Assembly type livestock pregnancy room in high and cold pasturing area
By designing prefabricated gestation sheds in high-altitude pastoral areas, and using foundation support frames, insulated floorboards, and double-membrane support arch structures, the problem of insufficient insulation in traditional livestock sheds in high-altitude pastoral areas has been solved, thereby improving the survival rate of livestock during gestation and the adaptability of the facilities.
Patent Information
- Application Number
- CN202422541104.5
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-21
- Publication Date
- 2025-12-26
- Estimated Expiration
- 2034-10-21
AI Technical Summary
Traditional fixed livestock sheds cannot provide sufficient insulation and a comfortable environment in high-altitude pastoral areas, cannot meet the growth and development needs of livestock during pregnancy, and cannot adapt to the problems of nomadic migration and the penetration of cold air from the ground.
A prefabricated gestation house for livestock in high-altitude pastoral areas was designed. It adopts a foundation support frame, an insulated base plate, a prefabricated rear wall and a double-membrane support arch frame structure, combined with a light-transmitting membrane and a floor heating system to form a multi-layer insulation structure that can adapt to uneven terrain and has the ability to be quickly assembled and disassembled.
It has enabled the provision of a stable, warm environment in high-altitude pastoral areas, improved the survival rate of livestock during pregnancy, adapted to the needs of nomadic life, reduced the impact of ground cold, and enhanced the stability and insulation performance of facilities.
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Figure CN223714775U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to the field of visibility instrument especially is related to a high cold pastoral area livestock assembly type pregnancy room. BACKGROUND
[0002] In the high cold pastoral area, due to cold climate and bad environment, the survival rate and health condition of the pregnancy period of livestock are often affected. The winter temperature can be reduced to minus tens of degrees Celsius, plus the permafrost of ground all the year round, and the traditional livestock house is difficult to provide sufficient heat preservation and comfortable environment, which directly affects the growth and development of pregnant female livestock and young animals. The high cold area is wide and sparsely populated, and adopts the nomadic life style, so that the construction and maintenance of the livestock house face multiple challenges. The fixed livestock house not only cannot meet the demand of nomadic migration, but also is difficult to adjust flexibly according to the number of livestock. At the same time, these facilities directly contact the frozen soil, and the cold air penetrates from the ground upwards, so that the indoor temperature is difficult to maintain. Therefore, a livestock assembly type pregnancy room suitable for the high cold pastoral area is designed to solve these problems. SUMMARY
[0003] The main purpose of the utility model is to provide a high cold pastoral area livestock assembly type pregnancy room, which solves the problem that the traditional fixed livestock house is difficult to provide sufficient heat preservation and comfortable environment, and cannot meet the demand of nomadic migration.
[0004] To solve the above technical problems, the utility model adopts the technical scheme of a high cold pastoral area livestock assembly type pregnancy room, comprising:
[0005] The foundation support frame is used for isolating the ground cold air.
[0006] The heat preservation bottom plate structure is arranged on the foundation support frame.
[0007] The assembly type rear wall body structure is arranged at the rear side edge of the top of the heat preservation bottom plate structure.
[0008] The assembly type support seat is arranged at the front edge of the top of the heat preservation bottom plate structure.
[0009] The assembly type double-membrane support arch is multiple in number and is erected equidistantly on the assembly type rear wall body structure and the assembly type support seat, and the first light-transmitting membrane and the second light-transmitting membrane are sequentially arranged on the assembly type double-membrane support arch, and the heat preservation chamber is formed between the first light-transmitting membrane and the second light-transmitting membrane, and the two sides of the first light-transmitting membrane and the second light-transmitting membrane abut against the heat preservation bottom plate structure, and the front and back of the first light-transmitting membrane and the second light-transmitting membrane abut against the assembly type rear wall body structure and the assembly type support seat respectively.
[0010] In the preferred scheme, the assembly type double-membrane support arch comprises upper support seats and lower support seats mounted on the assembly type rear wall body structure and the assembly type support seat respectively, and the lower arch truss and the upper arch truss are sequentially arranged from bottom to top between the upper support seats and the lower support seats, the first light-transmitting membrane is arranged on the lower arch truss, and the second light-transmitting membrane is arranged on the upper arch truss.
