Low-energy-consumption light corrosion-resistant splicing foldable barrack

Abstract

The utility model discloses a low-energy-consumption light corrosion-resistant foldable barrack capable of being spliced. The barrack comprises a fixing module, two ground modules, two front wall modules, two first gable wall modules, two second gable wall modules, two roof modules, four pneumatic supporting assemblies, a plurality of foot pad supporting assemblies, four pull rod modules, a plurality of pin shaft assemblies and reinforcing bolts. The fixing module comprises a frame assembly, a ground connecting assembly, two gable wall connecting assemblies, a roof connecting assembly and a skin assembly. According to the low-energy-consumption, light-weight and corrosion-resistant foldable barrack capable of being spliced, according to the scheme, a main frame is made of 6EXX-series high-strength and corrosion-resistant aluminum alloy, and keels and enclosure plate shells are made. The 6EXX aluminum alloy has high strength and super corrosion resistance, the corrosion resistance reaches the EA level, the tensile strength can be preferably 6E70 (the tensile strength is 400 MPa, and the yield strength is 382 MPa) or 6E63 according to needs, the problem that the folding house is prone to corrosion in the coastal area is solved, and the durability is greatly improved.

Description

Technical Field

[0001] The utility model relates to the field of folding barracks, in particular to a low-energy-consumption, lightweight, corrosion-resistant and splicable folding barracks. Background Art

[0002] Barracks structure, the arrangement and composition of the various components of the barracks. The barracks have different structures according to their usage and structural types. They usually include foundation, ground, wall, floor, stairs, door, window, roof, awning, and splashing water. Some of the components play a protective role, some play a partition role, and some play a load-bearing role to ensure the integrity, applicability, and safety of the barracks.

[0003] However, the existing ones have the following problems: 1. The existing folding houses mostly use steel or ordinary aluminum alloy as keels. The use of folding houses in coastal areas and islands is due to salt spray corrosion, and the houses are prone to rust.

[0004] 2. Existing folding houses generally use steel keels, and the high thermal conductivity of the keels is not conducive to energy saving and heat preservation. EPS sandwich panels or rock wool sandwich panels are used, which have high thermal conductivity, low thermal inertia, poor sound insulation, low comfort, and low fire resistance.

[0005] 3. Existing folding houses can generally only be used independently and cannot be extended at will.

[0006] 4. The existing folding house has a large weight and is not easy to transport.

[0007] 5. Existing folding houses and mobile houses have poor wind resistance. Utility Model Content

[0008] In view of the problems in the related technology, the utility model proposes a low-energy-consumption, lightweight, corrosion-resistant and spliced ​​foldable barracks to overcome the above-mentioned technical problems existing in the existing related technology.

[0009] To this end, the specific technical scheme adopted by the utility model is as follows: a low-energy, lightweight, corrosion-resistant, splicable and foldable barracks, including a fixed module, two ground modules, two front wall modules, two first gable modules, two second gable modules, two roof modules, four pneumatic support assemblies, a number of foot pad support assemblies, four pull rod modules, a number of pin assemblies, and reinforcement bolts; the fixed module includes a frame assembly, a ground connection assembly, two gable connection assemblies, a roof connection assembly, and a skin assembly.

[0010] Preferably, the frame assembly includes an aluminum alloy profile 1, an aluminum alloy corner bracket, anti-drop bolts, connecting bolts, and rubber pads; the aluminum alloy profile 1 and the aluminum alloy corner bracket are fixedly connected by anti-drop bolts.

[0011] Preferably, the ground connection component includes aluminum alloy profile 2, aluminum alloy profile 3 and intermediate rolling 1, a first polyurethane thermal insulation material, a second polyurethane thermal insulation material, an anti-lateral thrust deformation rubber strip, a second polyurethane thermal insulation material, and an anti-lateral thrust deformation rubber strip; the intermediate rolling 1 is a reinforced PA66 thermal insulation strip composed of a broken bridge profile; the aluminum alloy profile 2, aluminum alloy profile 3 and intermediate rolling 1 are filled with the first polyurethane thermal insulation material; the aluminum alloy profile 2 and aluminum alloy profile 3 are provided with mounting holes and process holes, the mounting holes are injected with the second polyurethane thermal insulation material, and the process holes are closed with the second polyurethane thermal insulation material; the frame component and the ground connection component are connected by connecting bolts, and the connecting bolts of the frame component and the ground connection component are connected by rubber pads; the aluminum alloy profile 1 and the notch of the aluminum alloy angle code are connected by an anti-lateral thrust deformation rubber strip; the ground connection component connects the frame component and the ground connection component together by connecting bolts.

