Temperature control machine based on hatching equipment

Abstract

The application discloses a temperature control machine based on hatching equipment, and relates to the technical field of temperature control machines, comprising a machine body, a heat conduction liquid storage frame, a centrifugal pressure coupling wall-attaching effect uniform flow liquid sending structure, a pressure increasing frame, a heat conduction liquid storage frame, a centrifugal impeller, a pressure increasing frame, a wall-attaching effect, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, an accelerating cylinder, and an accelerating cylinder.

Description

Technical Field

[0001] This invention relates to the field of temperature control technology, and in particular to a temperature control device for use in incubation equipment. Background Technology

[0002] In large-scale livestock and poultry farming, egg incubation is a core production process, and the temperature stability of the incubation environment directly determines the quality of embryo development and the survival rate. As a centralized incubation facility, the incubation room needs to maintain a narrow and constant temperature range throughout the year. Continuous heating is required in winter, and heat dissipation and cooling are necessary in summer. This places extremely high demands on the stability, energy efficiency, and reliability of the temperature control system, requiring the use of specialized temperature controllers to ensure a suitable temperature during the incubation process.

[0003] Existing temperature control devices used in incubation rooms still have significant shortcomings: Firstly, the heat transfer liquid delivery structure of the temperature controller has limited output power, resulting in a slow liquid output flow rate and a lagging heat exchange response. This makes it difficult to quickly and evenly deliver the constant-temperature heat transfer liquid to all areas of the incubation room, easily causing excessive local temperature differences within the incubation space. This, in turn, leads to uneven embryo development, increased embryo mortality, and difficulty in ensuring incubation quality. Secondly, to meet the temperature uniformity requirements of the incubation room, existing technologies typically require multiple temperature controllers to operate in coordination. This not only significantly increases equipment procurement and daily maintenance costs but also adds complexity to system management. Furthermore, asynchronous temperature control among multiple devices can further exacerbate temperature fluctuations, making it unsuitable for large-scale, high-standard incubation production needs. Summary of the Invention

[0004] In order to overcome the above-mentioned defects in the prior art, the present invention provides a temperature controller for incubation equipment.

[0005] The technical solution adopted by this invention to solve its technical problem is as follows: a temperature controller for incubation equipment, including a protective frame and a temperature control component. The temperature control component is installed and fixed inside the protective frame. The temperature control component includes a temperature control mechanism, an acceleration mechanism, a flow controller, and a shut-off valve. The temperature control mechanism is installed and fixed inside the protective frame, the acceleration mechanism is installed and fixed on the temperature control mechanism, and the flow controller is installed and fixed at the end of the acceleration mechanism. Two of each of the acceleration mechanism, flow controller, and shut-off valve are provided. The two shut-off valves are used for liquid return and liquid delivery, respectively. The acceleration mechanism includes an acceleration cylinder, a pressure boosting frame, and a pressure boosting component. The center of the pressure boosting frame coincides with that of the acceleration cylinder. The acceleration cylinder and the pressure boosting frame are fitted with a clearance. The inner end of the pressure boosting frame has an arc-shaped structure, and an arc-shaped groove is opened on the inner wall of the pressure boosting frame, which allows the liquid to form an adhesion effect from the arc-shaped groove and be pressurized and ejected.

[0006] Further, one end of the acceleration cylinder is fixedly connected with an aggregation frame, and one end of the aggregation frame is fixedly connected with a stop valve for sending liquid through a pipeline.

[0007] Further, the other end of the acceleration cylinder is fixedly connected with a storage frame through a pipeline, and one end of the storage frame is fixedly connected with a stop valve for returning liquid through a pipeline.

[0008] Further, the pressure device comprises a liquid inlet frame, a sealing rotating frame and a centrifugal impeller, the liquid inlet frame penetrates the outer wall of the acceleration cylinder and communicates with the pressure boosting frame, the other end of the liquid inlet frame is fixedly connected with the sealing rotating frame, and the centrifugal impeller is rotationally connected with the sealing rotating frame.

[0009] Further, the pressure device further comprises a liquid sending pipe and a rotating motor, the lower end of the liquid sending pipe is fixedly connected with the sealing rotating frame, the output end of the rotating motor is fixedly connected with the centrifugal impeller through a key, the rotating motor is fixedly connected with the storage frame, the upper end of the liquid sending pipe is fixedly connected with the storage frame, and the other storage frame is fixedly connected with the upper end of the liquid sending pipe.