[0011] In the preferred embodiment, the upper support seat and the lower support seat are both L-shaped and fixed by bolts.
[0012] In the preferred embodiment, the heat preservation bottom plate structure comprises a bottom plate arranged on the foundation support frame, a support frame arranged around the circumference of the bottom plate, and a plurality of support frames distributed between the floor heating pipes; the top of the support frame and the support frame is provided with a bottom top plate.
[0013] In the preferred embodiment, the assembled rear wall structure comprises a U-shaped butt joint groove arranged on the bottom top plate, a plurality of upwardly extending insertion ribs arranged in the groove of the U-shaped butt joint groove, a plurality of assembled heat preservation walls arranged in the U-shaped butt joint groove in sequence, and the bottom of the assembled heat preservation wall is provided with an insertion hole matched with the insertion rib, which can be inserted into the corresponding insertion rib; the butt joint of adjacent assembled heat preservation walls is provided with a pair of symmetrical T-shaped grooves, when the two are butt jointed, the two T-shaped grooves are connected into an H-shaped groove, and an H-shaped connecting piece is inserted into the H-shaped groove.
[0014] In the preferred embodiment, the cross section of the assembled heat preservation wall is T-shaped, and is composed of two outer plates and a heat preservation sandwich plate arranged between the two outer plates; an air layer is arranged between the two outer plates and the heat preservation sandwich plate.
[0015] In the preferred embodiment, the top of the bottom top plate is provided with a mounting groove matched with the U-shaped butt joint groove and the assembled support seat respectively.
[0016] In the preferred embodiment, the foundation support frame comprises a plurality of longitudinal beams arranged in sequence, and a plurality of transverse beams arranged on the top of all longitudinal beams; the longitudinal beam is provided with a floor support part capable of adjusting the support height, and the floor support part is distributed between the transverse beams.
[0017] In the preferred embodiment, the floor support part comprises an internally threaded sleeve arranged through the longitudinal beam, a plurality of limiting grooves arranged on the inner wall surface of the internally threaded sleeve, a telescopic support leg telescopically inserted into the bottom end of the internally threaded sleeve, a limiting block arranged on the outside of the telescopic support leg and slidably connected with the corresponding limiting groove, a floor plate arranged at the bottom of the telescopic support leg, a telescopic spring arranged between the floor plate and the longitudinal beam and sleeved with the internally threaded sleeve and the outside of the telescopic support leg, and a limiting threaded shaft arranged at the top of the internally threaded sleeve and capable of abutting against the top end of the telescopic support leg.
[0018] The floor support part further comprises two mounting pieces symmetrically arranged on both sides of the longitudinal beam, the two mounting pieces are coaxially arranged with the internally threaded sleeve, a U-shaped locking piece is telescopically inserted into the two mounting pieces, a threaded wire is arranged on both ends of the U-shaped locking piece, and a locking nut is threadedly sleeved with the outside of the threaded wire.
[0019] In the preferred embodiment, the top of the transverse beam is provided with a plurality of threaded rods, and the bottom plate is provided with a plurality of through holes corresponding to the threaded rods.
[0020] The side surface of the first light-transmitting film and the second light-transmitting film is provided with a ventilation duct penetrating through the two.
