A caesarean section surgical pouch

Abstract

The present application relates to the technical field of breeding isolation, in particular to a cesarean operation warehouse, which comprises a breeding isolation area, one end of the breeding isolation area is provided with a monitor, both sides of the breeding isolation area are provided with air exchange fans, the inside of the breeding isolation area is provided with a breeding isolation chamber, and one side of the breeding isolation chamber is provided with a cesarean operation assembly. The cesarean operation warehouse is designed, the breeding isolation chamber and the cesarean operation assembly are arranged in different areas of the breeding isolation area, cross contamination is avoided, the sterile requirement of the operation environment is ensured, the risk of postoperative infection of the mother is reduced, the success rate of operation and the survival rate of animals are improved, the automation of water supply is realized through the linkage design of the water pump and the water trough, frequent manual intervention is not needed, the risk of human pollution is reduced, the clean and continuous supply of water source is ensured, and the excrement is automatically treated through the electric push rod driving the cleaning plate.

Description

Technical Field

[0001] This invention relates to the field of animal husbandry isolation technology, and more particularly to a cesarean section surgical chamber. Background Technology

[0002] With the continuous advancement of intensification and automation in the livestock breeding industry, the level of animal reproduction management has been continuously improved. Especially in the field of economic animal breeding, the application of cesarean section as an assisted reproductive method is becoming more and more widespread. In order to ensure the safety of mother animals and offspring during the operation, the common practice is to set up cesarean section operating rooms and isolation feeding areas in the farm for preoperative management, intraoperative operation and postoperative care, which has gradually become one of the standard configurations of livestock and poultry farms.

[0003] However, existing cesarean section surgical pod devices rely heavily on manual cleaning of animal excrement, resulting in low cleaning efficiency, difficulty in accurate collection and timely waste disposal, and a high risk of environmental pollution and increased labor burden. Furthermore, the existing cesarean section surgical pod devices have a fixed isolation area structure, making space adjustment difficult and the animal's activity range uncontrollable. They cannot be personalized according to individual differences and postoperative recovery status. Moreover, if a part is damaged or needs adjustment, it often requires complete replacement or large-scale disassembly and assembly, resulting in high maintenance costs and complex operation. Therefore, this paper proposes a cesarean section surgical pod to overcome the above-mentioned defects. Summary of the Invention

[0004] The purpose of this invention is to address the shortcomings of existing technologies by proposing a cesarean section surgical chamber.

[0005] To achieve the above objectives, the present invention adopts the following technical solution: a cesarean section surgical chamber, including a breeding isolation area, a monitor is provided at one end of the breeding isolation area, ventilation fans are provided on both sides of the breeding isolation area, a feeding isolation room is provided inside the breeding isolation area, and a cesarean section surgical component is provided on one side of the feeding isolation room.

[0006] As a further description of the above technical solution: the breeding isolation room includes a breeding isolation chamber set inside the breeding isolation area. The top of the breeding isolation chamber is equipped with a breeding isolation component. One end of the breeding isolation chamber is equipped with a breeding door. One side of the breeding isolation chamber is equipped with a water pump and an electric push rod. The other side of the breeding isolation chamber is equipped with a waste collection chamber. By setting up the breeding isolation chamber, group infection is prevented. The linkage between the water pump and the drinking trough ensures automated water supply, avoids manual intervention, and reduces the risk of pollution. At the same time, the electric push rod automatically pushes the cleaning plate to handle excrement, improving cleaning efficiency. The waste collection chamber centrally collects and stores excrement, reducing the spread of germs.

[0007] As a further description of the above technical solution: the feeding isolation chamber includes a feeding isolation wall disposed inside the breeding isolation area. The top of the feeding isolation wall has sliding grooves at both ends, and these sliding grooves cooperate with a feeding isolation component. The feeding isolation component has several insertion holes on one side of its top, and a snap-fit ​​groove and insertion hole on the other side of its top. The feeding isolation component cooperates with the snap-fit ​​groove. A feeding trough is provided at the bottom inner part of the feeding isolation wall. A discharge groove is provided on the bottom side of the feeding isolation wall near the insertion holes, and the feeding trough communicates with a waste collection chamber. The feeding isolation wall is connected via a drainage channel. A drinking trough is inserted at the bottom of one end of the wall and is connected to a water pump. An inlet / outlet hole is provided in the middle of the side of the feeding isolation wall near the cesarean section surgical component and is connected to the component. Modular isolation is achieved by setting a sliding channel and cooperating with the component, which improves space utilization. The feeding trough is connected to the waste bin via a drainage channel, and the waste is automatically processed by an electric push rod to form a closed-loop cleaning mechanism to avoid backflow of pollution. The linkage between the water pump and the drinking trough ensures automated water supply, avoids manual intervention, and reduces the risk of pollution.

[0008] As a further description of the above technical solution: the feeding isolation component includes a movable rod set on the top of the feeding isolation wall, a number of limiting plates are provided on the side of the movable rod near the feeding trough, and a number of assembly rods are movably provided on the top of the movable rod, and the assembly rods cooperate with the insertion holes. By setting the combination of the movable rod and the limiting plates, it is convenient to adjust the size or opening and closing state of the isolation space, and by adjusting the position of the assembly rods, it can be adapted to animals of different sizes.