[0010] Further, the flow controller comprises a pressure block, a matching block, a liquid inlet device and a reset device, the pressure block is fixedly connected with the matching block, the diameter of the matching block is smaller than that of the pressure block, so that the water pressure can drive the pressure block to move, and an arc chamfer is arranged at the connection position of the pressure block and the matching block.

[0011] Further, the liquid inlet device comprises a control frame, a control plate and a pull rod, the control plates are fixedly connected through connecting rods, one end of the control frame is in an arc structure, the control plates are slidingly connected with one end of the control frame, and the pull rod is slidingly connected with the acceleration cylinder through a limiting sliding frame.

[0012] Further, the reset device comprises a positioning sliding frame, a rebound spring and a positioning block, two positioning sliding frames and rebound springs are arranged, one end of the rebound spring is fixedly connected with one end of the positioning sliding frame, the other ends of the two rebound springs are fixedly connected with the positioning block and the liquid inlet frame, the positioning sliding frame is slidingly connected with the positioning block and the liquid inlet frame, the positioning block is fixedly connected with the inner wall of the acceleration cylinder, the positioning sliding frame is slidingly connected with the pressure boosting frame and the acceleration cylinder, and the end of the positioning sliding frame is fixedly connected with the end of the matching block.

[0013] Further, the temperature control mechanism comprises a compressor, a high-efficiency tank heat exchanger, an oil-gas separator, a heat dissipation assembly, a fin heat exchanger and an electric control box, the compressor, the high-efficiency tank heat exchanger, the oil-gas separator and the fin heat exchanger are fixedly connected through pipelines, and the compressor, the high-efficiency tank heat exchanger, the oil-gas separator, the heat dissipation assembly, the fin heat exchanger and the electric control box are all fixedly installed on the protective frame, and the high-efficiency tank heat exchanger is connected with another storage frame and another aggregation frame through pipelines at two ends, so that the liquid can be precisely temperature-controlled, heated and cooled.

[0014] Further, the four-way valve and the electronic expansion valve are installed between the compressor, the high-efficiency tank heat exchanger and the fin heat exchanger, the four-way valve can control the flow direction of the refrigerant, and the switching between the refrigeration and heating working conditions is realized.

[0015] The beneficial effects of the present application are: 1. The design scheme of the present application adopts the uniform flow liquid sending structure coupled with centrifugal pressure and wall adhesion effect, the heat-conducting liquid is divided into two parts by the storage frame, then is preliminarily pressurized by the centrifugal impeller and sent to the pressure stabilization aggregation frame, the pressurized liquid generates wall adhesion effect on the arc wall surface of the pressure stabilization frame, is uniformly and stably output at high speed along the inner wall of the accelerating cylinder, and at the same time, the surrounding liquid is sucked and collected into the aggregation frame, so that the output flow is doubled and the conveying efficiency is improved. The structure not only effectively solves the defects of slow output flow speed and slow response of the traditional temperature control machine, but also can quickly complete the temperature regulation and temperature fluctuation suppression of the incubation space, and can form a large flow, low pulsation and uniform constant temperature liquid flow, which can significantly improve the uniform temperature coverage range of a single temperature control machine, reduce the number of supporting temperature control equipment, effectively reduce the local temperature difference of the incubation area, reduce the equipment procurement and operation cost, improve the uniformity of embryo development, reduce the embryo mortality rate, and adapt to the production demand of large-scale high-standard incubation.

[0016] 2. The design scheme of the present application is configured with a centrifugal driving unit with adjustable rotating speed and a flow self-adaptive adjusting assembly linked with liquid force, the liquid output speed can be changed by adjusting the rotating speed of the rotating motor, and the control plate is driven by the liquid impact force to automatically open the bypass liquid inlet groove to supplement the low-speed liquid, so that the liquid flow and the heat exchange intensity can be quickly matched according to the incubation temperature deviation, the temperature can be accurately and dynamically regulated, the temperature fluctuation range of the incubation environment can be effectively narrowed, and the strict requirement of narrow constant temperature for egg incubation can be met.

