A temperature-controlled house for raising silkworms

Abstract

The present invention relates to the technical field of greenhouses, and specifically relates to a temperature-controlled room for raising silkworms, which includes a silkworm-raising room. The upper temperature bin and the lower temperature bin are symmetrically assembled above and below the silkworm-raising room. The upper moving assembly and the lower moving assembly are symmetrically arranged inside the upper temperature bin and the lower temperature bin respectively. A driving structure is assembled at the rear side of the silkworm-raising room. The upper moving assembly includes an upper screw rod, and an upper rear moving frame and an upper front moving frame are respectively threadedly assembled at the front and rear ends of the upper screw rod. The lower moving assembly includes a lower screw rod, and a lower rear moving frame and a lower front moving frame are respectively threadedly assembled at the front and rear ends of the lower screw rod. Heat transfer components are fixedly arranged at the bottom of the upper rear moving frame, the bottom of the upper front moving frame, the top of the lower rear moving frame, and the top of the lower front moving frame. Through the heat generation of the heat transfer components, and then with the cooperation of the upper moving assembly and the lower moving assembly, supplemented by a blowing fan for purging and heat distribution, and at the same time, accelerated circulation is carried out through the air blowing assembly, so that the temperature distribution is more uniform and convenient, and the operation and use are more convenient.

Description

Technical Field

[0001] The invention relates to the technical field of greenhouses, in particular to a temperature-controlled room for silkworm breeding. Background Art

[0002] With the development trend of large-scale and industrialized sericulture, the requirements for the output and quality of silk cocoons are increasing. As an ancient and important agricultural industry, sericulture has an irreplaceable position in the fields of silk production. However, the traditional way of sericulture is greatly affected by natural environmental factors. Silkworms have relatively strict requirements on environmental temperature at different stages of growth and development. For example, the suitable temperature during the silkworm period is generally 25℃ - 28℃, while during the cocoon formation period, a slight fluctuation in the temperature range may affect the quality and yield of the cocoons. Under natural conditions, factors such as the temperature difference between day and night, seasonal changes, and extreme weather make it difficult to keep the temperature of the silkworm room in the optimal range for silkworm growth. A stable and suitable temperature environment in the silkworm room has become one of the key factors to improve the benefits of sericulture, so a temperature control room is needed to assist;

[0003] In this regard, China's patent application number: CN202010512896.7 discloses a control system for a loose tea flowering drying room with intelligent temperature control. The control system is matched with the flowering area in the flowering drying room. The control system includes a first detection unit, a second detection unit, a heater, and a power adjustment unit matched with the flowering area. The power adjustment unit is connected to the heater signal to adjust the output power of the heater to control the processing temperature in the flowering area; the first detection unit includes a temperature sensor and a humidity sensor to detect the internal temperature and humidity of the loose tea during the flowering process; the second detection unit is used to collect the loose tea and take pictures of the collected loose tea, and transmit the taken loose tea image to the central processor, which combines the temperature data and humidity data and analyzes the loose tea image to determine the flowering state of the loose tea, and intelligently control the processing temperature according to the flowering state;

[0004] However, it is inconvenient to move the auxiliary heating to evenly distribute the temperature according to the use needs of the existing hothouse, which affects the use and operation efficiency;

[0005] Therefore, in order to solve the above problems, a temperature-controlled room for silkworm breeding is proposed. Summary of the invention

[0006] The object of the present invention is to provide a temperature-controlled room for silkworm rearing, so as to solve the problem in the above-mentioned background technology that the existing greenhouses are inconvenient to carry out auxiliary heating and movement for balanced temperature distribution according to the use needs, thus affecting the use and operation efficiency.