[0021] The utility model provides a kind of high-cold pastoral area livestock assembly type pregnancy room, using assembly type structure, each part can be quickly assembled, save construction time, adapt to the remote handling demand of high-cold pastoral area, effectively block outside cold by multilayer heat preservation structure design, keep indoor warm environment, especially suitable for high-cold area livestock pregnancy room use, improve the survival rate of livestock, while the floor support part on foundation support frame can be adjusted height by telescopic support leg, adapt to the uneven situation of high-cold pastoral area topography, ensure the overall level and stability of facility, reduce the influence of ground cold air simultaneously, improve the thermal performance of bottom plate. BRIEF DESCRIPTION OF DRAWINGS
[0022] The utility model will be further described below in connection with the drawings and examples:
[0023] Figure 1 It is the overall structural diagram of the utility model;
[0024] Figure 2 It is the first light-transmitting film connecting structure diagram of the utility model;
[0025] Figure 3 It is the explosion structure diagram of the utility model;
[0026] Figure 4 It is the assembly type double membrane support arch structure diagram of the utility model;
[0027] Figure 5 It is the heat preservation bottom plate structure explosion structure diagram of the utility model;
[0028] Figure 6 It is the assembly type rear wall structure explosion structure diagram of the utility model;
[0029] Figure 7 It is the assembly type heat preservation wall section structure diagram of the utility model;
[0030] Figure 8 It is the floor support part structure diagram of the utility model;
[0031] In the figure: foundation support frame 1; longitudinal beam 11; floor support part 12; internal thread sleeve 120; telescopic support leg 121; limiting groove 122; limiting block 123; telescopic spring 124; limiting threaded shaft 125; mounting sheet 126; U-shaped locking piece 127; locking nut 128; floor plate 129; transverse beam 13; threaded rod 14; heat preservation bottom plate structure 2; bottom plate 201; perforation 202; floor heating pipe 203; support frame 204; support frame 205; bottom top plate 206; mounting groove 207; fabricated rear wall structure 3; U-shaped butt joint groove 301; insertion rib 302; fabricated heat preservation wall 303; outer plate 3030; heat preservation sandwich panel 3031; air layer 3032; H-shaped connecting piece 304; fabricated support seat 4; fabricated double membrane support arch 6; upper support seat 601; lower support seat 602; lower arch truss 603; upper arch truss 604; first light-transmitting film 7; second light-transmitting film 8; ventilation pipe 9. DETAILED DESCRIPTION
[0032] As Figures 1-8 shown, a high-cold pastoral area livestock fabricated pregnancy room comprises a foundation support frame 1, a heat preservation bottom plate structure 2, a fabricated rear wall structure 3, a fabricated support seat 4, and a fabricated double membrane support arch 6.
[0033] The foundation support frame 1 is used to isolate ground cold air, can effectively avoid the structure directly contacting the ground, make the structure above suspended, can effectively isolate the ground cold air, and improve the heat preservation effect of the facility.
[0034] The heat preservation bottom plate structure 2 is arranged on the foundation support frame 1 and is used to support the structure above.
[0035] The fabricated rear wall structure 3 is arranged at the rear edge of the top of the heat preservation bottom plate structure 2.
[0036] The fabricated support seat 4 is arranged at the front edge of the top of the heat preservation bottom plate structure 2.
[0037] The fabricated double membrane support arch 6 is multiple in number and is equidistantly arranged on the fabricated rear wall structure 3 and the fabricated support seat 4, the number of the fabricated double membrane support arch 6 in the embodiment is three, the first light-transmitting film 7 and the second light-transmitting film 8 are sequentially arranged on the fabricated double membrane support arch 6, a heat preservation chamber is formed between the first light-transmitting film 7 and the second light-transmitting film 8, the two sides of the first light-transmitting film 7 and the second light-transmitting film 8 abut against the heat preservation bottom plate structure 2, and the front and back of the first light-transmitting film 7 and the second light-transmitting film 8 abut against the fabricated rear wall structure 3 and the fabricated support seat 4 respectively.
[0038] It should be noted that the two outermost assembled double-membrane support arches 6 are respectively located at the edges of the two sides of the heat preservation bottom plate structure 2, the first light-transmitting membrane 7 and the second light-transmitting membrane 8 can be made of ETFE membrane, polycarbonate or other materials with high light transmission and good heat preservation performance to ensure the light transmission effect, fully utilize natural light for indoor lighting, and at the same time provide good heat preservation performance through the air layer in the middle. In addition, compared with the fixed assembly structure, the first light-transmitting membrane 7 and the second light-transmitting membrane 8 have the advantage of being light and easy to carry, and the connection between the first light-transmitting membrane 7 and the second light-transmitting membrane 8 and the heat preservation bottom plate structure 2, the assembled rear wall structure 3 and the assembled support seat 4 needs to ensure close contact to prevent air leakage.