[0009] As a further description of the above technical solution: Sliding blocks are provided at both ends of the moving rod; several handles are provided at the top of the moving rod; a rotating groove is provided on one side of the moving rod; several limiting blocks are provided inside the rotating groove; rotating holes are provided at both ends of the limiting blocks; an assembly hole is provided on the side of the limiting block away from the moving rod; rotating rods are provided at both ends of the top of the limiting plate, and the rotating rods cooperate with the rotating holes; a splicing rod is provided on one side of the assembly rod; a splicing groove is provided on the other side of the assembly rod, and the splicing rod cooperates with the splicing groove; several blocking holes are provided in the middle of the assembly rod, and the splicing rod cooperates with the blocking holes; the outer side of the splicing rod... The device features threads, with threaded grooves inside both the splicing groove and the barrier hole. The threads and grooves mate with each other, and a sliding block engages with the track to ensure smooth movement of the moving rod, facilitating quick switching or adjustment of the isolation component. The handle design makes manual adjustment more convenient and enhances the user experience. A limiting block is used to install the limiting plate, ensuring that the limiting plate can only enter from one direction to prevent animals from escaping. The splicing rod and splicing groove allow for easy horizontal assembly according to usage needs, and the splicing rod engages with the barrier hole for vertical assembly. This allows for easy combination and adjustment of the feeding isolation component, enabling flexible control of the space within the feeding isolation chamber.

[0010] As a further description of the above technical solution: the top of the feeding door is provided with a matching groove, and the matching groove cooperates with the sliding block. A cleaning plate is provided on the side of the electric push rod near the feeding trough, and the cleaning plate cooperates with the discharge trough. By setting the matching groove, the feeding isolation component can be easily moved and adjusted. At the same time, by setting the electric push rod, the cleaning plate is automatically removed to remove excrement or waste, reducing the workload of manual labor. Furthermore, the feeding trough and the discharge trough are connected so that garbage and feces can be quickly diverted to the waste bin, ensuring a clean environment for the feeding trough.

[0011] As a further description of the above technical solution: the cesarean section surgical assembly includes a disinfection chamber located on one side of the isolation room. A first assembly tube is located at one end of the disinfection chamber, and a second assembly tube is located at the end of the first assembly tube away from the disinfection chamber. A temperature-controlled feeding chamber is located at the end of the second assembly tube away from the first assembly tube. A fastening ring is located on the outside of the first assembly tube and is connected to the second assembly tube. By setting up the sequential connection structure of the disinfection chamber, the first assembly tube, the second assembly tube, and the temperature-controlled feeding chamber, the functional zoning layout of the cesarean section surgical area is achieved, ensuring seamless connection from disinfection to the surgical process, improving the continuity and cleanliness of the overall operation process. The fastening ring enhances the stability and sealing of the connection, preventing contaminant leakage and ensuring a sterile and safe surgical environment. It can also be used independently or in combination according to the needs of use.

[0012] As a further description of the above technical solution: the disinfection chamber includes a disinfection box disposed at one end of the first assembly tube. Several placement rods are disposed at the bottom of the disinfection box. A disinfection door is disposed in the middle of one side of the disinfection box. An air intake fan and an ultraviolet lamp are disposed inside the disinfection box on the side away from the disinfection door. Several exhaust holes are opened at the inner bottom of the disinfection box. An exhaust groove is disposed at the inner bottom of the disinfection box, and the exhaust groove cooperates with the exhaust holes. Several exhaust fans are disposed at the bottom of one side of the disinfection box, and the exhaust fans cooperate with the exhaust groove. Several solid... The sterilization chamber has a fixed strap, and a first adjustment hole is provided at the middle of both ends near the first assembly tube. Several first assembly holes are provided on the outer circumference of the first adjustment hole. By setting up a multi-element sterilization system consisting of ultraviolet lamp, air intake fan, exhaust hole, exhaust groove and exhaust fan, the sterilization chamber can achieve all-round sterilization of surgical instruments and related operating areas, improve the air circulation and sterilization effect of the sterilization chamber. The fixed strap is used to stabilize the sterilization object, avoid movement causing secondary pollution and interference during operation, and the cooperation between the adjustment hole and the assembly hole facilitates the installation and disassembly of the first assembly tube, improving the structural flexibility and maintenance convenience.

[0013] As a further description of the above technical solution: the first assembly tube includes a first mounting frame disposed at one end of the disinfection box, a first movable tube disposed in the middle of the first mounting frame, and the first movable tube cooperates with a first adjustment hole. A plurality of first mounting holes are opened on one side of the first mounting frame, and the first mounting holes cooperate with the first assembly holes. A first solenoid valve is disposed in the middle of the first movable tube. A first docking ring is disposed at the end of the first movable tube away from the first mounting frame. A plurality of first connecting holes and sealing grooves are disposed at one end of the first docking ring. By setting the cooperation between the first movable tube and the adjustment holes, the assembled connection has good adjustability and sealing performance, which is convenient for fine operation and adjustment according to actual needs. The solenoid valve realizes the automation of switching, improves the intelligence level of the device during use, and the sealing grooves and connecting holes of the first docking ring enhance the docking sealing and connection strength between components, prevent external contamination during use, and ensure the airtightness and reliability of the disinfection and surgical procedures.

[0014] As a further description of the above technical solution: the second assembly tube includes a second docking ring disposed at one end of the first docking ring. A sealing gasket is disposed at the end of the second docking ring near the first docking ring, and the sealing gasket cooperates with the sealing groove. A plurality of second connecting holes are disposed at one end of the second docking ring and on the outer circumference of the sealing gasket. A second moving tube is disposed at the end of the second docking ring away from the first docking ring. A second solenoid valve is disposed in the middle of the second moving tube. A second assembly frame is disposed at the end of the second moving tube away from the second docking ring. A plurality of second mounting holes are disposed at one end of the second assembly frame. By setting the cooperation between the sealing gasket and the sealing groove, the sealing reliability of the second assembly tube during docking is improved, and cross-contamination between the sterilization area and the external environment is avoided. At the same time, the structure of the second solenoid valve and the moving tube makes the control of the subsequent surgical chamber section precise. The setting of the second assembly frame facilitates the rapid docking with the surgical chamber module, improves the assembly efficiency and disassembly convenience, and adapts to the configuration requirements of various surgical environments.