[0012] Preferably, the gable connection component includes aluminum alloy profile four, aluminum alloy profile five, intermediate rolled profile two, polyurethane insulation one, polyurethane insulation two, insulation plate one, and a first mounting bolt; the intermediate rolled profile two reinforced PA66 thermal insulation strip is composed of a broken bridge profile, and the aluminum alloy profile four, aluminum alloy profile five and the intermediate rolled profile two cavities are filled with polyurethane insulation one; the outer walls of the aluminum alloy profile four and the aluminum alloy profile five are provided with mounting holes and process holes at the positions of the mounting bolts of the connecting bolts, and the aluminum alloy profile four and the aluminum alloy profile five are injected with polyurethane insulation two at the mounting hole positions after the aluminum alloy profile four and the aluminum alloy profile five are installed with bolts; the insulation plate one is fixed in the gable connection component frame by the first mounting bolt; the gable connection component connects the frame component and the gable connection component together by connecting bolts.

[0013] Preferably, the roof connection assembly includes aluminum alloy profile eight, aluminum alloy profile nine, intermediate roll-pressed profile three, polyurethane thermal insulation three, polyurethane thermal insulation five, thermal insulation board two, second mounting bolts, aluminum alloy profile ten, aluminum alloy profile eleven, intermediate roll-pressed profile five, polyurethane thermal insulation six; the intermediate roll-pressed profile three is a reinforced PA66 thermal insulation strip composed of a broken bridge profile; the cavities of aluminum alloy profile eight, aluminum alloy profile nine and intermediate roll-pressed profile three are filled with polyurethane thermal insulation three; mounting holes and process holes are opened on the outer walls of aluminum alloy profile eight and aluminum alloy profile nine at positions corresponding to the mounting bolts of the connecting bolts, and polyurethane thermal insulation five is injected at the mounting hole positions after the bolts are installed; the thermal insulation board two is fixed in the roof connection assembly by the second mounting bolt; the roof connection assembly connects the frame assembly, the frame assembly and the roof connection assembly together by connecting bolts.

[0014] Preferably, the gable connection assembly further comprises aluminum alloy profile six, aluminum alloy profile seven, a first connection angle code, a second connection angle code, an intermediate rolling four, and bolts; the intermediate rolling four is a reinforced PA66 thermal insulation strip composed of a broken bridge profile; the cavities of the aluminum alloy profile six, the aluminum alloy profile seven, and the intermediate rolling four are filled with polyurethane insulation one; the aluminum alloy profile six is ​​provided with mounting holes and process holes at positions corresponding to the mounting bolts of the connecting bolts, and the connecting bolts connect the frame assembly and the gable connection assembly; the thermal insulation profile composed of the aluminum alloy profile six and the aluminum alloy profile seven is connected to the ground connection assembly through the first connection angle code and the second connection angle code self-tapping screws;

[0015] The gable connection component is composed of aluminum alloy profile 4, aluminum alloy profile 5 and intermediate rolling 2, and the thermal insulation board 1 is fixed by the first mounting bolt between the thermal insulation board 1 formed by filling the wall with polyurethane insulation 1 after rolling and the aluminum alloy profile 7 and aluminum alloy profile 6 intermediate rolling 4 PA66 insulation strips.

[0016] The thermal break profile composed of the aluminum alloy profile 4 and the aluminum alloy profile 5 is connected to the frame profile of the roof connection assembly through bolts. The frame profile is composed of the aluminum alloy profile 10 and the aluminum alloy profile 11, the intermediate rolling profile 5, and is filled with polyurethane insulation 6; the aluminum alloy profile 10 is connected to the frame assembly through connecting bolts, connecting the frame assembly and the roof connection assembly together.