[0039] In this way, the facility can be elevated by the foundation support frame 1 to avoid the invasion of frozen soil cold air, and the assembled structure is convenient for rapid installation and disassembly. At the same time, the design of the double-layer light-transmitting membrane can provide natural light and has excellent heat preservation effect, which can adapt to the harsh climate in cold regions.
[0040] In the preferred embodiment, the assembled double-membrane support arch 6 includes an upper support seat 601 and a lower support seat 602 respectively mounted on the assembled rear wall structure 3 and the assembled support seat 4. The upper support seat 601 and the lower support seat 602 are both L-shaped and can be connected to the assembled rear wall structure 3 and the assembled support seat 4 respectively and fixed by bolts.
[0041] The upper support seat 601 and the lower support seat 602 are sequentially fixed with a lower arch truss 603 and an upper arch truss 604 from bottom to top. The trusses are connected by bolts or rivets, which are easy to reassemble according to the seasonal changes or migration needs, forming a stable frame structure. The first light-transmitting membrane 7 is arranged on the lower arch truss 603, and the second light-transmitting membrane 8 is arranged on the upper arch truss 604.
[0042] The double support of the lower arch truss 603 and the upper arch truss 604 enhances the stability and wind pressure resistance of the overall structure, adapts to harsh weather conditions, and at the same time ensures the space size of the heat preservation chamber between the first light-transmitting membrane 7 and the second light-transmitting membrane 8. In addition, the lower arch truss 603 and the upper arch truss 604 form an integrated structure through the upper support seat 601 and the lower support seat 602, which is convenient for disassembly and assembly.
[0043] In the preferred embodiment, the heat preservation bottom plate structure 2 includes a bottom plate 201 arranged on the foundation support frame 1, which is used to support the weight of the entire pregnancy room and isolate the ground cold air. The bottom plate 201 is provided with a floor heating pipe 203, a support frame 204 arranged around the circumference and a plurality of support frames 205 distributed between the floor heating pipes 203. The top of the support frame 204 and the support frame 205 is provided with a bottom roof 206.
[0044] In this way, the floor heating pipe 203 is used to provide stable low-temperature heating, and the temperature of the floor surface is raised by circulating hot water to prevent cold air from the ground from spreading upwards in cold weather, ensuring a warm and comfortable indoor environment. The support frame 204 and the support bracket 205 can enhance the overall stability of the floor structure, so that the floor 201 is not easily deformed when bearing the weight of livestock and facilities. The floor 201, the support frame 204, the support bracket 205 and the bottom roof 206 are connected by bolt fixation, and can be modularly assembled. The size can be adjusted according to the use area. In addition, in order to ensure that the floor heating pipe 203 can be used normally, a circulating solar water heater and a pump body are also provided, thereby forming an effective heat circulation. This is a common technical means for using the floor heating pipe 203, and therefore will not be described in detail.
[0045] In the preferred embodiment, the assembled rear wall structure 3 includes a U-shaped butt joint groove 301 arranged on the bottom roof 206. The U-shaped butt joint groove 301 serves to fix the lower part of the rear wall. A plurality of upwardly extending insertion ribs 302 are arranged in the groove of the U-shaped butt joint groove 301. The insertion ribs 302 are distributed and provide firm support. A plurality of assembled insulation wall bodies 303 are inserted into the U-shaped butt joint groove 301 in sequence. The bottom of the assembled insulation wall body 303 is provided with an insertion hole matched with the insertion rib 302, which can be inserted into the corresponding insertion rib 302. During installation, the insertion hole of the assembled insulation wall body 303 corresponds to the insertion rib 302, and the wall body is quickly fixed by insertion, ensuring the convenience of wall body installation. At the same time, the accurate insertion position makes the wall body stable and not easy to shift or loosen, further improving the wind and snow resistance of the overall structure.