[0007] To achieve the above object, the present invention provides the following technical solution: a temperature-controlled room for raising silkworms, including a silkworm-raising room, an upper temperature bin and a lower temperature bin are symmetrically assembled up and down in the silkworm-raising room. Corresponding upper moving components and lower moving components are symmetrically arranged inside the upper temperature bin and the lower temperature bin respectively. A driving structure is assembled at the rear side of the silkworm-raising room. The upper moving component includes an upper screw rod, and an upper rear moving frame and an upper front moving frame are respectively threadedly assembled at the front and rear ends of the upper screw rod. The lower moving component includes a lower screw rod, and a lower rear moving frame and a lower front moving frame are respectively threadedly assembled at the front and rear ends of the lower screw rod. The driving structure consists of a servo motor, the servo motor is connected and driven to the rear end of the lower screw rod through a coupling. A corresponding driving wheel and a driven wheel are respectively fixed to the rear end of the lower screw rod and the rear end of the upper screw rod, and the driving wheel and the driven wheel are sleeved and connected through a transmission belt for driving. Heat transfer components are fixedly arranged at the bottom of the upper rear moving frame, the bottom of the upper front moving frame, the top of the lower rear moving frame and the top of the lower front moving frame;

[0008] With the cooperation of the above means, it is convenient to move, convey and blow heat, so that the heat distribution inside is more uniform, which is convenient for raising silkworms.

[0009] As a further improvement of this solution, a blowing component is supported and assembled at the rear side of the silkworm-raising room. The blowing component consists of a blower. The blower is connected and assembled with a three-way pipe through a blowing pipe. The upper end of the three-way pipe is connected and communicated with the inside of the upper temperature bin through an upper air pipe, and the lower end of the three-way pipe is connected and communicated with the inside of the lower temperature bin through a lower air pipe;

[0010] With the cooperation of the above means, it is convenient to blow air into the upper temperature bin and the lower temperature bin, making the ventilation and blowing more convenient and facilitating the acceleration of air flow.

[0011] As a further improvement of this solution, the upper temperature bin consists of an upper outer shell on the surrounding sides and an upper cover plate on the top. An upper grille plate is suspended at the bottom of the upper outer shell. The lower temperature bin consists of a lower outer shell on the surrounding sides and a lower sealing plate on the bottom. A lower grille plate is supported and assembled at the top of the lower outer shell. Support columns are supported and assembled at the four corners of the upper temperature bin and the lower temperature bin, and both the upper grille plate and the lower grille plate are provided with hollow settings;

[0012] With the cooperation of the above means, it is convenient for the assembly, air ventilation and heat dissipation of the upper temperature bin and the lower temperature bin, making the operation and use more convenient.

[0013] As a further improvement of this solution, air inlet docking ports corresponding to the upper air pipe and the lower air pipe are respectively opened on the left rear sides of the upper temperature bin and the lower temperature bin. Air outlet docking ports corresponding to the air inlet docking ports are respectively opened on the right rear sides of the upper temperature bin and the lower temperature bin, and a sealing cover is sleeved outside the air outlet docking port;

[0014] With the cooperation of the above means, it is convenient to cooperate with the upper temperature bin and the lower temperature bin for air flow, making the use more convenient and efficient.

[0015] As a further improvement of this solution, a blowing fan is supported and assembled at the top inside the upper temperature storage bin, and a blowing fan is also supported and assembled at the bottom inside the lower temperature storage bin;

[0016] With the cooperation of the above means, it is convenient to assist the upper temperature storage bin and the lower temperature storage bin to actively purge the heat inside the silkworm rearing room, making the operation more convenient and facilitating the auxiliary temperature distribution.

[0017] As a further improvement of this solution, upper pedestal bearings are supported and assembled in the middle and on the front and rear sides of the upper screw rod and the lower screw rod, and the threads at both ends on the front and rear sides of the upper screw rod and the lower screw rod are symmetrically and oppositely arranged. Moving nuts corresponding to the upper screw rod are fixedly installed on the surfaces of the upper rear moving frame and the upper front moving frame, and the lower rear moving frame and the lower front moving frame are also assembled in the same way with the lower screw rod;

[0018] With the cooperation of the above means, when rotating, it is convenient to push the upper front moving frame and the upper rear moving frame to move in the opposite direction. When continuously rotating forward and backward, it makes them reciprocate and approach. Similarly, it is also convenient to cooperate with the lower rear moving frame and the lower front moving frame for auxiliary movement, making the operation more convenient.