[0015] As a further description of the above technical solution: the temperature-controlled feeding chamber includes a temperature-controlled feeding box disposed at one end of the second assembly tube. A second adjustment hole is provided at the end of the temperature-controlled feeding box near the second assembly frame. Several second assembly holes are provided on the outer circumference of the second adjustment hole, and these second assembly holes cooperate with the second mounting holes. Several operating gloves are movably disposed on one side of the temperature-controlled feeding box. A blower is disposed on the top of the other side of the temperature-controlled feeding box. Several support rods are disposed at the bottom of the temperature-controlled feeding box. A feeding tube is disposed at the end of the temperature-controlled feeding box away from the second assembly tube. By configuring the temperature-controlled feeding box and cooperating with its adjustment hole and assembly holes, the temperature-controlled feeding box can be quickly connected and highly modularized. The operating gloves ensure that the user can complete the operation without direct contact with the animal, improving the controllability of aseptic operation. The blower at the top of the temperature-controlled feeding box ensures airflow circulation and a constant temperature environment within the operating chamber. The bottom support rods provide overall structural stability. The distal feeding tube enables rapid feeding during and after surgery, enhancing the continuity and convenience of postoperative animal care.

[0016] The present invention has the following beneficial effects: This invention designs a cesarean section surgical chamber. By setting up a feeding isolation room and a cesarean section surgical component in different areas of the breeding isolation area, it avoids cross-contamination, ensures the sterility requirements of the surgical environment, reduces the risk of infection for the mother during surgery, and improves the success rate of surgery and the survival rate of animals. The water pump and drinking trough linkage design realizes the automation of water supply without frequent manual intervention, reduces the risk of human contamination, and ensures a clean and continuous water supply. Moreover, the electric push rod drives the cleaning plate to automatically handle excrement. Together with the discharge trough and waste collection bin, it forms a closed-loop cleaning mechanism. Excrement is quickly guided to a dedicated storage space to avoid backflow of contamination, improves cleaning efficiency, and reduces the risk of pathogen transmission. When the assembly rod is not in use, it can be stored in the insertion hole, which improves the convenience of use and improves the deployment efficiency of the device, filling the technical gap in flexible isolation equipment for large laboratory animals.

[0017] This invention discloses a cesarean section surgical chamber. By incorporating sliding blocks and sliding grooves, the isolation components can be quickly opened and closed or spatially adjusted to adapt to different animal individuals or surgical needs. The assembly rod's splicing structure, with horizontal threaded connections between the splicing rod and the splicing groove, and vertical connections between the splicing rod and the blocking holes, supports multi-directional free combination and flexible division of isolation areas. The unidirectional limiting design of the limiting plate and rotating rod prevents animal escape and facilitates disassembly and maintenance. The handle design simplifies manual adjustment and improves operational convenience. The precise alignment of the groove and sliding block ensures the stability of the isolation components' movement. Furthermore, a monitor mounted on the top of the isolation area provides real-time monitoring of the entire feeding and surgical process, facilitating timely problem detection and operational adjustments to ensure animal welfare and surgical standardization.

[0018] This invention designs a cesarean section surgical chamber, which, through a segmented connection structure of a sterilization chamber, a first assembly tube, a second assembly tube, and a temperature-controlled feeding chamber, achieves spatial functional zoning of the cesarean section process, from sterilization and surgery, pipeline transportation, to precise temperature-controlled feeding. This ensures the cleanliness of the environment and the continuity of the process throughout the operation, reduces the risk of contamination and infection during surgery, improves the overall controllability of the operation, and enhances the postoperative recovery rate of animals. Furthermore, the modular connection between components via assembly tubes and fastening rings supports unit disassembly and flexible combination, adapting to various experimental needs and spatial deployment conditions, improving equipment adaptability and system construction efficiency. Simultaneously, an active disinfection system composed of ultraviolet lamps, air intake fans, exhaust vents, exhaust channels, and exhaust fans enables dynamic air circulation and efficient sterilization, covering potentially contaminated areas such as surgical instruments and animal passages, improving disinfection efficiency. The combined design of the sterilization door, placement rod, and fixing straps ensures the stability of instruments during disinfection, preventing cross-contamination caused by movement and ensuring consistent disinfection effects. The matching structure of the adjustment holes and assembly holes simplifies the subsequent assembly process, improving disassembly and assembly convenience and maintenance efficiency.

[0019] This invention designs a cesarean section surgical chamber. Through the cooperation of a first moving tube and adjustment holes, it achieves fine-tunable positioning and high-sealing connection between components, ensuring that the sterilization chamber and subsequent units avoid sealing failures at the interface. The first solenoid valve enhances the level of automation, facilitating operational linkage via system commands. Multiple sets of connection holes and sealing grooves on the first docking ring work together to strengthen the interface sealing performance and mechanical strength, ensuring the cleanliness and stability of the overall system operation. Simultaneously, the flexible cooperation of the sealing gasket and sealing groove enhances the airtightness of the connection, preventing external air from entering or sterilization gas from leaking, maintaining the stability of the sterile space. A second solenoid valve controls the gas path within the second moving tube, precisely controlling the parameter adjustment of the surgical environment. The second assembly frame and mounting hole structure facilitate efficient docking with the temperature-controlled feeding chamber, reducing manual intervention time, improving system setup efficiency, and supporting rapid disassembly and replacement to adapt to different experimental conditions. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a cross-sectional view of the overall structure of the present invention; Figure 3 This is one of the schematic diagrams of the breeding isolation room structure in this invention; Figure 4 This is the second schematic diagram of the structure of the breeding isolation room in this invention; Figure 5 This is a three-dimensional schematic diagram of the structure of the breeding isolation room in this invention; Figure 6 This is a schematic diagram of the feeding isolation chamber structure in this invention; Figure 7 This is one of the cross-sectional views of the feeding isolation chamber structure in this invention; Figure 8 This is the second sectional view of the feeding isolation chamber structure in this invention; Figure 9 This is a three-dimensional structural diagram of the feeding isolation component in this invention; Figure 10 This is a schematic diagram of the movable rod structure in this invention; Figure 11 This is a schematic diagram of the limiting plate structure in this invention; Figure 12 This is a cross-sectional view of the assembled rod structure in this invention; Figure 13 This is a schematic diagram of the cesarean section surgical component structure in this invention; Figure 14 This is a three-dimensional structural diagram of the cesarean section surgical components in this invention; Figure 15 This is a schematic diagram of the disinfection chamber structure in this invention; Figure 16This is a cross-sectional view of the disinfection chamber structure in this invention; Figure 17 This is a schematic diagram of the first assembled tube structure in this invention; Figure 18 This is a cross-sectional view of the temperature-controlled feeding chamber structure in this invention.

