Intelligent temperature control device for silk production process

Abstract

The invention relates to the technical field of silk production temperature control, in particular to an intelligent temperature control device for a silk production process, which comprises layering frames, a plurality of groups of layering frames are stacked in a layered manner, silkworm breeding frames are fixedly connected to the top ends of the layering frames, cocooning drawing frames are movably connected to the interiors of the layering frames, and the cocooning drawing frames are fixedly connected to the top ends of the layering frames. Buckle side frames are arranged at the corners of the two sides of the layering frame, overhead columns are arranged between the buckle side frames, air conveying pipes are arranged in the buckle side frames and the overhead columns, ventilation grilles are arranged on the inner walls of the buckle side frames, and reinforcing columns are arranged on the inner walls of the overhead columns. By arranging the layering frames, the silkworm breeding frames, the cocooning drawing frames, the buckle side frames, the overhead columns and the air conveying pipes, intelligent temperature control of double-layer separation can be carried out in the silk production process of the equipment, and in the actual use process, a worker firstly carries out layering stacking installation operation on multiple sets of layering frames through the buckle side frames and the overhead columns.

Description

Technical Field

[0001] The invention relates to the technical field of temperature control in silk production, and in particular to an intelligent temperature control device used in a silk production process. Background Art

[0002] Natural silk refers to the fiber formed by the mucus secreted by silkworms. The main raw materials for textiles are mulberry silk, tussah silk and castor silk, among which mulberry silk is the main one. Mulberry silk is known as the "Queen of Fibers" and has the characteristics of being elegant and smooth, soft and breathable, elegant and gorgeous, colorful, dazzling, hygroscopic, excellent air permeability and drape. Silk is a high-end textile raw material. It is the long fiber among natural fibers, and its length can be directly used for weaving. Silk is strong and elastic, thin and soft, has good moisture absorption and touch, and is especially elegant and beautiful in luster. Silk products have different styles and can be as thin as gauze or as thick as velvet. In addition to being used for clothing, silk fabrics can also be used to weave various decorations such as curtains, headscarves, quilt covers, mountings, etc., which are even more precious and gorgeous. In industry, they can also be used as parachutes, artificial blood vessels, electrical insulation and other materials. Silk is divided into domestic silk and wild silk according to the breeding method. Domestic silkworms are generally raised indoors and fed with mulberry leaves. The resulting silk is also called mulberry silk, commonly known as real silk and factory silk. Mulberry silk has the best quality and is the main source of natural silk. Wild silkworms are raised outdoors. There are tussah silkworms, castor silkworms, brown silkworms, and natural silkworms. The feed they eat is different, among which tussah silkworms raised on oak trees are the main ones. The resulting tussah silk is the second main source of natural silk. The silk spun by natural silkworms among wild silkworms is an expensive, high-quality fiber with a special appearance effect. It can be spun into filaments, but the output is very small. The silk production process requires proper control of the taste to ensure the final silk quality.

[0003] For example, the patent document with the announcement number CN 113110642 B discloses an intelligent temperature control device for the silk production process, including a shell, the outside of the shell is fixedly connected with a sensing shell, the inside of the sensing shell is slidably connected with a movable plate, the inside of the sensing shell is fixedly connected with a spring 1, the inside of the sensing shell is fixedly connected with a contact, and the outside of the shell is fixedly connected with a breeding room; through the interaction between the sensing shell, the movable plate, the spring 1, the contact, the breeding room, the outlet, the rotating rod, the connecting rod 1, the connecting rod 2, the slide rail, the slide plate, the slide rod, the photosensitive component, the detection component, the moving plate, the support plate, the transmission rod, the rotating plate, the cooling plate, the tank body, and the electromagnetic pump, the indoor temperature of the silk production can be accurately controlled, and the output and quality of the silk due to manual operation errors are effectively reduced, thereby improving the quality of silk production and the economic benefits of the enterprise.