[0019] As a further improvement of this solution, the same upper sliding sleeves are fixedly installed at both ends on the sides of the upper rear moving frame and the upper front moving frame. The upper sliding rods are inserted through the inside of the upper sliding sleeves, and upper columns are supported and assembled at both ends of the upper sliding rods. The lower rear moving frame and the upper front moving frame are also arranged in the same way at both ends;

[0020] With the cooperation of the above means, it is convenient to assist in limiting the positions of the upper front moving frame, the upper rear moving frame, the lower rear moving frame and the lower front moving frame during the movement and sliding, making the movement more stable and convenient.

[0021] As a further improvement of this solution, the heat transfer component includes a heat storage bin. The outer wall of the heat storage bin is arc-shaped, and a heating wire is assembled inside the heat storage bin. Heat outlet openings are evenly formed on the outer wall of the heat storage bin;

[0022] With the cooperation of the above means, it is convenient to assist in heating and heat dissipation, and it is convenient to increase the temperature as needed.

[0023] As a further improvement of this solution, assembly columns are erected at the four corners of the silkworm rearing room. The upper and lower ends of the assembly columns are respectively supported on the lower part of the upper temperature storage bin and the upper part of the lower temperature storage bin. Outer vertical plates are supported and assembled on the left, right and rear sides of the assembly columns, and corresponding inner vertical plates are supported and assembled inside the assembly columns on the left, right and rear sides. Temperature measuring components are evenly assembled on the inner walls of the inner vertical plates. A distribution box and a control panel electrically connected to the temperature measuring components are assembled on the right side of the silkworm rearing room. The distribution box and the control panel are also electrically connected to the drive structure and the heat transfer component;

[0024] With the cooperation of the above means, it is convenient to assist in partitioning the interior of the silkworm-raising house, facilitating the formation of a relatively heat-insulated space. Subsequently, it is convenient to monitor through the temperature-measuring component and operate and control through the distribution box and the control panel.

[0025] As a further improvement of this solution, a front shutter is hinged to the front side of the silkworm-raising house through a rotating shaft. Tempered glass is assembled inside the front shutter. A limiting threshold corresponding to the front shutter is supported and assembled on the inner wall of the front side of the silkworm-raising house, and a corresponding magnetic lock is fixedly installed on the upper inner arm of the front shutter.

[0026] With the cooperation of the above means, it is convenient to open and close the interior of the silkworm-raising house, and it does not prevent observing the internal situation during use.

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

[0028] 1. By setting the upper temperature chamber and the lower temperature chamber, during assembly and use, it is convenient to supply heat to the interior of the silkworm-raising house according to the usage needs, so as to ensure the balance of the internal temperature, making the use operation more convenient and efficient. And with the cooperation of the assembled columns, outer vertical plates and inner vertical plates, it is convenient to disassemble and assemble according to the usage needs. With the double assembly of the outer vertical plate and the inner vertical plate, it is convenient to form a corresponding isolated heat-insulated inner cavity, which is convenient for silkworm raising. Through this design, it is beneficial to the assembly and use of the temperature control house for silkworm raising.

[0029] 2. By setting the upward movement component inside the upper temperature chamber and the downward movement component inside the lower temperature chamber, and then with the assembly of the heat transfer component, and at the same time driven by the driving structure, the upward movement component and the downward movement component push and pull the heat transfer component to generate heat by assisting heat generation. After moving, with the cooperation of the blowing fan, it is convenient to assist in blowing air, so that the heat can easily enter the interior of the silkworm-raising house. With the setting of the temperature-measuring component, the distribution box and the control panel, it is convenient to monitor the temperature in real time according to the usage needs, making the use more stable. Through this design, it is beneficial to the assembly and use of the temperature control house for silkworm raising.