[0046] The butt joint of adjacent assembled insulation wall bodies 303 is provided with a pair of symmetrical T-shaped grooves. When the two are butt jointed, the two T-shaped grooves are connected into an H-shaped groove, and an H-shaped connecting piece 304 is inserted therein, so that the butt joint of adjacent assembled insulation wall bodies 303 is more firm, ensuring seamless butt joint between wall body modules and further improving the wind resistance and insulation effect of the structure.
[0047] In the preferred embodiment, the cross section of the assembled insulation wall body 303 is T-shaped, which is convenient for better supporting the assembled double-membrane support arch 6 through the wider top structure. The assembled insulation wall body 303 is composed of two outer plates 3030 and a thermal insulation sandwich plate 3031 arranged between the two outer plates 3030. The outer plate is made of weather-resistant steel plate or composite material plate, which can resist extreme weather conditions such as strong wind, low temperature and heavy snow in high-cold regions. The thermal insulation sandwich plate 3031 is made of polyurethane foam or polystyrene, which has excellent insulation performance and can effectively block the entry of external cold air into the room.
[0048] The air layer 3032 is arranged between the two outer plates 3030 and the thermal insulation sandwich plate 3031, and the air layer 3032 can reduce the heat conduction between the inside and outside of the wall body by forming a static air layer, thereby further improving the thermal insulation performance of the wall body. The design of the air layer can effectively prevent condensation caused by a large temperature difference, maintain a dry environment inside and outside the wall body, and prolong the service life of the wall body.
[0049] It should be noted that the bottom plate 201 and the bottom top plate 206 can also adopt the assembled thermal insulation wall body 303 structure, and in addition, one of the assembled thermal insulation wall bodies 303 is provided with an opening and closing door for convenient access.
[0050] In the preferred embodiment, the top of the bottom top plate 206 is provided with a mounting groove 207 matched with the U-shaped butt joint groove 301 and the assembled support seat 4, respectively, so as to facilitate the installation of the U-shaped butt joint groove 301 and the assembled support seat 4 by means of insertion, and in order to further improve the connection stability and convenience, the bolts can be further fixed.
[0051] It should be noted that the assembled support seat 4 can be a modular structure same as the assembled rear wall body structure 3, and in addition, it should be noted that the height difference between the two needs to meet the curvature requirement of the assembled double-membrane support arch 6, and the curvature of the assembled double-membrane support arch 6 can effectively prevent the accumulation of snow.
[0052] In the preferred embodiment, since the terrain condition in the high-cold pastoral area is complex and uneven, the commonly used support frame is difficult to provide stable support, and therefore a foundation support frame 1 is proposed, which comprises a plurality of longitudinal beams 11 arranged in sequence and a plurality of transverse beams 13 arranged on the top of all the longitudinal beams 11. The longitudinal beams 11 are arranged along the length direction of the gestation room to provide a basic support frame, and the transverse beams 13 are arranged in cross with the longitudinal beams 11 to form a grid structure for uniformly distributing the weight of the upper structure and improving the overall stability. The longitudinal beams and the transverse beams can be made of weather-resistant steel or aluminum alloy, which has sufficient strength to bear the weight of the gestation facility and can resist corrosion and climate erosion in the high-cold environment.
[0053] The longitudinal beams 11 are provided with floor support portions 12 capable of adjusting the support height, and the floor support portions 12 are distributed between the transverse beams 13. They have the function of providing adjustable height support to adapt to the unevenness of the terrain and ensure the overall horizontal stability of the foundation support frame.
[0054] The floor support part 12 comprises an internally threaded sleeve 120 provided through the longitudinal beam 11, a plurality of limiting grooves 122 are arranged on the inner wall surface of the internally threaded sleeve 120, and a telescopic supporting leg 121 is telescopically connected to the bottom end of the internally threaded sleeve 120; the outer part of the telescopic supporting leg 121 is provided with a limiting block 123 which is in sliding connection with the corresponding limiting groove 122; in the embodiment, the number of the limiting grooves 122 and the limiting blocks 123 is four, and they are equidistantly distributed to limit the telescopic length and avoid disengagement; the bottom of the telescopic supporting leg 121 is provided with a floor plate 129 which is used to contact the ground and has a diameter larger than that of the telescopic supporting leg 121 to improve the ground support stability; the telescopic spring 124 is arranged between the floor plate 129 and the longitudinal beam 11 and is sleeved with the telescopic supporting leg 121 and the internally threaded sleeve 120, and the telescopic spring 124 can provide additional buffering and adjusting functions to adapt to a certain degree of height difference on uneven ground and enhance the stability of the support.