[0004] However, during the silk production process, due to the limitation of its own structure, this structure can only perform simple overall temperature control operations. However, there are often problems before and after cocooning of cultured silkworms, and there is a difference in temperature between cocooning and normal breeding. At this time, since only one temperature regulation operation can be performed inside the equipment, it is impossible to perform intelligent temperature control of two sets of temperatures in the silk production process, which affects the quality of silk from the cocoons of a small number of silkworms. In addition, the equipment cannot perform closed constant temperature control operations for silkworms to spin silk and cocoon. At the same time, the equipment cannot properly switch between feeding and cocooning of cultured silkworms, and cannot quickly lure silkworms that need to cocoon, and cannot meet daily use needs. Therefore, it is urgent to design an intelligent temperature control device for the silk production process to solve the above problems. Summary of the invention

[0005] The object of the present invention is to provide an intelligent temperature control device for the silk production process, so as to solve the problem that the existing structure proposed in the above background technology can only perform simple overall temperature control operations during the silk production process due to its own structural limitations. However, there are often problems before and after cocooning of cultured silkworms, and there is a difference in temperature between cocooning and normal breeding. At this time, since only one temperature regulation operation can be performed inside the equipment, it is impossible to perform intelligent temperature control of two sets of temperatures in the silk production process, which affects the quality of silk spun by a small number of silkworms. In addition, the equipment cannot perform closed constant temperature control operations for silkworms to spin silk and spun cocoons. At the same time, the equipment cannot properly switch between feeding and cocooning of cultured silkworms, and cannot quickly lure silkworms that need to spun cocoons, and cannot meet daily usage needs.

[0006] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: an intelligent temperature control device for a silk production process, comprising a layered rack, a plurality of groups of the layered racks are stacked in layers, a silkworm raising rack is fixedly connected to the top of the layered rack, a cocoon-making and drawing rack is movably connected inside the layered rack, buckle side racks are arranged at the corners on both sides of the layered rack, overhead columns are arranged between the buckle side racks, air ducts are arranged inside the buckle side racks and the overhead columns, ventilation grilles are arranged on the inner walls of the buckle side racks, and reinforcement columns are arranged on the inner walls of the overhead columns;

[0007] A hot air base frame and an exhaust top frame, wherein the bottom end of the layered frame is provided with a hot air base frame, the top end of the layered frame is provided with an exhaust top frame, a movable column is provided at the center between the hot air base frame and the exhaust top frame, layered rubber rings are evenly provided inside the movable column, and reinforcement strips are fixedly connected to the four corners of the upper and lower ends of the layered rubber rings, connecting orifice plates are provided between the reinforcement strips, connecting valve seats are provided on both sides of the exhaust top frame, and an exhaust ring seat is provided at the inner center of the exhaust top frame.

[0008] Preferably, an exhaust ring net is sleeved on the outer surface of the exhaust ring seat, and a control frame is arranged on the surface of the exhaust ring seat.

[0009] Preferably, an annular air suction turbofan is sleeved on the outer surface of the control frame, and a first electric push rod is arranged inside the control frame.

[0010] Preferably, air delivery side frames are fixedly connected to both sides of the hot air base frame, air outlet pipes are arranged inside the air delivery side frames, and air suction mesh slots are arranged at the front and rear ends of the hot air base frame.

[0011] Preferably, a hot air unit is arranged at the inner center of the hot air base frame, a second electric push rod is arranged inside the hot air unit, suction ducts are fixedly connected to the front and rear ends of the hot air unit, and exhaust ducts are fixedly connected to the left and right sides of the hot air unit.

[0012] Preferably, a movable groove is provided on the back of the cocooning and pulling out frame, a fitting rubber cover is provided on the inner wall of the movable groove, filter cores are provided on both sides of the cocooning and pulling out frame, and a pulling handle is fixedly connected to the front of the cocooning and pulling out frame.

[0013] Preferably, a pulling groove is provided inside the layered frame, a breeding groove is provided on the surface of the silkworm breeding frame, and a sealing rubber sleeve is provided at the center of the inner wall of the breeding groove.

[0014] Preferably, air inlet grilles are provided at the corners on both sides of the layered frame, and air uniforming grooves are provided on the inner walls of the pumping grooves.

[0015] Preferably, the four corners of the bottom end of the hot air base frame are fixedly connected with supporting feet, and the bottom ends of the supporting feet are provided with anti-slip pads.