[0021] Legend: 1. Breeding isolation area; 2. Monitor; 3. Ventilation fan; 4. Breeding isolation room; 41. Breeding isolation bin; 411. Breeding isolation wall; 412. Sliding trough; 413. Insertion hole; 414. Snap-fit ​​groove; 415. Insertion hole; 416. Breeding trough; 417. Exhaust trough; 418. Water trough; 419. Inlet / outlet hole; 42. Breeding isolation components; 421. Moving rod; 4211. Sliding block; 4212. Handle; 4213. Rotating mechanism 4214. Groove; 4215. Limiting block; 4216. Rotating hole; 4217. Assembly hole; 422. Limiting plate; 4221. Rotating rod; 423. Assembly rod; 4231. Splicing rod; 4232. Splicing groove; 4233. Barrier hole; 43. Feeding door; 44. Water pump; 45. Electric push rod; 451. Cleaning plate; 46. Waste collection bin; 57. Cesarean section surgical components; 51. Disinfection bin; 511. Disinfection box; 512. Placement rod; 513. 514. Disinfection door; 515. Air intake fan; 516. Ultraviolet lamp; 517. Exhaust vent; 518. Exhaust channel; 519. Exhaust fan; 510. Fixing strap; 5111. First adjustment hole; 5111. First assembly hole; 52. First assembly tube; 521. First mounting frame; 522. First moving tube; 523. First mounting hole; 524. First solenoid valve; 525. First docking ring; 526. First connecting hole; 527. Sealing groove; 5 3. Second assembly tube; 531. Second docking ring; 532. Sealing gasket; 533. Second connecting hole; 534. Second moving tube; 535. Second solenoid valve; 536. Second assembly frame; 537. Second mounting hole; 54. Temperature-controlled feeding chamber; 541. Temperature-controlled feeding box; 542. Second adjustment hole; 543. Second assembly hole; 544. Operating gloves; 545. Exhaust fan; 546. Support rod; 547. Feeding tube; 55. Fastening ring. Detailed Implementation

[0022] Reference Figures 1 to 18 The present invention provides a cesarean section surgical chamber, including a breeding isolation area 1, a monitor 2 is provided at one end of the breeding isolation area 1, ventilation fans 3 are provided on both sides of the breeding isolation area 1, a feeding isolation room 4 is provided inside the breeding isolation area 1, and a cesarean section surgical component 5 is provided on one side of the feeding isolation room 4.

[0023] As a further implementation of the above technical solution: the breeding isolation room 4 includes a breeding isolation chamber 41 set inside the breeding isolation area 1. The top of the breeding isolation chamber 41 is provided with a breeding isolation component 42. One end of the breeding isolation chamber 41 is provided with a breeding door 43. A water pump 44 and an electric push rod 45 are provided on one side of the breeding isolation chamber 41. A waste collection chamber 46 is provided on the other side of the breeding isolation chamber 41. When in use, the breeding isolation chamber 41 is confined to an independent space, which is convenient for pre- and post-operative management and monitoring. The breeding door 43 is used as a passage for animals or personnel to enter and exit. It is combined with the linkage control of the trough and the sliding structure. At the same time, the automatic drinking head automatically replenishes water to save labor. The cleaning plate 451 is driven by the electric push rod 45 to reciprocate, so as to clean the breeding trough 416 or push the excrement. The waste collection chamber 46 is connected to the discharge trough 417, which can collect feces and garbage in a centralized manner to avoid environmental pollution.

[0024] As a further implementation of the above technical solution: the feeding isolation chamber 41 includes a feeding isolation wall 411 disposed inside the breeding isolation area 1. The top two ends of the feeding isolation wall 411 are provided with sliding grooves 412, which cooperate with the feeding isolation component 42. One side of the top of the feeding isolation component 42 is provided with several insertion holes 413, and the other side of the top of the feeding isolation component 42 is provided with a snap-fit ​​groove 414 and an insertion hole 415. The feeding isolation component 42 cooperates with the snap-fit ​​groove 414. The inner bottom of the feeding isolation wall 411 is provided with a feeding trough 416. The bottom side of the feeding isolation wall 411 near the insertion holes 413 is provided with a discharge groove 417, and the feeding trough 416 is connected to the waste collection chamber 46 through the discharge groove 417. One end of the feeding isolation wall 411... A drinking trough 418 is interspersed at the bottom and is connected to a water pump 44. An inlet / outlet hole 419 is opened in the middle of the side of the feeding isolation wall 411 near the cesarean section surgical component 5. Several through holes are provided on the outer circumference of the inlet / outlet hole 419 and connected to the first assembly pipe 52. The inlet / outlet hole 419 is connected to the cesarean section surgical component 5 through the first assembly pipe 52, the second assembly pipe 53 and the fastening ring 55. In use, the sliding groove 412 is used to install the moving rod 421 of the feeding isolation component 42 so that it can slide smoothly along the track. The feeding trough 416 is used to raise animals, and the discharge trough 417 is used to guide waste into the waste collection bin 46 below when cleaning the feeding trough 416. The drinking trough 418 is connected to the water pump 44 to realize automatic drinking water circulation and maintain the stability of the animal drinking water supply.