[0030] 3. While designing the above structure, by setting the air blowing component, under the blowing of the blower, through the three-way pipe, it is convenient to blow air into the upper temperature chamber and the lower temperature chamber with the cooperation of the upper air duct and the lower air duct, facilitating the formation of corresponding air flow inside the silkworm-raising house in cooperation with the blowing fan and the heat transfer component, making the temperature adjustment more convenient and efficient. Through this design, it is beneficial to the assembly and use of the temperature control house for silkworm raising. Description of the Drawings

[0031] To more clearly illustrate the technical solutions in the embodiments of the present invention or the prior art, the following will briefly introduce the accompanying drawings required in the description of the embodiments or the prior art. Obviously, the accompanying drawings in the following description are only some embodiments of the present invention. For those of ordinary skill in the art, without creative efforts, other accompanying drawings can be obtained based on these drawings.

[0032] Figure 1 It is a schematic three-dimensional side sectional view of the structure of the present invention;

[0033] Figure 2 It is a schematic three-dimensional front view of the partial structure of the driving structure of the present invention;

[0034] Figure 3 It is a schematic three-dimensional side view of the overall structure of the present invention;

[0035] Figure 4 It is a schematic three-dimensional rear view of the overall structure of the present invention;

[0036] Figure 5 It is a schematic three-dimensional front view of the overall structure when the present invention is opened;

[0037] Figure 6 It is a schematic three-dimensional top sectional view of the present invention;

[0038] Figure 7 It is a schematic three-dimensional top view of the partial structure of the upper temperature bin of the present invention;

[0039] Figure 8 It is a schematic three-dimensional top view of the partial structure of the upper moving component of the present invention;

[0040] Figure 9 For the present invention Figure 1 The enlarged schematic view of the structure at A in the middle.

[0041] In the figure: 100, sericulture house; 101, assembly column; 102, outer vertical plate; 103, inner vertical plate; 104, front door; 105, tempered glass; 106, rotating shaft; 107, magnetic lock; 108, limit threshold; 110, upper temperature storage bin; 111, upper outer shell; 112, upper cover plate; 113, upper grille plate; 114, support column; 120, lower temperature storage bin; 121, lower outer shell; 122, lower sealing plate; 123, lower grille plate; 130, temperature measurement component; 140, distribution box and control panel; 200, upward movement component; 210, upper screw rod; 211, upper pedestal bearing; 220, upper rear movement frame; 221, moving nut; 230, upper front movement frame; 240, upper slide bar; 241, upper slide sleeve; 242, upper column; 300, downward movement component; 310, lower screw rod; 320, lower rear movement frame; 330, lower front movement frame; 400, drive structure; 410, servo motor; 411, coupling; 420, driving wheel; 421, transmission belt; 430, driven wheel; 500, heat transfer component; 510, heat storage bin; 511, heat outlet; 520, heating wire; 600, air blowing component; 610, blower; 611, air blowing pipe; 620, tee; 621, upper air pipe; 622, lower air pipe; 630, air inlet docking port; 640, air outlet docking port; 641, sealing cover; 700, blowing fan. Detailed implementation manners

[0042] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings in the embodiments of the present invention. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present invention.

[0043] Please refer to Figures 1 - 9, an embodiment provided by the present invention: a temperature-controlled room for raising silkworms, including a silkworm-raising room 100, an upper temperature bin 110 and a lower temperature bin 120 are symmetrically assembled up and down in the silkworm-raising room 100, corresponding upper moving components 200 and lower moving components 300 are symmetrically arranged inside the upper temperature bin 110 and the lower temperature bin 120 respectively, a driving structure 400 is assembled at the rear side of the silkworm-raising room 100, the upper moving component 200 includes an upper screw rod 210, an upper rear moving frame 220 and an upper front moving frame 230 are respectively threadedly assembled at the front and rear ends of the upper screw rod 210, the lower moving component 300 includes a lower screw rod 310, a lower rear moving frame 320 and a lower front moving frame 330 are respectively threadedly assembled at the front and rear ends of the lower screw rod 310, the driving structure 400 is composed of a servo motor 410, the servo motor 410 is connected and driven to the rear end of the lower screw rod 310 through a coupling 411, a corresponding driving wheel 420 and a driven wheel 430 are respectively fixed at the rear end of the lower screw rod 310 and the rear end of the upper screw rod 210, and the driving wheel 420 and the driven wheel 430 are sleeved and connected through a transmission belt 421 for driving, heat transfer components 500 are fixedly arranged at the bottom of the upper rear moving frame 220, the bottom of the upper front moving frame 230, the top of the lower rear moving frame 320 and the top of the lower front moving frame 330;