[0017] Preferably, the ground module includes aluminum alloy profile twelve, aluminum alloy profile thirteen, rolled thermal insulation strip one, polyurethane thermal insulation seven, thermal insulation board three, and aluminum strip; the aluminum alloy profile twelve, aluminum alloy profile thirteen, rolled thermal insulation strip one, and polyurethane thermal insulation seven constitute a main frame, and the main frame is connected to the ground connection assembly of the fixed module through a pin assembly; the thermal insulation board three and the aluminum strip are fixed to the frame to constitute the ground board.

[0018] Preferably, the first gable module includes an aluminum alloy profile 18, a front aluminum alloy profile 19, a thermal insulation strip 4, polyurethane thermal insulation 10, a thermal insulation board 4, a pressure strip 2, a first aluminum alloy center support, a rear aluminum alloy profile 19, an aluminum alloy profile 20, a thermal insulation strip 5, and polyurethane thermal insulation 11. The aluminum alloy profile 18, the front aluminum alloy profile 19, and the thermal insulation strip 4 constitute a main frame, and the aluminum alloy profile 18, the front aluminum alloy profile 19, and the thermal insulation strip 4 have a thermal insulation cavity filled with polyurethane thermal insulation 10; the main frame is connected to the gable connection assembly of the fixed module through a pin assembly; the thermal insulation board 4 of the first gable module is connected to the frame through a pressure strip 2.

[0019] Preferably, the second gable module includes aluminum alloy profile twenty-one, aluminum alloy profile twenty-two, thermal insulation strip six, polyurethane thermal insulation twelve, thermal insulation board five, pressure strip three, second aluminum alloy center support, aluminum alloy profile twenty-three, aluminum alloy profile twenty-four, thermal insulation strip seven, and polyurethane thermal insulation thirteen; the aluminum alloy profile twenty-one and aluminum alloy profile twenty-two and the rolled thermal insulation strip six constitute the second gable module main frame, and the thermal insulation cavity is filled with polyurethane thermal insulation twelve, and the main frame is connected to the gable connecting assembly through a pin shaft assembly; the thermal insulation board five of the second gable module is connected to the frame through pressure strip three.

[0020] Preferably, the roof module includes aluminum alloy profile twenty-five, aluminum alloy profile twenty-six, thermal insulation strip eight, polyurethane thermal insulation fourteen, polyurethane thermal insulation fifteen, thermal insulation board six, pressure strip four, second thermal insulation profile, aluminum alloy profile twenty-seven, thermal insulation strip nine, polyurethane thermal insulation sixteen, polyurethane thermal insulation seventeen, aluminum alloy profile twenty-nine, thermal insulation strip ten, polyurethane thermal insulation eighteen, polyurethane thermal insulation nineteen; aluminum alloy profile twenty-five and aluminum alloy profile twenty-six are rolled together with thermal insulation strip eight, and the cavity is filled with polyurethane thermal insulation fourteen to form a main frame of the roof module; the main frame of the roof module is connected to the roof connection assembly through a pin assembly; the thermal insulation board six of the roof module is connected to the frame through a pressure strip four.

[0021] Preferably, the main frame of the ground module is composed of aluminum alloy profile twelve and aluminum alloy profile thirteen, a rolled insulation strip one, and a cavity filled with polyurethane insulation seven; the middle frame adopts an aluminum alloy center support profile filled with polyurethane insulation; the ground panel is insulation panel three, which is fastened by an aluminum strip; double-channel sealing strips are used around the ground module, and double-channel sealing is adopted around the panel.