[0025] As a further implementation of the above technical solution: the feeding isolation component 42 includes a movable rod 421 disposed on the top of the feeding isolation wall 411. Several limiting plates 422 are disposed on the side of the movable rod 421 near the feeding trough 416. Several assembly rods 423 are movably disposed on the top of the movable rod 421, and the assembly rods 423 cooperate with the insertion holes 415. When in use, the movable rod 421 moves along the sliding groove 412 to realize the adjustment of the size of the feeding area or the opening and closing isolation function. The limiting plates 422 restrict the range of animal movement and also serve as an adjustable separation device. The assembly rods 423 are inserted into the insertion holes 415 for structural reinforcement, realizing modular installation, replacement or maintenance.

[0026] As a further implementation of the above technical solution: Sliding blocks 4211 are provided at both ends of the moving rod 421; several handles 4212 are provided at the top of the moving rod 421; a rotating groove 4213 is provided on one side of the moving rod 421; several limiting blocks 4214 are provided inside the rotating groove 4213; rotating holes 4215 are provided at both ends of the limiting blocks 4214; an assembly hole 4216 is provided on the side of the limiting blocks 4214 away from the moving rod 421; rotating rods 4221 are provided at both ends of the top of the limiting plate 422; and the rotating rods 4221... 221 cooperates with the rotating hole 4215. During use, the sliding block 4211 cooperates with the sliding groove to allow the moving rod 421 to slide smoothly on the top of the feeding isolation wall 411. The handle 4212 allows the operator to manually push the moving rod 421 for adjustment. Through the cooperation of the rotating groove 4213 and the limiting block 4214, the position and angle of the limiting block 4214 can be adjusted to limit the movement angle of the component and prevent accidental movement. At the same time, the cooperation of the rotating hole 4215 and the rotating rod 4221 forms a hinge structure, allowing the limiting plate 422 to rotate around the rotating rod 4221 for folding and unfolding or adjusting the opening size.

[0027] As a further implementation of the above technical solution: a splicing rod 4231 is provided on one side of the assembly rod 423, and a splicing groove 4232 is provided on the other side of the assembly rod 423, with the splicing rod 4231 cooperating with the splicing groove 4232. A plurality of blocking holes 4233 are provided in the middle of the assembly rod 423, with the splicing rod 4231 cooperating with the blocking holes 4233. A thread is provided on the outer side of the splicing rod 4231. Threaded grooves are provided inside both the splicing groove 4232 and the blocking holes 4233, with the threads and threaded grooves cooperating. In use, the blocking hole 4233 structure is used to enhance the stability after splicing and prevent detachment. The cooperation of the threads and threaded grooves allows the assembly rod 423 to be spirally connected, improving the firmness of the connection and facilitating the disassembly and maintenance of the assembly rod 423.

[0028] As a further implementation of the above technical solution: the top of the feeding door 43 is provided with a matching groove, and the matching groove cooperates with the sliding block 4211. The electric push rod 45 is provided with a cleaning plate 451 on the side near the feeding trough 416, and the cleaning plate 451 cooperates with the discharge trough 417. When in use, the matching groove and the sliding block 4211 match so that the moving rod 421 assembly can be adjusted from the top of the feeding door 43 when the door is closed, which improves the convenience of using the moving rod 421. The cleaning plate 451 is connected to the discharge trough 417. By pushing the cleaning plate 451 with the push rod, waste and feces are pushed into the discharge trough 417 to achieve directional cleaning operation and reduce the need for manual cleaning.

[0029] As a further description of the above technical solution: the cesarean section surgical component 5 includes a disinfection chamber 51 disposed on one side of the feeding isolation room 4. A first assembly tube 52 is disposed at one end of the disinfection chamber 51, a second assembly tube 53 is disposed at the end of the first assembly tube 52 away from the disinfection chamber 51, and a temperature-controlled feeding chamber 54 is disposed at the end of the second assembly tube 53 away from the first assembly tube 52. A fastening ring 55 is disposed on the outside of the first assembly tube 52, and the fastening ring 55 is connected to the second assembly tube 53. In use, the modular arrangement of the disinfection chamber 51, the first assembly tube 52, the second assembly tube 53 and the temperature-controlled feeding chamber 54 is arranged in sequence, realizing a standardized spatial distribution for the entire cesarean section process. Each part is connected through the assembly tubes and mechanically locked and sealed by means of the fastening ring 55. The first assembly tube 52 is connected to the disinfection chamber 51, and the second assembly tube 53 is coupled to the first assembly tube 52 through the fastening ring 55 and connected to the temperature-controlled feeding chamber 54, forming a closed operating channel.