[0044] More specifically, in this embodiment, a blowing component 600 is supported and assembled at the rear side of the silkworm-raising room 100. The blowing component 600 is composed of a blower 610. The blower 610 is connected and assembled with a three-way pipe 620 through a blowing pipe 611. The upper end of the three-way pipe 620 is connected and communicated with the inside of the upper temperature bin 110 through an upper air pipe 621, and the lower end of the three-way pipe 620 is connected and communicated with the inside of the lower temperature bin 120 through a lower air pipe 622. Thus, during use, it is convenient to blow air through the blower 610, and then, with the cooperation of the three-way pipe 620, blow air into the upper temperature bin 110 and the lower temperature bin 120 through the upper air pipe 621 and the lower air pipe 622, making the use operation more convenient;

[0045] More specifically, in this embodiment, the upper temperature bin 110 is composed of an upper outer shell 111 on the surrounding sides and an upper cover plate 112 on the top. An upper grid plate 113 is suspended at the bottom of the upper outer shell 111. The lower temperature bin 120 is composed of a lower outer shell 121 on the surrounding sides and a lower sealing plate 122 on the bottom. A lower grid plate 123 is supported and assembled at the top of the lower outer shell 121. Support columns 114 are supported and assembled at the four corners of the upper temperature bin 110 and the lower temperature bin 120, and both the upper grid plate 113 and the lower grid plate 123 are provided with hollow openings. Thus, during use, it is convenient for the support and assembly of the upper temperature bin 110 and the lower temperature bin 120 and their subsequent stable use;

[0046] More specifically in this embodiment, air inlet mating interfaces 630 corresponding to the upper air duct 621 and the lower air duct 622 are provided on the left rear sides of the upper temperature storage bin 110 and the lower temperature storage bin 120, air outlet mating interfaces 640 corresponding to the air inlet mating interfaces 630 are provided on the right rear sides of the upper temperature storage bin 110 and the lower temperature storage bin 120, and a sealing cover 641 is sleeved outside the air outlet mating interfaces 640. In this way, during use, it is convenient to cooperate with the blower 610 and the tee pipe 620 to blow air into the interior, making the use more convenient;

[0047] More specifically in this embodiment, a blowing fan 700 is supported and assembled on the inner top of the upper temperature storage bin 110, and a blowing fan 700 is also supported and assembled on the inner bottom of the lower temperature storage bin 120. In this way, during use, it is convenient to perform auxiliary blowing and sweeping through the blowing fan 700, making the operation and use more convenient;

[0048] More specifically in this embodiment, upper pedestal bearings 211 are supported and assembled in the middle and front and rear sides of the upper screw rod 210 and the lower screw rod 310, and the threads at the front and rear ends of the upper screw rod 210 and the lower screw rod 310 are symmetrically and oppositely arranged. Moving nuts 221 corresponding to the upper screw rod 210 are fixedly provided on the surfaces of the upper rearward moving frame 220 and the upper forward moving frame 230, and the lower rearward moving frame 320 and the lower forward moving frame 330 are also assembled with the lower screw rod 310 in the same way. In this way, during use, it is convenient to assist the corresponding movement of the upper moving assembly 200 and the lower moving assembly 300, making the subsequent use more convenient;