[0017] 3、The design scheme of the present application is based on a cold and warm integrated temperature control mechanism of a vapor compression heat pump cycle, and only by controlling the four-way valve to switch the refrigerant flow direction through the electric control box, the heating and temperature rising and the refrigeration and temperature lowering working conditions can be seamlessly switched, and two sets of systems of electric heating and refrigeration are not needed to be independently configured, the system integration is greatly improved, and the equipment investment cost is reduced; at the same time, the heat pump heating energy efficiency ratio is significantly better than that of the traditional resistance electric heating, and high-efficiency constant temperature regulation and control can be realized by cooperating with the closed heat-conducting liquid circulation loop, the long-term operation energy consumption is effectively reduced, and the economic benefits and operation reliability of large-scale incubation production are improved. BRIEF DESCRIPTION OF DRAWINGS

[0018] The present application will be further described below in combination with the drawings and examples.

[0019] Figure 1 It is a three-dimensional structure schematic diagram of the present application; Figure 2 It is an internal structure schematic diagram of the protective frame of the present application; Figure 3 It is a compressor and high-efficiency tank heat exchanger cooperation structure schematic diagram of the present application; Figure 4 It is an electric control box and protective frame connection schematic diagram of the present application; Figure 5 It is a compressor and oil-gas separator connection schematic diagram of the present application; Figure 6 It is a fin heat exchanger structure schematic diagram of the present application; Figure 7 It is an accelerating mechanism and stop valve cooperation schematic diagram of the present application; Figure 8 It is an aggregation frame structure schematic diagram of the present application; Figure 9 It is an accelerating cylinder internal structure schematic diagram of the present application; Figure 10 It is a sealed rotating frame and centrifugal impeller split structure schematic diagram of the present application; Figure 11 It is an internal structure schematic diagram of the pressure boosting frame of the present application; Figure 12 It is a pressure boosting frame and pressure boosting block cooperation structure schematic diagram of the present application; Figure 13 It is a control frame and control board cooperation structure schematic diagram of the present application.

[0020] In the figure: 1, protection frame; 2, temperature control mechanism; 21, compressor; 22, high-efficiency tank heat exchanger; 23, oil-gas separator; 24, heat dissipation assembly; 25, fin heat exchanger; 26, electric control box; 27, four-way valve; 28, electronic expansion valve; 3, acceleration mechanism; 31, acceleration cylinder; 32, pressure-increasing frame; 33, pressure-increasing piece; 331, liquid inlet frame; 332, sealing rotating frame; 333, centrifugal impeller; 334, liquid delivery pipe; 335, rotating motor; 34, gathering frame; 35, storage frame; 4, flow controller; 41, pressure-increasing block; 42, matching block; 43, liquid inlet piece; 431, control frame; 432, control plate; 433, pull rod; 44, reset piece; 441, positioning sliding frame; 442, rebound spring; 443, positioning block; 5, stop valve. DETAILED DESCRIPTION

[0021] In order to more clearly illustrate the technical solutions of the present application, the present application will be further described below in conjunction with the accompanying drawings. Obviously, the drawings described below are only an embodiment of the present application, and for those skilled in the art, other embodiments can be obtained according to the drawings and the embodiment without paying any creative labor, which all belong to the protection scope of the present application.