[0016] Compared with the prior art, the present invention has the following beneficial effects:

[0017] The intelligent temperature control device for the silk production process can realize double-layer intelligent temperature control by arranging layered racks, silkworm rearing racks, cocoon-making and drawing racks, snap-on side racks, overhead columns, air ducts, ventilation grilles, reinforcement columns, movable grooves, fitting rubber covers, filter elements, pull-out handles, pull-out grooves, rearing grooves, sealing rubber sleeves, air inlet grilles and uniform air ducts. In actual use, the staff first stacks and installs multiple groups of layered racks through snap-on side racks and overhead columns. At this time, the two groups of snap-on side racks can be snap-connected at the corners on both sides of the layered racks, and then the overhead columns can be lifted at the upper and lower ends of the snap-on side racks to form two groups of layered racks. At this time, the reinforcement columns on the inner walls of the overhead columns are positioned and reinforced with the four corners of the upper and lower groups of layered racks, and the snap-on side racks and the air ducts inside the overhead columns can be docked and connected. The hot air can be directly input into the layered frame through the air duct and ventilation grille on the inner wall of the buckle side frame, and the hot air is then evenly blown into the cocooning drawer inside the layered frame through the air inlet grille and the uniform air slot, so as to form a uniform intelligent temperature control operation inside all the cocooning drawers on each layer. Daily staff can raise silkworms in the breeding trough on the surface of the silkworm raising frame, and directly control the temperature of the silkworms during growth through external room temperature regulation. When the silkworms have grown and need to cocoon, they can drill into the cocooning drawer of the layered frame through the sealing rubber sleeve in the center of the inner wall of the breeding trough, and perform cocooning at a suitable temperature inside the cocooning drawer, thereby completing the double-layer temperature-controlled silk production operation and ensuring that different silkworms cocoon in a reasonable sequence. The silkworm pupae after cocooning can be directly collected uniformly and quickly by pulling out the cocooning drawer inside the layered frame, which reflects the practicality of the equipment design.

[0018] The intelligent temperature control device for the silk production process further improves the overall use effect of the equipment by arranging a layered frame, a hot air bottom frame, an exhaust top frame, a movable column, a layered rubber ring, a reinforcement strip, a connecting orifice plate, a connecting valve seat, an exhaust ring seat, an exhaust ring network, a control frame, an annular suction turbofan, a first electric push rod, an air supply side frame, an air outlet pipe, an air suction net slot, a hot air unit, a second electric push rod, an air suction duct and an exhaust duct. In daily use, the staff can simultaneously start the control frame at the center of the exhaust top frame and the second electric push rod at the center of the hot air bottom frame, so that the two can drive the movable column between the hot air bottom frame and the exhaust top frame to perform an upward and downward movable adjustment operation as a whole, so that the layered rubber rings, reinforcement strips and connecting orifice plates evenly arranged on the side of the movable column can perform an upward and downward movable operation at the sealing rubber sleeve at the center of the inner wall of the breeding tank. When the reinforcement strips and the connecting orifice plate are moved out of the sealing rubber sleeve The silkworms that need to make cocoons can drill into the cocoon-making drawer of the tiered frame from the silkworm rearing frame. After all of them have drilled in, the reinforcement strips and the connecting hole plate can be moved into the sealing rubber sleeve again to perform the closed cocoon-making temperature control operation inside the cocoon-making drawer, thereby ensuring that the silkworms can switch between the tiered frame and the silkworm rearing frame to grow and make cocoons. At the same time, the annular suction turbofan on the top is started daily to suction air from the exhaust ring seat and the exhaust ring net. Combined with the design of the hot air unit inside the hot air base frame and the suction and exhaust ducts, the hot air suitable for the cocoon-making temperature of the silkworms can be evenly diverted along the air supply side frame and the air outlet duct at the air supply duct of the buckle side frame and the overhead column, and a part of the hot air is blown out from the tiered frame to the sealing rubber sleeve of the silkworm rearing frame, thereby luring the silkworms inside the breeding trough to make cocoons, thereby better performing the double-layer temperature-controlled silk production operation, which reflects the comprehensiveness of the design. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a three-dimensional schematic diagram of the structure of the present invention;

[0020] Figure 2 It is an overall schematic diagram of the layered frame structure of the present invention;

[0021] Figure 3 It is an overall schematic diagram of the cocoon-making and drawing frame structure of the present invention;

[0022] Figure 4 It is a schematic diagram of the snap-on side frame and overhead column structure of the present invention;

[0023] Figure 5 It is an overall schematic diagram of the hot air chassis structure of the present invention;

[0024] Figure 6 It is an overall schematic diagram of the movable column structure of the present invention;

[0025] Figure 7 It is an overall schematic diagram of the control frame structure of the present invention;

[0026] Figure 8 For the present invention Figure 1 A magnified schematic diagram of the structure in the middle.