[0030] As a further description of the above technical solution: the disinfection chamber 51 includes a disinfection box 511 disposed at one end of the first assembly tube 52. Several placement rods 512 are disposed at the bottom of the disinfection box 511. A disinfection door 513 is disposed in the middle of one side of the disinfection box 511. An air intake fan 514 and an ultraviolet lamp 515 are disposed inside the disinfection box 511 on the side away from the disinfection door 513. Several exhaust holes 516 are opened at the inner bottom of the disinfection box 511. An exhaust groove 517 is disposed at the inner bottom of the disinfection box 511, and the exhaust groove 517 cooperates with the exhaust holes 516. Several exhaust fans 518 are disposed at the bottom of one side of the disinfection box 511, and the exhaust fans 518 cooperate with the exhaust groove 517. The disinfection box 511 has several fixing straps 519 inside. The disinfection box 511 has a first adjustment hole 5110 at the middle of both ends near the first assembly tube 52. Several first assembly holes 5111 are provided on the outer circumference of the first adjustment hole 5110. When in use, the air intake fan 514 introduces external air, while the internal ultraviolet lamp 515 performs surface sterilization. The exhaust hole 516 and the exhaust groove 517 at the bottom form an air passage, and the exhaust fan 518 drives the negative pressure to quickly exhaust the polluted air. During disinfection, the animal is restrained by the fixing straps 519 to prevent displacement during surgery. The first adjustment hole 5110 and the first assembly hole 5111 are used for precise docking with the subsequent assembly structure.

[0031] As a further description of the above technical solution: the first assembly tube 52 includes a first mounting frame 521 disposed at one end of the disinfection box 511. A first moving tube 522 is disposed in the middle of the first mounting frame 521, and the first moving tube 522 cooperates with the first adjusting hole 5110. A plurality of first mounting holes 523 are opened on one side of the first mounting frame 521, and the first mounting holes 523 cooperate with the first assembly holes 5111. A first solenoid valve 524 is disposed in the middle of the first moving tube 522, and a first adjustment valve 524 is disposed at the end of the first moving tube 522 away from the first mounting frame 521. The first docking ring 525 has several first connecting holes 526 and sealing grooves 527 at one end. In use, the first mounting frame 521 is connected to the disinfection box 511 to provide a fixed base. The first moving tube 522 in the middle is inserted into the adjustment hole of the disinfection box 511, and the first mounting holes 523 on both sides are fixed to the assembly holes by threads to achieve quick assembly. The first solenoid valve 524 is installed in the middle of the moving tube to control the opening and closing of the gas flow. The first docking ring 525 has connecting holes and sealing grooves 527 that mate with the sealing gasket 532 in the second assembly tube 53 to ensure the interface is sealed.

[0032] As a further description of the above technical solution: the second assembly tube 53 includes a second docking ring 531 disposed at one end of the first docking ring 525. A sealing gasket 532 is disposed at the end of the second docking ring 531 near the first docking ring 525, and the sealing gasket 532 cooperates with the sealing groove 527. A plurality of second connecting holes 533 are disposed at one end of the second docking ring 531 and on the outer circumference of the sealing gasket 532. A second moving tube 534 is disposed at the end of the second docking ring 531 away from the first docking ring 525. A second solenoid valve 535 is provided in the middle of the second moving tube 534. A second assembly frame 536 is provided at the end of the second moving tube 534 away from the second docking ring 531. A plurality of second mounting holes 537 are provided at one end of the second assembly frame 536. In use, the second docking ring 531 is inserted into the first docking ring 525, and a sealing gasket 532 is provided around the ring and inserted into the sealing groove 527 to form an airtight interface. A second connecting hole 533 is provided around the ring for screws or buckles to fix it, thereby enhancing the joint strength. A second solenoid valve 535 is provided in the middle of the second moving tube 534, which can control the fluid channel in a linkage manner.

[0033] As a further description of the above technical solution: the temperature-controlled breeding chamber 54 includes a temperature-controlled breeding box 541 disposed at one end of the second assembly tube 53. A second adjustment hole 542 is provided at one end of the temperature-controlled breeding box 541 near the second assembly frame 536. A plurality of second assembly holes 543 are provided on the outer circumference of the second adjustment hole 542, and the second assembly holes 543 cooperate with the second mounting holes 537. A plurality of operating gloves 544 are movably disposed on one side of the temperature-controlled breeding box 541. A fan 545 is provided on the top of the other side of the temperature-controlled breeding box 541. A [missing information - likely a device or component] is provided at the bottom of the temperature-controlled breeding box 541. Several support rods 546 are provided. A feeding tube 547 is provided at the end of the temperature-controlled feeding box 541 away from the second assembly tube 53. When in use, the temperature-controlled feeding box 541 is provided with a second adjustment hole 542 and an assembly hole at one end for precise docking with the second assembly tube 53. Several operating gloves 544 are provided on the side wall, so that the operator can operate the animal for cesarean section collection in a closed environment. A fan 545 is provided at the top of the temperature-controlled feeding box 541 to form an internal air circulation to ensure constant internal air temperature. The feeding tube 547 is provided at the tail of the temperature-controlled feeding box 541 to facilitate the rapid delivery of nutrients or medicines during and after the operation.

[0034] Working principle: When using this invention, the operator first disassembles the breeding isolation area 1, enters the breeding isolation room 4, and herds the animals inside the breeding isolation room 4 into the cesarean section surgical component 5. At the same time, the ventilation fan 3 on the top of the breeding isolation area 1 ventilates the breeding isolation room 4. Several monitors 2 are installed on the top of the breeding isolation area 1 to monitor the status of the animals in real time. The breeding isolation room 4 manages the animals to be operated on separately from other animals. The breeding isolation room 4 includes a breeding isolation chamber 41, which is equipped with a breeding isolation component 42 on its top. The sliding structure and the snap-fit ​​groove 414 enable quick assembly and spatial layout adjustment. When the animals are arranged to enter the breeding chamber, the breeding door 43 acts as an entrance and exit channel and cooperates with the sliding block 4211 to ensure safe passage and structural stability.