[0022] Preferably, the main frame of the first gable module is composed of an aluminum alloy profile 18 and a front aluminum alloy profile 19 roll-formed insulation strip 4, and the insulation cavity is filled with polyurethane insulation 10; the middle keel of the wall is a polyurethane-filled insulation bridge-breaking first aluminum alloy middle support; the rear aluminum alloy profile 19 and aluminum alloy profile 20 roll-formed insulation strip 5, and the insulation cavity is filled with polyurethane insulation 11; after the hinge position is designed to strengthen the connecting bolts, the bolt position is provided with insulation polyurethane filling, and the bolt mounting hole is provided with a process hole decorative cover; the top keel of the wall is composed of an aluminum alloy profile 18 and a front aluminum alloy profile 19 roll-formed insulation strip 4, and the insulation cavity is filled with polyurethane insulation 10; the bottom keel of the wall is composed of a rear aluminum alloy profile 19 and an aluminum alloy profile 20 roll-formed insulation strip 5, the insulation cavity is filled with polyurethane insulation 11, and the insulation board 4 is fastened by a pressure strip 2.

[0023] Preferably, the main frame of the second gable module is composed of aluminum alloy profile twenty-one and aluminum alloy profile twenty-two roll-pressed insulation strips six, and the insulation cavity is filled with polyurethane insulation twelve; the middle keel of the wall is a second aluminum alloy middle support filled with polyurethane insulation bridge; the side keels of the wall are aluminum alloy profile twenty-three and aluminum alloy profile twenty-four roll-pressed insulation strips seven, and the insulation cavity is filled with polyurethane insulation thirteen; the top keel of the wall of the second gable module 5 is composed of aluminum alloy profile twenty-one and aluminum alloy profile twenty-two roll-pressed insulation strips six, and the insulation cavity is filled with polyurethane insulation twelve; the bottom keel of the wall is composed of aluminum alloy profile twenty-three and aluminum alloy profile twenty-four roll-pressed insulation strips seven insulation strips, and the insulation cavity is filled with polyurethane insulation thirteen; the insulation board five is fastened by pressure strip three.

[0024] Preferably, the cross-sectional frame of the roof module is composed of aluminum alloy profile twenty-five and aluminum alloy profile twenty-six, roll-pressed insulation strip eight, and polyurethane insulation fourteen is filled in the cavity; reinforcing bolts are arranged at the pin shaft assembly and then filled with polyurethane insulation fifteen; a process hole cover is arranged at the reinforcing bolt mounting hole; the middle keel of the roof module is a second thermal break profile filled with polyurethane insulation; the insulation board six is ​​fastened by a pressure strip four; the eaves frame of the roof module vertical section is composed of aluminum alloy profile twenty-seven and aluminum alloy profile twenty-eight, roll-pressed insulation strip nine, and polyurethane insulation sixteen is filled in the cavity; reinforcing bolts are arranged at the profile pin shaft, polyurethane insulation seventeen is filled at the reinforcing bolt, and the bolt mounting hole is sealed with a process decorative cover; the main frame of the roof module vertical section is composed of polyurethane insulation seventeen and aluminum alloy profile twenty-nine, roll-pressed insulation strip ten, and polyurethane insulation eighteen is filled in the cavity; reinforcing bolts are arranged at the profile pin shaft, polyurethane insulation nineteen is filled at the reinforcing bolt, and the bolt mounting hole is sealed with a process decorative cover.

[0025] Preferably, the front wall module includes aluminum alloy profile 14, profile aluminum alloy profile 15, insulation strip 2, polyurethane insulation 8, insulation board, pressure strip 1, first thermal break profile, aluminum alloy profile 16, aluminum alloy profile 17, insulation strip 3, polyurethane insulation 9, and urethane insulation; reinforcing bolts are set at the pin shaft assembly and then filled with polyurethane insulation; the middle keel of the front wall module in the cross-section is polyurethane insulation filled with the first thermal break profile; the front wall insulation board is fastened by pressure strip 1; the bottom frame of the front wall module in the longitudinal section is composed of aluminum alloy profile 16 and aluminum alloy profile 17 roll-pressed insulation strip 3, and polyurethane insulation 9 is filled in the cavity; reinforcing bolts are set at the profile pin shaft, polyurethane insulation is filled at the reinforcing bolts, and the bolt mounting holes are sealed with process decorative covers; the top frame of the front wall module in the vertical section is composed of aluminum alloy profile 14 and aluminum alloy profile 15 roll-pressed insulation strip 2, and polyurethane insulation 8 is filled in the cavity; reinforcing bolts are set at the profile pin shaft, polyurethane insulation is filled at the reinforcing bolts, and the bolt mounting holes are sealed with process decorative covers.