[0027] In the figure: 1, layered frame; 2, silkworm rearing frame; 3, cocooning frame; 4, buckle side frame; 5, overhead column; 6, air duct; 7, ventilation grille; 8, reinforcement column; 9, hot air bottom frame; 10, exhaust top frame; 11, movable column; 12, layered rubber ring; 13, reinforcement strip; 14, connecting orifice plate; 15, connecting valve seat; 16, exhaust ring seat; 17, exhaust ring net; 18, control frame; 19, annular suction turbofan; 20, first Electric push rod; 21. Air supply side frame; 22. Air outlet duct; 23. Air suction net slot; 24. Hot air unit; 25. Second electric push rod; 26. Air suction duct; 27. Exhaust duct; 28. Movable slot; 29. ​​Laminating rubber cover; 30. Filter element; 31. Pull-out handle; 32. Pull-out slot; 33. Breeding trough; 34. Sealing rubber sleeve; 35. Air inlet grille; 36. Air uniformity slot; 37. Support foot; 38. Anti-slip foot pad. DETAILED DESCRIPTION

[0028] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0029] See also Figure 1-8 , an embodiment provided by the present invention:

[0030] An intelligent temperature control device for a silk production process comprises a layered frame 1, wherein a plurality of layers of the layered frames 1 are stacked in layers, a silkworm rearing frame 2 is fixedly connected to the top of the layered frame 1, a cocooning and drawing frame 3 is movably connected to the inside of the layered frame 1, buckle side frames 4 are arranged at the corners on both sides of the layered frame 1, overhead columns 5 are arranged between the buckle side frames 4, air ducts 6 are arranged inside the buckle side frames 4 and the overhead columns 5, ventilation grilles 7 are arranged on the inner walls of the buckle side frames 4, reinforcement columns 8 are arranged on the inner walls of the overhead columns 5, a movable groove 28 is provided on the back of the cocooning and drawing frame 3, a fitting rubber cover 29 is provided on the inner wall of the movable groove 28, filter cores 30 are provided on both sides of the cocooning and drawing frame 3, a pulling handle 31 is fixedly connected to the front of the cocooning and drawing frame 3, a pulling groove 32 is provided inside the layered frame 1, a breeding groove 33 is provided on the surface of the silkworm rearing frame 2, a sealing rubber sleeve 34 is provided at the inner wall center of the breeding groove 33, and the corners on both sides of the layered frame 1 are provided. The air inlet grille 35 and the inner wall of the pulling groove 32 are provided with an air uniforming groove 36, and the four corners of the bottom end of the hot air base frame 9 are fixedly connected with supporting feet 37, and the bottom ends of the supporting feet 37 are provided with anti-slip pads 38. The two groups of snap-on side frames 4 are snapped at the corners on both sides of the layered rack 1, and then the overhead columns 5 are placed at the upper and lower ends of the snap-on side frames 4 to perform the layered overhead operation of the two groups of layered racks 1. At this time, the reinforcement columns 8 on the inner walls of the overhead columns 5 are positioned and reinforced with the four corners of the upper and lower groups of layered racks 1, and the snap-on side frames 4 and the air ducts 6 inside the overhead columns 5 can be docked and connected, and subsequently, the hot air can be directly input into the layered rack 1 through the air ducts 6 and the ventilation grilles 7 on the inner walls of the snap-on side frames 4, and the hot air is evenly blown into the cocooning drawer 3 inside the layered rack 1 through the air inlet grille 35 and the air uniforming groove 36, thereby forming a uniform intelligent temperature control operation inside all the cocooning drawers 3 on each layer.