[0035] To achieve automated management of animals before and after surgery, a water pump 44 connected to a water trough 418 is installed on one side of the feeding isolation chamber 41 to form an automatic water supply system, ensuring a stable water source and reducing the frequency of manual intervention. An electric push rod 45 and a cleaning plate 451 are installed on the other side. The electric push rod 45 drives the cleaning plate 451 to reciprocate, pushing feces and waste from the feeding trough 416 into the discharge trough 417, which then flows to the waste collection chamber 46 below, completing the centralized collection and storage of excrement, avoiding environmental pollution and improving cleaning efficiency. Furthermore, a movable rod 421 is installed at the top of the feeding isolation component 42, with its two ends embedded in the sliding grooves 412 at the top of the feeding isolation wall 411 via sliding blocks 4211, enabling smooth sliding of the component. Several limiting plates 422 are also provided on one side of the movable rod 421 to delineate the animal activity area and connect with the insertion holes 4 on the isolation wall. The 15-locking mechanism further enhances structural stability and the flexibility of module replacement. For ease of operation, the top of the moving rod 421 is equipped with a handle 4212 for manual adjustment. A rotating groove 4213 is located on one side, within which a limiting block 4214 changes the opening angle of the isolation component by rotation, controlling the opening and closing state. This block forms a hinged connection with the rotating hole 4215 and the rotating rod 4221, enabling the limiting plate 422 to have functions such as flipping, folding, and adjustment to adapt to different feeding needs. Furthermore, the assembly rod 423 has splicing rods 4231 and splicing grooves 4232 at both ends, which can be horizontally combined through threaded connections and grooves. Simultaneously, a blocking hole 4233 is provided in the middle of the assembly rod 423, which can also be used for vertical splicing. Multi-angle connections enable modular adjustment of the isolation component, enhancing the system's combination flexibility and spatial adaptability.

[0036] After completing preoperative isolation preparations, the animal enters the surgical procedure through the cesarean section surgical assembly 5 connected to the isolation room 4. The animal first enters the disinfection chamber 51 located at the front end of the assembly. The disinfection chamber 51 is sealed by a disinfection door 513. Inside, there is an air intake fan 514 and an ultraviolet lamp 515, forming an airflow-driven and sterilization combination. The bottom is equipped with an exhaust hole 516 and an exhaust channel 517, and a negative pressure exhaust environment is created by an exhaust fan 518 to achieve rapid discharge of contaminated air. The animal's position is restrained by a fixing strap 519 inside the disinfection chamber 511 to prevent movement and disturbance, and the cesarean section is performed on the animal. A first adjustment hole 5110 and several first assembly holes 5111 are located in the middle of the end near the first assembly tube 52 and are precisely connected to the first assembly tube. The first assembly tube 52 is then connected to the end of the disinfection chamber, and its passage... The first mounting frame 521 is fixed in place. A first moving tube 522 is provided in the center, which is inserted into the adjustment hole and threadedly connected to the assembly hole. A first solenoid valve 524 is provided in the middle of the moving tube to realize automatic control of the gas in the channel. A first docking ring 525 is provided at the end. Its connecting hole 526 and sealing groove 527 are used to achieve a precise sealing connection with the second assembly tube 53. The front end of the second assembly tube 53 is provided with a second docking ring 531. A sealing gasket 532 is provided in the ring and inserted into the sealing groove 527 to form an airtight interface. Multiple second connecting holes 533 are provided outside the ring for mechanical fastening connection. A second solenoid valve 535 is also provided in the middle of the second moving tube 534 at the rear end to realize secondary control management of the flow. The tail end is a second assembly frame 536, which is connected to the temperature-controlled feeding chamber 54 through the second mounting hole 537 to form the entire ventricular channel.

[0037] After the cesarean section, the pups are placed in a temperature-controlled rearing box 541. One end of the temperature-controlled rearing box 541 has a second adjustment hole 542 and a second assembly hole 543 for sealing connection with the second assembly tube 53. Operating gloves 544 are installed on the side to facilitate aseptic operation in a closed environment. The top of the temperature-controlled rearing box 541 is equipped with a fan 545 to form a constant-temperature circulating air system, ensuring a constant-temperature and clean environment inside the box. The bottom is supported by a support rod 546 to maintain structural stability, and a feeding tube 547 is located at the distal end for postoperative nutrition or medication administration.