[0049] More specifically in this embodiment, the same upper sliding sleeves 241 are fixedly provided at both ends of the upper rearward moving frame 220 and the upper forward moving frame 230. The upper sliding rods 240 are inserted through the inside of the upper sliding sleeves 241, and upper columns 242 are supported and assembled at both ends of the upper sliding rods 240. The same arrangement is made at both ends of the lower rearward moving frame 320 and the upper forward moving frame 230. In this way, during use, it is convenient to limit the movement and sliding of the upper rearward moving frame 220, the upper forward moving frame 230, the lower rearward moving frame 320, and the lower forward moving frame 330, making the use operation more convenient;

[0050] More specifically in this embodiment, the heat transfer component 500 includes a heat storage bin 510. The outer wall of the heat storage bin 510 is arc-shaped, and a heating wire 520 is assembled inside the heat storage bin 510. Heat outlet openings 511 are evenly provided on the outer wall of the heat storage bin 510. In this way, during use, it is convenient to generate heat through the heating wire 520 and then dissipate heat through the heat outlet openings 511, making the operation and use more convenient;

[0051] More specifically in this embodiment, assembly columns 101 are vertically arranged at the four corners around the silkworm rearing house 100. The upper and lower ends of the assembly columns 101 are respectively supported on the lower part of the upper temperature storage bin 110 and the upper part of the lower temperature storage bin 120. Outer vertical plates 102 are supported and assembled on the left, right and rear outer sides of the assembly columns 101, and corresponding inner vertical plates 103 are supported and assembled on the left, right and rear inner sides of the assembly columns 101. Temperature measuring components 130 are evenly assembled on the inner walls of the inner vertical plates 103. A distribution box and a control panel 140 electrically connected to the temperature measuring components 130 are assembled on the right side of the silkworm rearing house 100. The distribution box and the control panel 140 are also electrically connected to the driving structure 400 and the heat transfer component 500. Thus, during use, corresponding double partitions are formed by the outer vertical plates 102 and the inner vertical plates 103, making the operation more convenient and facilitating the monitoring of the interior of the silkworm rearing house 100, making the operation and use more convenient;

[0052] More specifically in this embodiment, a front door 104 is hinged to the front side of the silkworm rearing house 100 through a rotating shaft 106. Tempered glass 105 is assembled inside the front door 104. A limiting threshold 108 corresponding to the front door 104 is supported and assembled on the inner wall of the front side of the silkworm rearing house 100. A corresponding magnetic lock 107 is fixedly installed on the upper inner arm of the front door 104. Thus, it is convenient to open and close the interior of the silkworm rearing house 100, making the subsequent use more convenient;

[0053] Working principle: When raising silkworms, according to the required temperature, under the assembly of the rotating shaft 106, through the opening and closing of the distribution box, the control panel 140 and the toughened glass 105, it is convenient to place the silkworm-raising equipment inside the silkworm-raising room 100. After the power is turned on, the heating wire 520 generates heat, and then the heat is dissipated through the heat storage bin 510 and the heat outlet 511. Subsequently, with the cooperation of the blowing fan 700, heat is blown through the upper grille plate 113 and the lower grille plate 123, facilitating the blowing of heat into the silkworm-raising room 100 to form a greenhouse inside the silkworm-raising room 100. Driven by the servo motor 410, through the cooperation of the driving wheel 420, the transmission belt 421 and the driven wheel 430, the lower screw rod 310 and the upper screw rod 210 are driven to rotate. The lower screw rod 310 and the upper screw rod 210 respectively drive the upper rear moving frame 220 and the upper front moving frame 230 to move back and forth under the cooperation of the threads, and drive the lower rear moving frame 320 and the lower front moving frame 330 to move back and forth. During use, in cooperation with the corresponding control module, such as a relay, etc., to control the forward and reverse rotation of the servo motor 410, so that the upper screw rod 210 and the lower screw rod 310 continuously switch between forward and reverse rotation, causing the upper rear moving frame 220, the upper front moving frame 230, the lower rear moving frame 320 and the lower front moving frame 330 to move reciprocally. This facilitates driving the heat transfer component 500 to move reciprocally, preventing local overheating, making the use operation more convenient, and also facilitating the cooperation with the blowing fan 700 to assist in evenly blowing the heat, making the heat distribution inside the silkworm-raising room 100 more uniform and convenient. During use, through the blowing of the blower 610, with the cooperation of the three-way pipe 620, the upper air pipe 621 and the lower air pipe 622, auxiliary blowing and ventilation are carried out, making the air flow more convenient and efficient, facilitating the acceleration of air circulation, assisting in making the temperature distribution inside the silkworm-raising room 100 uniform, making the use more convenient and efficient, and facilitating subsequent use;