[0022] According to Figures 1 to 13As shown, a temperature control machine based on hatching equipment, comprising a protective frame 1, further comprising a temperature control assembly, the temperature control assembly is installed and fixed inside the protective frame 1, the temperature control assembly comprises a temperature control mechanism 2, an acceleration mechanism 3, a flow controller 4 and a stop valve 5, the temperature control mechanism 2 is installed and fixed inside the protective frame 1, the acceleration mechanism 3 is installed and fixed on the temperature control mechanism 2, the flow controller 4 is installed and fixed on the end of the acceleration mechanism 3, the acceleration mechanism 3, the flow controller 4 and the stop valve 5 are all provided with two, two stop valves 5 are respectively used for returning liquid and sending liquid; the acceleration mechanism 3 comprises an acceleration cylinder 31, a pressure boosting frame 32 and a pressure boosting piece 33, the pressure boosting frame 32 is coaxial with the acceleration cylinder 31, the acceleration cylinder 31 is gap fitted with the pressure boosting frame 32, the inner end of the pressure boosting frame 32 is arc-shaped structure, and the inner wall of the pressure boosting frame 32 is provided with an arc-shaped groove, one end of the acceleration cylinder 31 is connected and fixed with an aggregation frame 34, one aggregation frame 34 is connected and fixed with the stop valve 5 for sending liquid through a pipeline, the other end of the acceleration cylinder 31 is connected and fixed with a storage frame 35 through a pipeline, one storage frame 35 is connected and fixed with the stop valve 5 for returning liquid through a pipeline, the acceleration cylinder 31 is connected and fixed with the storage frame 35 through a pipeline, the pressure boosting piece 33 comprises a liquid inlet frame 331, a sealing rotating frame 332 and a centrifugal impeller 333, the liquid inlet frame 331 penetrates through the outer wall of the acceleration cylinder 31 and communicates with the pressure boosting frame 32, the other end of the liquid inlet frame 331 is connected and fixed with the sealing rotating frame 332, the centrifugal impeller 333 is rotatably connected with the sealing rotating frame 332, the pressure boosting piece 33 further comprises a liquid sending pipe 334 and a rotating motor 335, the lower end of the liquid sending pipe 334 is connected and fixed with the sealing rotating frame 332, the output end of the rotating motor 335 is connected and fixed with the centrifugal impeller 333 through a key, the rotating motor 335 is connected and fixed with the storage frame 35, the upper end of the liquid sending pipe 334 is connected and fixed with the storage frame 35, the other storage frame 35 is connected and fixed with the upper end of the liquid sending pipe 334.

[0023] In this embodiment, the heat-conducting liquid enters into the storage frame 35 and flows into the acceleration cylinder 31, the sealing rotating frame 332 and the centrifugal impeller 333 respectively, the rotating motor 335 drives the centrifugal impeller 333 to pressurize the liquid and send it into the liquid inlet frame 331, and then send it out from the gap of the pressure boosting frame 32, due to the pressure and the special arc-shaped structure of the pressure boosting frame 32, these liquids will be quickly and uniformly sent into the acceleration cylinder 31 due to the wall attachment effect, these quickly flowing liquids will also drag the surrounding liquid flow due to the wall attachment effect, so that the liquid will be quickly injected into the aggregation frame 34, and then sent into the hatching equipment through the stop valve 5, so that the heat can flow into the equipment to maintain the constant temperature of the hatching equipment.

[0024] The flow controller 4 comprises a pressurizing block 41, a matching block 42, a liquid inlet piece 43 and a reset piece 44, the pressurizing block 41 is connected and fixed with the matching block 42, the diameter of the matching block 42 is smaller than that of the pressurizing block 41, an arc-shaped chamfer is arranged at the connecting position of the pressurizing block 41 and the matching block 42, the liquid inlet piece 43 comprises a control frame 431, control plates 432 and a pull rod 433, the control plates 432 are connected and fixed by connecting rods, one end of the control frame 431 is in an arc-shaped structure, the control plates 432 are slidably connected with one end of the control frame 431, the pull rod 433 is slidably connected with the accelerating cylinder 31 through a limiting sliding frame, the reset piece 44 comprises positioning sliding frames 441, rebound springs 442 and positioning blocks 443, two positioning sliding frames 441 and rebound springs 442 are arranged, one end of the rebound spring 442 is connected and fixed with one end of the positioning sliding frame 441, the other ends of the two rebound springs 442 are connected and fixed with the positioning blocks 443 and the liquid inlet frame 331, the positioning sliding frames 441 are slidably connected with the positioning blocks 443 and the liquid inlet frame 331, the positioning blocks 443 are connected and fixed with the inner wall of the accelerating cylinder 31, the positioning sliding frames 441 are slidably connected with the pressurizing frame 32 and the accelerating cylinder 31, and the ends of the positioning sliding frames 441 are connected and fixed with the ends of the matching blocks 42.

[0025] In the embodiment, the rotating motor 335 increases the rotating speed, so that the liquid sent out from the pressurizing frame 32 has an increased speed, so that the liquid impacts the pressurizing block 41 to drive the matching block 42 and the positioning sliding frame 441, the movement of the matching block 42 also drives the control plates 432 at the ends of the pull rod 433 to slide in the control frame 431, at this time, the slots on the control frame 431 are opened, so that the liquid is not only sent in from the ends of the control frame 431, but also sent in from the outer wall of the control frame 431, so that the entering amount of the liquid can be increased, so that the liquid sent out from the pressurizing frame 32 can be driven by more sufficient low-speed liquid, so that the amount of the liquid sent out from the accelerating cylinder 31 can be ensured to be sufficient, so that the liquid can flow rapidly, so that the heat can be rapidly sent into the incubation equipment, so that the temperature of each part of the incubation equipment can be uniform, and precise temperature control can be achieved.