[0038] Finally, it should be noted that the above are merely preferred embodiments of the present invention and are not intended to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. A cesarean section surgical chamber, characterized in that, Includes an aquaculture isolation cover (1), a monitor (2) is provided at the bottom of the aquaculture isolation cover (1), a ventilation fan (3) is provided at the top of the aquaculture isolation cover (1), a breeding isolation chamber (4) is provided at the bottom of the aquaculture isolation cover (1), and a cesarean section surgical assembly (5) is provided on one side of the breeding isolation chamber (4). The breeding isolation room (4) includes a breeding isolation chamber (41) located at the bottom of the breeding isolation top cover (1), a breeding isolation component (42) is provided on the top of the breeding isolation chamber (41), and a breeding door (43) is provided at one end of the breeding isolation chamber (41). A water pump (44) and an electric push rod (45) are provided on one side of the breeding isolation chamber (41), and a waste collection chamber (46) is provided on the other side of the breeding isolation chamber (41). The breeding isolation chamber (41) includes a breeding isolation wall (411) set at the bottom of the breeding isolation top cover (1). The top two ends of the breeding isolation wall (411) are provided with sliding grooves (412), and the sliding grooves (412) cooperate with the breeding isolation component (42). A plurality of insertion holes (413) are provided on one side of the top of the breeding isolation chamber (41), and a snap-fit ​​groove (414) and an insertion hole (415) are provided on the other side of the top of the breeding isolation chamber (41). The breeding isolation component (42) cooperates with the snap-fit ​​groove (414). The bottom of the feeding isolation wall (411) is provided with a feeding trough (416). The feeding isolation wall (411) is provided with a discharge trough (417) on the bottom side near the insertion hole (413). The feeding trough (416) is connected to the waste collection bin (46) through the discharge trough (417). A drinking trough (418) is inserted at the bottom of one end of the feeding isolation wall (411). The drinking trough (418) is connected to the water pump (44). An inlet and outlet hole (419) is provided in the middle of the feeding isolation wall (411) near the cesarean section surgical component (5). The inlet and outlet hole (419) is connected to the cesarean section surgical component (5). The feeding isolation assembly (42) includes a movable rod (421) set on the top of the feeding isolation wall (411). Several limiting plates (422) are provided on the side of the movable rod (421) near the feeding tank (416). Several assembly rods (423) are movably provided on the top of the movable rod (421), and the assembly rods (423) cooperate with the insertion holes (415). Sliding blocks (4211) are provided at both ends of the movable rod (421). Several handles (4212) are provided on the top of the movable rod (421). A rotating groove (4213) is opened on one side of the movable rod (4211). Several limiting blocks (4214) are provided inside the rotating groove (4213). Rotating holes (4215) are opened at both ends of the limiting blocks (4214). An assembly hole (4216) is provided on the side of the limiting blocks (4214) away from the movable rod (421). The limiting plate (422) has rotating rods (4221) at both ends of its top, and the rotating rods (4221) cooperate with the rotating holes (4215). The assembly rod (423) has a splicing rod (4231) on one side and a splicing groove (4232) on the other side, and the splicing rod (4231) cooperates with the splicing groove (4232). The assembly rod (423) has several obstructions in the middle. Hole (4233), and the splicing rod (4231) is matched with the blocking hole (4233). The splicing rod (4231) is provided with a thread on the outside. The splicing groove (4232) and the blocking hole (4233) are both provided with threaded grooves, and the thread and the threaded groove are matched. The electric push rod (45) is provided with a cleaning plate (451) on the side near the feeding tank (416), and the cleaning plate (451) is matched with the discharge tank (417). The cesarean section surgical assembly (5) includes a disinfection chamber (51) located on one side of the breeding isolation room (4). A first assembly tube (52) is provided at one end of the disinfection chamber (51). A second assembly tube (53) is provided at the end of the first assembly tube (52) away from the disinfection chamber (51). A temperature-controlled breeding chamber (54) is provided at the end of the second assembly tube (53) away from the first assembly tube (52). A fastening ring (55) is provided on the outside of the first assembly tube (52), and the fastening ring (55) is connected to the second assembly tube (53). The temperature-controlled feeding chamber (54) includes a temperature-controlled feeding box (541) set at one end of the second assembly tube (53). The animal is given a cesarean section in the disinfection chamber (51), and the cubs after the cesarean section are placed in the temperature-controlled feeding box (541).

2. The cesarean section surgical chamber according to claim 1, characterized in that: The disinfection chamber (51) includes a disinfection box (511) disposed at one end of the first assembly tube (52). The bottom of the disinfection box (511) is provided with several placement rods (512). A disinfection door (513) is provided in the middle of one side of the disinfection box (511). An air intake fan (514) and an ultraviolet lamp (515) are provided on the side of the inside of the disinfection box (511) away from the disinfection door (513). The disinfection box (511) has several exhaust holes (516) at its inner bottom end. The disinfection box (511) has an exhaust groove (517) at its inner bottom, and the exhaust groove (517) cooperates with the exhaust holes (516). The disinfection box (511) has several exhaust fans (518) at one bottom side, and the exhaust fans (518) cooperate with the exhaust groove (517). The disinfection box (511) has several fixing straps (519) inside. The disinfection box (511) has a first adjustment hole (5110) at the middle of both ends. The first adjustment hole (5110) has several first assembly holes (5111) on the outer circumference of the first adjustment hole (5110).

3. The cesarean section surgical chamber according to claim 2, characterized in that: The first assembly tube (52) includes a first mounting frame (521) disposed at one end of the disinfection box (511). A first moving tube (522) is disposed in the middle of the first mounting frame (521), and the first moving tube (522) cooperates with the first adjusting hole (5110). A plurality of first mounting holes (523) are opened on one side of the first mounting frame (521), and the first mounting holes (523) cooperate with the first assembly hole (5111). A first solenoid valve (524) is disposed in the middle of the first moving tube (522). A first docking ring (525) is disposed at one end of the first moving tube (522) away from the first mounting frame (521). A plurality of first connecting holes (526) and sealing grooves (527) are disposed at one end of the first docking ring (525).

4. The cesarean section surgical chamber according to claim 3, characterized in that: The second assembly tube (53) includes a second docking ring (531) disposed at one end of the first docking ring (525). A sealing gasket (532) is disposed at one end of the second docking ring (531) near the first docking ring (525), and the sealing gasket (532) cooperates with the sealing groove (527). A plurality of second connecting holes (533) are disposed at one end of the second docking ring (531) and on the outer circumference of the sealing gasket (532). The second docking ring (531) is provided with a second moving tube (534) at one end away from the first docking ring (525), a second solenoid valve (535) is provided in the middle of the second moving tube (534), a second assembly frame (536) is provided at one end away from the second docking ring (531), and a plurality of second mounting holes (537) are provided at one end of the second assembly frame (536).

5. A cesarean section surgical chamber according to claim 4, characterized in that: The temperature-controlled feeding box (541) has a second adjustment hole (542) at one end near the second assembly frame (536). A plurality of second assembly holes (543) are provided on the outer circumference of the second adjustment hole (542), and the second assembly holes (543) cooperate with the second mounting holes (537). Several operating gloves (544) are movably installed on one side of the temperature-controlled feeding box (541), a blower (545) is installed on the top of the other side of the temperature-controlled feeding box (541), several support rods (546) are installed at the bottom of the temperature-controlled feeding box (541), and a feeding tube (547) is installed at the end of the temperature-controlled feeding box (541) away from the second assembly tube (53).

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