[0026] Preferably, the bottom frames of the first gable module and the second gable module are connected to the frame of the ground module by a pin assembly, and reinforcing bolts are provided at the pin assemblies at the connection points; the top frames of the first gable module and the second gable module are connected to the frame of the roof module by a pin assembly, and reinforcing bolts are provided at the pin assemblies at the connection points.

[0027] Preferably, the bottom frame of the front wall module is connected to the frame of the ground module by a pin assembly, and reinforcing bolts are set at the pin assembly at the connection point; the top frame of the front wall module is connected to the frame of the roof module by a pin assembly, and reinforcing bolts are set at the pin assembly at the connection point; the main frame of the roof module is connected to the roof connection assembly in the fixed module by the pin assembly, and reinforcing bolts are set at the pin assembly at the connection point; the main frame of the ground module is connected to the fixed module assembly by the pin assembly, and reinforcing bolts are set at the pin assembly at the connection point.

[0028] Preferably, the side frame of the front wall module is connected to the frames of the first gable module and the second gable module by a pin assembly, and a reinforcing bolt is provided at the connection point pin assembly.

[0029] Preferably, the pin assembly is composed of hinge pin holes provided in the frame structure of each module, a pin and a positioning machine screw; according to the folding requirements of the module, hinge pin holes are reserved in the module frame profile structure, and the excess pin holes are milled off.

[0030] Preferably, the pin assembly is arranged on the frame of each module according to the force requirements and folding requirements of each module.

[0031] The beneficial effects of the utility model are as follows: 1. The low-energy, lightweight, corrosion-resistant, and foldable barracks are mainly made of 6EXX series high-strength, corrosion-resistant aluminum alloys as keels and enclosure shells. 6EXX aluminum alloy has high-strength and ultra-corrosion resistance, and its corrosion resistance reaches EA grade. The tensile strength can be preferably 6E70 (tensile strength 400MPa, yield strength 382MPa) or 6E63 according to needs, which solves the problem of easy corrosion of folding houses in coastal areas and greatly improves durability;

[0032] 2. This low-energy, lightweight, corrosion-resistant, and foldable barracks has thermal insulation strips inserted into the frame material to act as a thermal break for the heat transfer of the keel material. The core board of the enclosure panel is an aerogel board, which is an inorganic material with a fire rating of A1. The thermal conductivity is 0.012, which is much lower than that of ordinary insulation materials, and the thermal inertia coefficient is high, which greatly improves the comfort and fire resistance. The surface layer of the enclosure panel can be preferably 6Exx aluminum alloy single plate or 6Exx honeycomb aluminum plate according to the force requirements. This solution adopts a fully articulated connection, which is easy to install and disassemble. After the house is unfolded, the wall panels, the ground and the main keels on the roof are connected to form a frame structure through pins and connecting rods. The center support and enclosure panels of the four wall panels can be removed at will and can be spliced ​​with other folding rooms as needed, thus solving the requirements for large-space training.

[0033] 3. This low-energy, lightweight, corrosion-resistant, and foldable barracks has a relatively light weight for single folding house, making it easy to transport. The four corners of the house are connected to the ground with rear anchors through a tie rod system, and the main keels at the bottom of the four wall panels of the house are supported on the ground through a support system to form a stable structure. BRIEF DESCRIPTION OF THE DRAWINGS

[0034] In order to more clearly illustrate the embodiments of the utility model or the technical solutions in the prior art, the drawings required for use in the embodiments will be briefly introduced below. Obviously, the drawings described below are only some embodiments of the utility model. For ordinary technicians in this field, other drawings can be obtained based on these drawings without paying creative work.