[0026] The temperature control mechanism 2 comprises a compressor 21, a high-efficiency tank heat exchanger 22, an oil-gas separator 23, a heat dissipation assembly 24, a fin heat exchanger 25 and an electric control box 26, the compressor 21, the high-efficiency tank heat exchanger 22, the oil-gas separator 23 and the fin heat exchanger 25 are connected and fixed by pipelines, the compressor 21, the high-efficiency tank heat exchanger 22, the oil gas separator 23, the heat dissipation assembly 24, the fin heat exchanger 25 and the electric control box 26 are all mounted and fixed on the protection frame 1, the high-efficiency tank heat exchanger 22 is connected with another storage frame 35 and another gathering frame 34 through pipelines at both ends, respectively, a four-way valve 27 and an electronic expansion valve 28 are mounted between the compressor 21, the high-efficiency tank heat exchanger 22 and the fin heat exchanger 25. In the embodiment, the electric control box 26 intelligently regulates according to the incubation temperature requirement, the electric control box 26 controls the four-way valve 27 to switch the valve core position, reverses the overall flow direction of the refrigerant, and the system enters the heat pump heating working condition, the high-temperature and high-pressure gaseous refrigerant discharged by the compressor 21 is first separated from the lubricating oil through the oil-gas separator 23, and then directly sent into the refrigerant flow channel of the high-efficiency tank heat exchanger 22 through the four-way valve 27, at this time, the high-efficiency tank heat exchanger 22 acts as a condenser, and the high-temperature and high-pressure refrigerant releases a large amount of heat to the reflux heat-conducting liquid on the medium side through the heat exchange wall, so that the low-temperature liquid refluxed from the incubation equipment is heated to the set temperature; the refrigerant itself is condensed into high-pressure liquid by releasing heat; the high-pressure liquid refrigerant after condensation flows through the electronic expansion valve 28 to reduce pressure, becomes a low-temperature and low-pressure gas-liquid two-phase state, and then enters the fin heat exchanger 25, at this time, the fin heat exchanger 25 acts as an evaporator, cooperates with the heat dissipation assembly 24 to absorb heat from the ambient air, the refrigerant absorbs heat and evaporates into a gaseous state, and the low-pressure gaseous refrigerant after evaporation is guided by the four-way valve 27 and then returns to the suction end of the compressor 21 to complete a complete heating cycle, and the constant-temperature hot water heated by the high-efficiency tank heat exchanger 22 is transported to the storage frame 35 on the water outlet side, and then enters the liquid delivery process of centrifugal pressurization and wall attachment acceleration again to continuously deliver constant-temperature heat to the incubation equipment.