[0054] During operation, through the cooperation of the outer vertical plate 102 and the inner vertical plate 103, corresponding double isolation is formed, facilitating heat preservation. At the same time, with the cooperation of the upper grille plate 113 and the lower grille plate 123, it is convenient to assist in heat dissipation and temperature distribution. Further, with the setting of the front door 104 and the toughened glass 105, it is convenient to observe the inside of the silkworm-raising room 100, making the use operation more convenient. The operation ends here.

[0055] It should be noted that in this application, the specific connection structure and principle of the temperature measurement component 130, the distribution box and the control panel 140, the servo motor 410 and the heating wire 520 all belong to the prior art and are common knowledge for those skilled in the art. They can be realized through various implementation methods, and no other special requirements are made in this application. As long as they can achieve the functions in this application, specific limitations are not made here;

[0056] The above are only the preferred embodiments of the present invention, and do not impose any form of limitation on the present invention; any ordinary technician in the industry can smoothly implement the present invention as shown in the accompanying drawings of the specification and as described above; however, any minor changes, modifications, and equivalent variations made by those skilled in the art within the scope of the technical solution of the present invention by using the technical content disclosed above are equivalent embodiments of the present invention; at the same time, any equivalent changes, modifications, and evolutions made to the above embodiments based on the essential technology of the present invention still fall within the protection scope of the technical solution of the present invention.

Claims

1. A temperature-controlled room for silkworm rearing, comprising a silkworm rearing room (100), characterized in that: The silkworm breeding house (100) is symmetrically equipped with an upper temperature chamber (110) and a lower temperature chamber (120) in upper and lower parts, and corresponding upward moving components (200) and downward moving components (300) are symmetrically arranged inside the upper temperature chamber (110) and the lower temperature chamber (120), respectively. The rear side of the silkworm breeding house (100) is equipped with a driving structure (400), and the upward moving component (200) comprises an upper screw rod (210), and the upper rearward moving frame (220) and the upper forward moving frame (230) are respectively threadedly equipped at the front and rear ends of the upper screw rod (210), and the downward moving component (300) comprises a lower screw rod (310), and the lower rearward moving frame (320) and the lower forward moving frame (330) are respectively threadedly equipped at the front and rear ends of the lower screw rod (310). The driving structure (400) comprises a servo motor (410), the servo motor (410) is connected to the rear end of the lower screw rod (310) for transmission via a coupling (411), the rear end of the lower screw rod (310) and the rear end of the upper screw rod (210) are respectively fixed with corresponding driving wheels (420) and driven wheels (430), and the driving wheels (420) and driven wheels (430) are sleeved and connected for transmission via a driving belt (421), the bottom of the upper rear moving frame (220), the bottom of the upper front moving frame (230), the top of the lower rear moving frame (320) and the top of the lower front moving frame (330) are all fixedly provided with heat transfer components (500), and the rear support of the silkworm breeding room (100) is equipped with a blast component (600), The blower assembly (600) comprises a blower (610), wherein the blower (610) is connected to a three-way pipe (620) via a blower pipe (611), wherein the upper end of the three-way pipe (620) is connected to and communicates with the interior of the upper temperature chamber (110) via an upper air pipe (621), and the lower end of the three-way pipe (620) is connected to and communicates with the interior of the lower temperature chamber (120) via a lower air pipe (622). The upper temperature chamber (110) comprises an upper outer shell (111) located on the sides and an upper cover plate (112) located on the top. An upper grille plate (113) is suspended at the bottom of the upper outer shell (111), and the lower temperature chamber (120) comprises a lower outer shell (121) located on the sides and an upper cover plate (112) located on the bottom. A lower sealing plate (122), the top of the lower shell (121) is supported and equipped with a lower grille plate (123), the upper temperature chamber (110) and the lower temperature chamber (120) are supported and equipped with supporting columns (114) at the corners around them, and the upper grille plate (113) and the lower grille plate (123) are both hollowed out, the upper temperature chamber (110) and the lower temperature chamber (120) are each provided with an air inlet interface (630) corresponding to the upper air duct (621) and the lower air duct (622) on the left rear side, and the upper temperature chamber (110) and the lower temperature chamber (120) are each provided with an air outlet interface (640) corresponding to the air inlet interface (630) on the right rear side, and the air outlet interface (640) is externally sleeved with a sealing cover (641).