[0055] The top of the internally threaded sleeve 120 is provided with a limiting threaded shaft 125 which can abut against the top end of the telescopic supporting leg 121, so that the height of the telescopic supporting leg 121 can be further accurately controlled and the telescopic supporting leg 121 can be locked after being adjusted to the right position.
[0056] The floor support part 12 further comprises two mounting plates 126 which are symmetrically arranged on both sides of the longitudinal beam 11 and are coaxially arranged with the internally threaded sleeve 120; the U-shaped locking piece 127 is inserted through the two mounting plates 126; the two ends of the U-shaped locking piece 127 are provided with threaded wires, and the outer part of the threaded wires is sleeved with the locking nuts 128 to lock the U-shaped locking piece 127, so as to ensure the close connection between the internally threaded sleeve and the mounting plate and prevent the structure from loosening or deviating during use.
[0057] In this way, the multiple floor support parts 12 provide stable support and adjusting capacity for the foundation support frame 1, so that the entire pregnancy room can adapt to complex terrain conditions and can be kept horizontal by adjusting the height of the telescopic supporting leg 121; meanwhile, the telescopic spring 124 enhances the adaptability of the foundation to irregular ground, the limiting threaded shaft 125 ensures the stability of the supporting leg after adjustment, and the U-shaped locking piece 127 further enhances the safety and durability of the overall structure.
[0058] In the preferred scheme, the top of the transverse beam 13 is provided with a plurality of threaded rods 14, and the bottom plate 201 is provided with through holes 202 corresponding to the threaded rods 14; when the threaded rods 14 pass through the through holes 202 of the bottom plate 201, the installation nuts are used to fix the threaded rods 14 and the bottom plate 201;
[0059] The side surfaces of the first light-transmitting film 7 and the second light-transmitting film 8 are provided with the ventilation duct 9 which penetrates the two light-transmitting films, so as to facilitate air exchange.
[0060] The above-mentioned embodiments are only the preferred technical solutions of the present application, and should not be regarded as the limitation of the present application. The protection scope of the present application should be the technical solutions recorded in the claims, including the equivalent replacement solutions of the technical features recorded in the claims as the protection scope. That is, the equivalent replacement improvements within the scope are also within the protection scope of the present application.
Claims
1. A high-cold pasture area livestock assembly type pregnancy room, characterized in that, include: Foundation support frame (1) is used to support the maternity ward on uneven ground and to insulate it from the cold air from the ground; The thermal insulation base plate structure (2) is set on the foundation support frame (1); The prefabricated rear wall structure (3) is set at the rear edge of the top of the thermal insulation base plate structure (2); The prefabricated support base (4) is set at the front edge of the top of the thermal insulation base plate structure (2); Multiple prefabricated double-membrane support arches (6) are installed at equal intervals on the prefabricated rear wall structure (3) and the prefabricated support base (4). A first light-transmitting membrane (7) and a second light-transmitting membrane (8) are installed on them in sequence, forming an insulation chamber between them. The sides of the first light-transmitting membrane (7) and the second light-transmitting membrane (8) abut against the insulation base plate structure (2), and the front and back abut against the prefabricated rear wall structure (3) and the prefabricated support base (4) respectively.
2. The high-cold pasture area livestock assembly type pregnancy room according to claim 1, characterized in that: The prefabricated double-membrane support arch (6) includes an upper support (601) and a lower support (602) respectively installed on the prefabricated rear wall structure (3) and the prefabricated support (4). A lower arch truss (603) and an upper arch truss (604) are arranged between the upper support (601) and the lower support (602) from bottom to top. A first light-transmitting membrane (7) is arranged on the lower arch truss (603) and a second light-transmitting membrane (8) is arranged on the upper arch truss (604).