[0031] The hot air bottom frame 9 and the exhaust top frame 10 are provided at the bottom of the layered frame 1, and the exhaust top frame 10 is provided at the top of the layered frame 1. A movable column 11 is provided at the center between the hot air bottom frame 9 and the exhaust top frame 10. Layered rubber rings 12 are evenly provided inside the movable column 11. Reinforcement strips 13 are fixedly connected to the four corners of the upper and lower ends of the layered rubber rings 12. A connecting orifice plate 14 is provided between the reinforcement strips 13. A connecting valve seat 15 is provided on both sides of the exhaust top frame 10. The exhaust top frame 10 is provided with an exhaust valve seat 15 at the inner center. The ring seat 16, the outer surface of the exhaust ring seat 16 is provided with an exhaust ring net 17, the surface of the exhaust ring seat 16 is provided with a control frame 18, the outer surface of the control frame 18 is provided with an annular suction turbofan 19, the control frame 18 is provided with a first electric push rod 20, the two sides of the hot air bottom frame 9 are fixedly connected with air delivery side frames 21, the air delivery side frames 21 are provided with an air outlet pipe 22, the front and rear ends of the hot air bottom frame 9 are provided with suction net slots 23, the inner center of the hot air bottom frame 9 is provided with a hot air unit 24, the hot air unit 24 A second electric push rod 25 is arranged inside, the front and rear ends of the hot air unit 24 are fixedly connected with suction ducts 26, and the left and right sides of the hot air unit 24 are fixedly connected with exhaust ducts 27. The control frame 18 at the center of the exhaust top frame 10 and the second electric push rod 25 at the center of the hot air bottom frame 9 are started at the same time, so that the two drive the movable column 11 between the hot air bottom frame 9 and the exhaust top frame 10 to perform an upward and downward movable adjustment operation as a whole, so that the layered rubber rings 12, reinforcement strips 13 and The connecting hole plate 14 can move up and down at the sealing rubber sleeve 34 at the center of the inner wall of the breeding trough 33. When the reinforcing strip 13 and the connecting hole plate 14 are moved out of the sealing rubber sleeve 34, the silkworms that need to make cocoons can drill from the silkworm rearing frame 2 into the cocoon-making and drawing frame 3 of the layered frame 1. After all of them are drilled in, the reinforcing strip 13 and the connecting hole plate 14 can be moved into the sealing rubber sleeve 34 again to perform the cocoon-making and temperature-controlled operation inside the closed cocoon-making and drawing frame 3, thereby ensuring that the silkworms can switch between growing and making cocoons in the layered frame 1 and the silkworm rearing frame 2.

[0032] Working principle: When in use, the user first stacks and installs multiple groups of shelves 1 through the snap-on side frames 4 and the overhead columns 5. At this time, the two groups of snap-on side frames 4 can be snapped together at the corners on both sides of the shelf 1, and then the overhead columns 5 are used to overhead the two groups of shelves 1 at the upper and lower ends of the snap-on side frames 4. At this time, the reinforcement columns 8 on the inner walls of the overhead columns 5 are positioned and reinforced with the four corners of the upper and lower groups of shelves 1, and the snap-on side frames 4 and the air ducts 6 inside the overhead columns 5 can be docked and connected. Subsequently, the hot air can be directly input into the shelf 1 through the air ducts 6 and the ventilation grilles 7 on the inner walls of the snap-on side frames 4, and the hot air is evenly blown into the shelf 1 through the air inlet grilles 35 and the uniform air slots 36. The silkworm rearing rack 2 is provided with a temperature-controlled airtight container 32 for controlling the silkworms' cocooning. The control frame 18 at the center of the exhaust top frame 10 and the second electric push rod 25 at the center of the hot air bottom frame 9 are started at the same time, so that the two can drive the movable column 11 between the hot air bottom frame 9 and the exhaust top frame 10 to perform an upward and downward movable adjustment operation as a whole, so that the layered rubber ring 12, the reinforcement strip 13 and the connecting hole plate 14 evenly arranged on the side of the movable column 11 can be moved up and down at the sealing rubber sleeve 34 at the center of the inner wall of the breeding tank 33. When the reinforcement strip 13 and the connecting hole plate 14 are moved out of the sealing rubber sleeve 34, the silkworms that need to make cocoons can drill from the silkworm breeding frame 2 into the cocooning and drawing frame 3 of the layered frame 1. After all of them are drilled in, the reinforcement strip 13 and the connecting hole plate 14 can be moved into the sealing rubber sleeve 34 again to perform the cocooning temperature control operation closed inside the cocooning and drawing frame 3. To ensure that the silkworms can switch between the layered rack 1 and the silkworm rearing rack 2 for growth and cocooning, the annular suction turbofan 19 at the top is started daily to perform suction operations from the exhaust ring seat 16 and the exhaust ring net 17. In conjunction with the design of the hot air unit 24 inside the hot air base 9 and the suction duct 26 and the exhaust duct 27, hot air suitable for the cocooning temperature of the silkworms can be evenly diverted along the air supply side frame 21 and the air outlet duct 22 at the air supply duct 6 of the buckle side frame 4 and the overhead column 5, and a part of the hot air is blown out from the layered rack 1 to the sealing rubber sleeve 34 of the silkworm rearing rack 2, thereby inducing the silkworms inside the breeding tank 33 to form cocoons, thereby better performing the double-layer temperature-controlled silk production operation. The above is the entire working principle of the present invention.