[0027] In use, the heat-conducting liquid first enters the inside of the storage frame 35, ensuring that the inside of the storage frame 35 is filled with two-thirds of the liquid, then part of the liquid flows into the acceleration cylinder 31 through the pipeline, and the other part flows into the sealed rotating frame 332 and the centrifugal impeller 333 through the liquid delivery pipe 334 at the end of the storage frame 35, at this time, the rotating motor 335 drives the centrifugal impeller 333 to rotate quickly to drive the liquid, then the falling liquid is pressurized by the centrifugal impeller 333 and sent into the liquid inlet frame 331, then the pressurized liquid is sent into the pressure-increasing frame 32 through the liquid inlet frame 331, then the liquid is gathered and pressurized again in the cavity inside the pressure-increasing frame 32, and the pressurized liquid is sent out from the gap of the pressure-increasing frame 32, due to the pressure and the special arc-shaped structure of the pressure-increasing frame 32, the liquid is quickly and uniformly and stably sent into the acceleration cylinder 31 due to the wall attachment effect, and the rapidly flowing liquid also drags the surrounding liquid to flow due to the wall attachment effect, so that the liquid is quickly injected into the gathering frame 34 and then sent into the incubation equipment through the stop valve 5, so that heat can flow into the equipment to maintain the constant temperature of the incubation equipment; When precise temperature adjustment is required, the rotational motor 335 speed can be controlled to increase, so that the liquid speed sent from the booster frame 32 increases, so that the liquid impacts the pressure block 41 to produce displacement, at this time the pressure block 41 drives the matching block 42 and the positioning sliding frame 441 at both ends of the matching block 42 to compress the rebound spring 442, at this time the positioning sliding frame 441 cooperates with the positioning block 443 and the liquid inlet frame 331 to slide and limit the matching block 42, at the same time the movement of the matching block 42 also drives the control plate 432 at the end of the pull rod 433 to slide in the control frame 431, at this time the groove on the control frame 431 is opened, so that the liquid not only enters from the end of the control frame 431, but also enters from the outer wall of the control frame 431, so that the amount of liquid entering can be increased, so that the liquid sent from the booster frame 32 has more sufficient low-speed liquid to drive, so that the amount of liquid sent from the acceleration cylinder 31 is sufficient, so that the liquid can flow quickly, so that heat can be quickly sent to the inside of the incubation equipment, so that the temperature consistency and precise temperature control of different parts can be avoided, after the heat of these liquids is dissipated, it will be returned from the stop valve 5 for liquid return, and then the structure inside the storage frame 35 will pressurize and send the liquid into the medium side flow channel of the high-efficiency tank heat exchanger 22 of the temperature control mechanism 2, and complete the isolated heat exchange with the working medium side. The heat exchange process is intelligently controlled by the electric control box 26 according to the incubation temperature demand, the electric control box 26 controls the four-way valve 27 to switch the valve core position, reverses the overall flow direction of the refrigerant, and the system enters the heat pump heating working condition. The high-temperature and high-pressure gaseous refrigerant discharged by the compressor 21 is first separated from the lubricating oil by the oil-gas separator 23, and then directly sent into the refrigerant flow channel of the high-efficiency tank heat exchanger 22 through the four-way valve 27. At this time, the high-efficiency tank heat exchanger 22 acts as a condenser, and the high-temperature and high-pressure refrigerant releases a large amount of heat to the backflow heat-conducting liquid on the medium side through the heat exchange wall, heating the low-temperature liquid returned from the incubation equipment to the set temperature. The refrigerant itself is cooled and condensed into high-pressure liquid. The high-pressure liquid refrigerant after condensation flows through the electronic expansion valve 28 to reduce pressure, becomes a low-temperature and low-pressure gas-liquid two-phase state, and then enters the fin heat exchanger 25. At this time, the fin heat exchanger 25 acts as an evaporator, and cooperates with the heat dissipation assembly 24 to absorb heat from the ambient air. The refrigerant absorbs heat and evaporates into a gaseous state. The low-pressure gaseous refrigerant after evaporation is guided back to the suction end of the compressor 21 through the four-way valve 27, completing a complete heating cycle. The constant-temperature hot water heated by the high-efficiency tank heat exchanger 22 is transported into the storage frame 35 on the water outlet side, and then enters the liquid sending process of centrifugal pressurization and wall acceleration again, continuously transporting constant-temperature heat to the incubation equipment. When it is necessary to reduce the temperature, cooling liquid can be output to reduce the temperature of the incubation equipment, and the incubation equipment can be precisely and quickly controlled at a constant temperature, ensuring the incubation efficiency and success rate.

[0028] The above examples are only exemplary embodiments of the present application, and are not intended to limit the present application, and the protection scope of the present application is defined by the claims. Those skilled in the art can make various modifications or equivalent replacements to the present application within the spirit and protection scope of the present application, and such modifications or equivalent replacements are also considered to fall within the protection scope of the present application.

Claims

1. A temperature control machine for incubation equipment comprising a protective frame (1), characterized in that: Also include The temperature control assembly is fixedly installed in the protection frame (1), and the temperature control assembly comprises a temperature control mechanism (2), an acceleration mechanism (3), a flow controller (4) and a stop valve (5). The temperature control mechanism (2) is fixedly installed in the protection frame (1), the acceleration mechanism (3) is fixedly installed on the temperature control mechanism (2), the flow controller (4) is fixedly installed at the end of the acceleration mechanism (3), and the acceleration mechanism (3), the flow controller (4) and the stop valve (5) are provided with two, and the two stop valves (5) are respectively used for returning liquid and sending liquid. The acceleration mechanism (3) comprises an acceleration cylinder (31), a pressure increasing frame (32) and a pressure increasing part (33), the pressure increasing frame (32) is coaxial with the acceleration cylinder (31), the acceleration cylinder (31) is in clearance fit with the pressure increasing frame (32), the inner end of the pressure increasing frame (32) is of an arc structure, and an arc-shaped groove is formed in the inner wall of the pressure increasing frame (32).