3. The high-cold pasture area livestock assembly type gestation house according to claim 2, characterized in that: Both the upper support (601) and the lower support (602) are L-shaped and fixed by bolts.
4. The high-cold pasture area livestock assembly type gestation house according to claim 2, characterized in that: The thermal insulation base plate structure (2) includes a base plate (201) set on the foundation support frame (1), on which underfloor heating pipes (203) are arranged, a support frame (204) set around its perimeter and multiple support frames (205) distributed among the underfloor heating pipes (203), and a bottom plate (206) is set on the top of the support frame (204) and the support frame (205).
5. The high-cold pasture area livestock assembled pregnancy room according to claim 4, characterized in that: The prefabricated rear wall structure (3) includes a U-shaped docking groove (301) set on the bottom plate (206). Multiple upwardly extending insert ribs (302) are provided in the groove of the U-shaped docking groove (301). Multiple prefabricated insulation wall bodies (303) are inserted into the U-shaped docking groove (301) in sequence. The bottom of the prefabricated insulation wall body (303) is provided with an insertion hole that matches the insert rib (302) so that the corresponding insert rib (302) can be inserted. The joint of adjacent prefabricated insulation wall bodies (303) is provided with symmetrical T-shaped grooves. When the two are joined, the two T-shaped grooves are connected to form an H-shaped groove, and an H-shaped connector (304) is inserted into it.
6. The high-cold pasture area livestock assembled pregnancy room according to claim 5, characterized in that: The prefabricated insulated wall (303) has a T-shaped cross section and consists of two outer panels (3030) and an insulated sandwich panel (3031) between the two outer panels (3030). An air gap (3032) is provided between the two outer panels (3030) and the insulated sandwich panel (3031).
7. The high-cold pasture area livestock assembled pregnancy room according to claim 6, characterized in that: The top of the bottom plate (206) is provided with mounting grooves (207) that match the U-shaped docking groove (301) and the assembled support base (4), respectively.
8. The high-cold pasture area livestock assembly type gestation house according to any one of claims 4-7, characterized in that: The ground support frame (1) comprises a plurality of longitudinal beams (11) arranged in sequence, and a plurality of transverse beams (13) arranged on the top of all longitudinal beams (11), wherein the longitudinal beams (11) are provided with floor support parts (12) with adjustable support height, and the floor support parts (12) are distributed between the transverse beams (13).
9. The high-cold pasture area livestock assembled pregnancy room according to claim 8, characterized in that: The floor support part (12) comprises an internally threaded sleeve (120) arranged through the longitudinal beam (11), a plurality of limiting grooves (122) are arranged on the inner wall surface of the internally threaded sleeve (120), a telescopic supporting leg (121) is telescopically connected to the bottom end of the internally threaded sleeve (120), a limiting block (123) is arranged on the outside of the telescopic supporting leg (121) and is in sliding connection with the corresponding limiting groove (122), a floor plate (129) is arranged at the bottom of the telescopic supporting leg (121), a telescopic spring (124) is arranged outside the telescopic supporting leg (121) and between the floor plate (129) and the longitudinal beam (11), and a limiting threaded shaft (125) is arranged at the top of the internally threaded sleeve (120) and can abut against the top end of the telescopic supporting leg (121); The floor support part (12) further comprises mounting pieces (126) symmetrically arranged on both sides of the longitudinal beam (11), the two mounting pieces (126) are coaxially arranged with the internally threaded sleeve (120), a U-shaped locking piece (127) is telescopically connected through the two mounting pieces (126), and threaded wires are arranged on both ends of the U-shaped locking piece (127), and the threaded wires are externally threaded with lock nuts (128).
10. The high-cold pasture area livestock assembled pregnancy room according to claim 9, characterized in that: The top of the transverse beam (13) is provided with a plurality of threaded rods (14), and the bottom plate (201) is provided with a plurality of through holes (202) corresponding to the threaded rods (14). The side surfaces of the first light-transmitting film (7) and the second light-transmitting film (8) are provided with a ventilation duct (9) penetrating the two.