that: The insulation pipe is connected with a plurality of insulation branches, the ends of the insulation branches are connected with a second flat nozzle, the second flat nozzle is connected to the camouflage object, and the insulation branches of the two insulation pipes are staggered.

9. The atomizing device for promoting the courtship behavior of green-tailed rainbow larks according to claim 3, characterized in that: The natural mist recovery mechanism includes a collecting tank, a second silent air pump, a heat conduction pipe and a flow guide pipe. The collecting tank is provided with a collecting cover, the flow guide pipe is mounted in the collecting cover, and a plurality of blowing nozzles are connected to the flow guide pipe. The blowing nozzles are arranged toward the collecting tank. One end of the flow guide pipe is closed, and the other end of the flow guide pipe is connected to the tail end of the heat conduction pipe through the first insulation pipe. The heat conduction pipe is arranged in a wavy shape in the heating chamber, and the head end of the heat conduction pipe is connected to the output end of the second silent air pump.

10. The atomizing device for promoting the courtship behavior of green-tailed rainbow larvae according to claim 9, characterized in that: The collecting tank is used to store the water injected into the heating chamber. A heat conducting plate is provided in the collecting tank. A filter plate is connected to the top of the collecting tank. A second insulation pipe is provided between the output end of the silent water pump and the heating chamber. The input end of the silent water pump is connected to the bottom of the collecting tank.

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