2. A temperature-controlled room for silkworm breeding according to claim 1, characterized in that: The top of the upper temperature chamber (110) is supported and equipped with a blowing fan (700), and the bottom of the lower temperature chamber (120) is also supported and equipped with a blowing fan (700).

3. A temperature-controlled room for silkworm breeding according to claim 1, characterized in that: The upper screw rod (210) and the lower screw rod (310) are supported and assembled with upper seat bearings (211) in the middle and front and rear side parts, and the front and rear side end threads of the upper screw rod (210) and the lower screw rod (310) are symmetrically and oppositely arranged, and the surfaces of the upper rear moving frame (220) and the upper front moving frame (230) are fixed with movable screw sleeves (221) corresponding to the upper screw rod (210), and the lower rear moving frame (320) and the lower front moving frame (330) are also assembled and arranged in the same way as the lower screw rod (310).

4. A temperature-controlled room for silkworm breeding according to claim 1, characterized in that: The upper rearward moving frame (220) and the upper forward moving frame (230) are both fixedly provided with the same upper sliding sleeves (241) at both sides, an upper sliding rod (240) is inserted through the interior of the upper sliding sleeve (241), and upper columns (242) are supported and mounted at both ends of the upper sliding rod (240), and the lower rearward moving frame (320) and the upper forward moving frame (230) are similarly provided at both ends.

5. A temperature-controlled room for silkworm breeding according to claim 1, characterized in that: The heat transfer component (500) comprises a heat storage bin (510), the heat storage bin (510) being arranged in an arc shape away from the outer wall, a heating wire (520) being installed inside the heat storage bin (510), and heat outlets (511) being evenly arranged on the outer wall of the heat storage bin (510).

6. A temperature-controlled room for silkworm breeding according to claim 1, characterized in that: Assembly columns (101) are erected at the corners of the silkworm room (100), and the upper and lower ends of the assembly columns (101) are respectively supported on the lower part of the upper temperature chamber (110) and the upper part of the lower temperature chamber (120). The left and right external supports and the rear side of the assembly columns (101) are equipped with external vertical panels (102), and the left and right internal supports and the rear side of the assembly columns (101) are equipped with corresponding internal vertical panels (103). The inner walls of the internal vertical panels (103) are evenly equipped with temperature measuring components (130), and a distribution box and a control panel (140) electrically connected to the temperature measuring component (130) are installed on the right side of the silkworm room (100). The distribution box and the control panel (140) are also electrically connected to the driving structure (400) and the heat transfer component (500).

7. A temperature-controlled room for silkworm breeding according to claim 6, characterized in that: A front door (104) is hinged on the front side of the silkworm breeding room (100) via a rotating shaft (106), and the front door (104) is provided with tempered glass (105) inside. A limit threshold (108) corresponding to the front door (104) is supported and provided on the inner wall of the front side of the silkworm breeding room (100), and a corresponding magnetic lock (107) is fixedly provided on the inner upper arm of the front door (104).

Images