2. The temperature control machine for incubation equipment according to claim 1, characterized in that, One end of the acceleration cylinder (31) is connected with an aggregation frame (34), one end of the aggregation frame (34) is connected with the stop valve (5) for sending liquid through a pipeline.

3. The temperature control machine for incubation equipment according to claim 1, wherein The other end of the acceleration cylinder (31) is connected with a storage frame (35) through a pipeline, one of the storage frames (35) is connected with the stop valve (5) for returning liquid through a pipeline, and the acceleration cylinder (31) and the storage frame (35) are connected through a pipeline.

4. The temperature control machine for incubation equipment according to claim 3, wherein The pressure increasing part (33) comprises a liquid inlet frame (331), a sealing rotating frame (332) and a centrifugal impeller (333), the liquid inlet frame (331) penetrates through the outer wall of the acceleration cylinder (31) and communicates with the pressure increasing frame (32), the other end of the liquid inlet frame (331) is connected with the sealing rotating frame (332), and the centrifugal impeller (333) is rotationally connected with the sealing rotating frame (332).

5. The temperature control machine for incubation equipment according to claim 4, wherein The pressure increasing part (33) further comprises a liquid sending pipe (334) and a rotating motor (335), the lower end of the liquid sending pipe (334) is connected with the sealing rotating frame (332), the output end of the rotating motor (335) is connected with the centrifugal impeller (333) through a key, the rotating motor (335) is connected with the storage frame (35), the upper end of the liquid sending pipe (334) is connected with the storage frame (35), and the other storage frame (35) is connected with the upper end of the liquid sending pipe (334).

6. The temperature control machine based on hatching equipment according to claim 1, characterized in that, The flow controller (4) comprises a pressure block (41), a matching block (42), a liquid inlet part (43) and a reset part (44), the pressure block (41) is connected with the matching block (42), the diameter of the matching block (42) is smaller than that of the pressure block (41), and an arc-shaped chamfer is formed at the connection position of the pressure block (41) and the matching block (42).

7. The temperature control machine for incubation equipment according to claim 6, wherein The liquid inlet part (43) comprises a control frame (431), a control plate (432) and a pull rod (433), the control plates (432) are connected and fixed through connecting rods, one end of the control frame (431) is of an arc structure, the control plates (432) are slidably connected with one end of the control frame (431), and the pull rod (433) is slidably connected with the acceleration cylinder (31) through a limiting sliding frame.

8. The temperature control machine for incubation equipment according to claim 7, characterized in that, The reset member (44) comprises a positioning sliding frame (441), a rebound spring (442) and a positioning block (443), the positioning sliding frame (441) and the rebound spring (442) are provided with two, one end of the rebound spring (442) is connected and fixed with one end of the positioning sliding frame (441), the other end of the two rebound springs (442) is connected and fixed with the positioning block (443) and the liquid inlet frame (331), the positioning sliding frame (441) is connected and fixed with the positioning block (443) and the liquid inlet frame (331), the positioning block (443) is connected and fixed with the inner wall of the accelerating cylinder (31), the positioning sliding frame (441) is connected and fixed with the end of the matching block (42).

9. The temperature control machine based on hatching equipment according to claim 1, characterized in that, The temperature control mechanism (2) comprises a compressor (21), an efficient tank heat exchanger (22), an oil-gas separator (23), a heat dissipation assembly (24), a fin heat exchanger (25) and an electric control box (26), the compressor (21), the efficient tank heat exchanger (22), the oil-gas separator (23) and the fin heat exchanger (25) are connected and fixed through pipelines, the compressor (21), the efficient tank heat exchanger (22), the oil-gas separator (23), the heat dissipation assembly (24), the fin heat exchanger (25) and the electric control box (26) are all mounted on the protection frame (1), and the two ends of the efficient tank heat exchanger (22) are connected with another storage frame (35) and another gathering frame (34) through pipelines.

10. The temperature control machine for incubation equipment according to claim 9, wherein The compressor (21), the efficient tank heat exchanger (22) and the fin heat exchanger (25) are provided with a four-way valve (27) and an electronic expansion valve (28).

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