[0035] Figure 1 This is the overall southwest axonometric drawing of the folding house of the utility model;

[0036] Figure 2 This is the overall northwest axonometric drawing of the folding house of the utility model;

[0037] Figure 3 This is a structural schematic diagram of a folding room fixing module 1 of the utility model;

[0038] Figure 4 This is a structural schematic diagram of a fixed module assembly 1-01 of a folding room 1 of the utility model;

[0039] Figure 5 It is a structural schematic diagram of the axonometric view of the fixed module 1-02 / 1-03 / 1-04 assembly of the folding room 1 of the utility model;

[0040] Figure 6 This is a structural diagram of the connection node of the fixed module 1-01 / 1-02 of the folding room 1 of the utility model;

[0041] Figure 7This is a structural diagram of the connection nodes of the fixed modules 1-01 / 1-03 of the folding room 1 of the utility model;

[0042] Figure 8 This is a structural diagram of the connection nodes of the fixed modules 1-01 / 1-04 of the folding room 1 of the utility model;

[0043] Fig. 9 This is a structural diagram of the connection nodes of the fixed modules 1-01 / 1-02 / 1-03 / 1-04 of the folding room 1 of the utility model;

[0044] Fig.10 This is a schematic diagram of the structure of the folding room 1 fixed module 1-02 assembly connected to the ground module 2 of the utility model;

[0045] Fig.11 This is a schematic diagram of the structure of the folding room 1 fixed module 1-03 assembly connected to the gable module 4 of the utility model;

[0046] Fig.12 This is a structural diagram of the utility model folding room 1 fixed module 1-03 assembly connected to the gable module 5;

[0047] Fig.13 This is a cross-sectional view of the folding house 1 fixing module 104 system connected to the roof module 6 of the utility model;

[0048] Fig.14 This is a cross-sectional view of the floor module 2 of the folding house of the utility model;

[0049] Fig.15 This is a longitudinal section of the floor module 2 of the folding house of the utility model;

[0050] Fig.16 This is a cross-sectional view of the gable module 4 of the folding house of the utility model;

[0051] Fig.17 This is a longitudinal section of the gable module 4 of the folding house of the utility model;

[0052] Fig.18 This is a cross-sectional view of the gable module 5 of the folding house of the utility model;

[0053] Fig.19 This is a longitudinal section of the gable module 5 of the folding house of the utility model;

[0054] Fig. 20 This is a cross-sectional view of the foldable house roof module 6 of the utility model;

[0055] Fig.21 This is a longitudinal section of the folding house roof module 6 of the utility model;

[0056] Fig. 22 This is a cross-sectional view of the front wall module 3 of the folding house of the present utility model;

[0057] Fig.23 This is a longitudinal section view of the front wall module 3 of the folding house of the present utility model;

[0058] Fig.24 This is a schematic diagram of the structure in which the gable module 4 and the gable module 5 of the folding house of the utility model are connected with the ground module 2 and the roof module 6 through the pin assembly 10;

[0059] Fig.25 This is a schematic diagram of the structure in which the front wall module 3 of the folding house of the present invention is connected to the ground module 2 and the roof module 6 through the pin assembly 10;

[0060] Fig.26 This is a schematic diagram of the structure in which the front wall module 3 of the folding house of the present invention is connected with the gable module 4 and the gable module 5 through the pin assembly 10;

[0061] Fig. 27 It is a schematic structural diagram of the pin assembly 10 of the utility model;

[0062] Fig.28 This is a schematic diagram of the structure in which the floor module 2 of the stacked house of the present invention is connected to the middle module 1-02 via the pin assembly 10;

[0063] Fig.29 This is a schematic diagram of the structure in which the folding house roof module 6 is connected to the middle module 1-04 via the pin assembly 10 of the utility model;

[0064] Fig.30 This is a schematic diagram of the structure in which the gable module 4 (5) of the folding house of the utility model is connected to the middle module 1-03 through the pin assembly 10.