[0033] It will be apparent to those skilled in the art that the invention is not limited to the details of the exemplary embodiments described above and that the invention can be implemented in other specific forms without departing from the spirit or essential features of the invention. Therefore, the embodiments should be considered exemplary and non-limiting in all respects, and the scope of the invention is defined by the appended claims rather than the foregoing description, and it is intended that all variations falling within the meaning and scope of the equivalent elements of the claims be included in the invention. Any reference numeral in a claim should not be considered as limiting the claim to which it relates.

Claims

1. An intelligent temperature control device for a silk production process, comprising a layering rack (1), characterized in that: A plurality of groups of the layered racks (1) are stacked in layers, the top of the layered rack (1) is fixedly connected to a silkworm raising rack (2), the inside of the layered rack (1) is movably connected to a cocoon-making and drawing rack (3), buckle side racks (4) are arranged at the corners on both sides of the layered rack (1), overhead columns (5) are arranged between the buckle side racks (4), air supply pipes (6) are arranged inside the buckle side racks (4) and the overhead columns (5), the inner wall of the buckle side rack (4) is provided with a ventilation grille (7), and the inner wall of the overhead column (5) is provided with a reinforcement column (8); A hot air bottom frame (9) and an exhaust top frame (10), wherein the bottom end of the layered frame (1) is provided with a hot air bottom frame (9), the top end of the layered frame (1) is provided with an exhaust top frame (10), a movable column (11) is provided at the center between the hot air bottom frame (9) and the exhaust top frame (10), layered rubber rings (12) are evenly provided inside the movable column (11), the four corners of the upper and lower ends of the layered rubber ring (12) are fixedly connected with reinforcement strips (13), a connecting orifice plate (14) is provided between the reinforcement strips (13), connecting valve seats (15) are provided on both sides of the exhaust top frame (10), and an exhaust ring seat (16) is provided at the center of the interior of the exhaust top frame (10).

2. The intelligent temperature control device for silk production process according to claim 1, characterized in that: An exhaust ring net (17) is sleeved on the outer surface of the exhaust ring seat (16), and a control frame (18) is arranged on the surface of the exhaust ring seat (16).

3. The intelligent temperature control device for silk production process according to claim 2, characterized in that: An annular air suction turbofan (19) is sleeved on the outer surface of the control frame (18), and a first electric push rod (20) is arranged inside the control frame (18).

4. The intelligent temperature control device for silk production process according to claim 1, characterized in that: Air delivery side frames (21) are fixedly connected to both sides of the hot air bottom frame (9), an air outlet pipe (22) is arranged inside the air delivery side frame (21), and air suction mesh grooves (23) are arranged at the front and rear ends of the hot air bottom frame (9).

5. The intelligent temperature control device for silk production process according to claim 1, characterized in that: A hot air unit (24) is arranged at the inner center of the hot air base frame (9), a second electric push rod (25) is arranged inside the hot air unit (24), a suction duct (26) is fixedly connected to the front and rear ends of the hot air unit (24), and an exhaust duct (27) is fixedly connected to the left and right sides of the hot air unit (24).

6. The intelligent temperature control device for silk production process according to claim 1, characterized in that: The back of the cocoon pulling frame (3) is provided with a movable groove (28), the inner wall of the movable groove (28) is provided with a fitting rubber cover (29), filter cores (30) are provided on both sides of the cocoon pulling frame (3), and a pulling handle (31) is fixedly connected to the front of the cocoon pulling frame (3).

7. The intelligent temperature control device for silk production process according to claim 1, characterized in that: The interior of the layered frame (1) is provided with a pulling groove (32), the surface of the silkworm breeding frame (2) is provided with a breeding groove (33), and a sealing rubber sleeve (34) is provided at the center of the inner wall of the breeding groove (33).

8. The intelligent temperature control device for silk production process according to claim 7, characterized in that: The corners on both sides of the layered frame (1) are provided with air inlet grilles (35), and the inner wall of the pumping groove (32) is provided with air uniforming grooves (36).

9. The intelligent temperature control device for silk production process according to claim 1, characterized in that: The four corners of the bottom end of the hot air bottom frame (9) are fixedly connected to support feet (37), and the bottom end of the support feet (37) is provided with an anti-slip foot pad (38).

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