[0065] In the figure: 1, fixed module; 1-01, frame assembly; 1-01-01, aluminum alloy profile 1; 1-01-02, aluminum alloy angle code; 1-01-03, anti-drop bolt; 1-01-04, connecting bolt; 1-01-05, rubber pad; 1-02, ground connection assembly; 1-02-01, aluminum alloy profile 2; 1-02-02, aluminum alloy profile 3; 1-02-03, intermediate roller pressing 1; 1-02-04, first polyurethane insulation material; 1-02-06, second polyurethane insulation material; 1-02-07, anti-side push deformation rubber strip; 1-03, gable connection assembly; 1-03-01, aluminum alloy profile 4; 1-03-02, aluminum alloy profile 5; 1-03-03, intermediate roller pressing 2; 1-03-04, polyurethane insulation one; 1-03-05, polyurethane insulation two; 1-03-06, insulation board one; 1-03-07, first mounting bolt; 1-03-08, aluminum alloy profile six; 1-03-09, aluminum alloy profile seven; 1-03-10, first connection angle code; 1-03-11, second connection angle code; 1-03-12, intermediate rolling four; 1-03-13, bolt; 1-04, roof connection assembly; 1-04-01, aluminum alloy profile eight; 1-04-02, aluminum alloy profile nine; 1-04-03, intermediate rolling three; 1-04-04, polyurethane insulation three; 1-04-05, polyurethane insulation five; 1-04-06, insulation board two; 1-04- 07, second mounting bolt; 1-04-08, aluminum alloy profile 10; 1-04-09, aluminum alloy profile 11; 1-04-10 intermediate rolling 5; 1-04-11, polyurethane insulation 6; 1-04-12, 1-05, skin assembly; 2, ground module; 2-01, aluminum alloy profile 12; 2-02, aluminum alloy profile 13; 2-03, rolling insulation strip 1; 2-04, polyurethane insulation 7; 2-05, insulation board 3; 2-06, aluminum strip; 3, front wall module; 3-01, aluminum alloy profile 14; 3-02, aluminum alloy profile 15; 3-03, insulation strip 2; 3-04, polyurethane insulation 8; 3-06, insulation board; 3-07, strip 1; 3-08, first broken bridge profile ;3-09, aluminum alloy profile 16;3-10, aluminum alloy profile 17;3-11, insulation strip 3;3-12, polyurethane insulation 9;3-13, urethane insulation;4, first gable module;4-01, aluminum alloy profile 18;4-02, front aluminum alloy profile 19;4-03, insulation strip 4;4-04, polyurethane insulation 10;4-06, insulation board 4;4-07, pressure strip 2;4-08, first aluminum alloy center support;4-09, rear aluminum alloy profile 19;4-10, aluminum alloy profile 20;4-11, insulation strip 5;4-12, polyurethane insulation 11;5, second gable module;5-01, aluminum alloy profile 21;5-02, aluminum alloy profile 22;5-03, insulation strip 6;5-04, polyurethane insulation 12; 5-06, insulation board 5; 5-07, layer 3; 5-08, second aluminum alloy center support; 5-09, aluminum alloy profile 23; 5-10, aluminum alloy profile 24; 5-11, insulation strip 7; 5-12, polyurethane insulation 13; 6, roof module; 6-01, aluminum alloy profile 25; 6-02, aluminum alloy profile 26; 6-03, insulation strip 8; 6-04, polyurethane insulation 14; 6-05, polyurethane insulation 15; 6-06, insulation board 6; 6-07, layer 4; 6-08 , the second broken bridge profile; 6-09, aluminum alloy profile twenty-seven; 6-10, aluminum alloy profile twenty-eight; 6-11, insulation strip nine; 6-12, polyurethane insulation sixteen; 6-13, polyurethane insulation seventeen; 6-14, aluminum alloy profile twenty-nine; 6-15, insulation strip ten; 6-16, polyurethane insulation eighteen; 6-17, polyurethane insulation nineteen; 7, pneumatic support assembly; 8, pad support assembly; 9, tie rod module; 10, pin assembly; 10-01, hinge pin hole; 10-02, pin; 10-03, positioning machine wire; 11, strengthening bolt. ; DETAILED DESCRIPTION

[0066] To further illustrate each embodiment, the present invention provides drawings, which are part of the disclosure of the present invention and are mainly used to illustrate the embodiments. They can be used in conjunction with the relevant descriptions in the specification to explain the operating principles of the embodiments. With reference to these contents, ordinary technicians in the field should be able to understand other possible implementation methods and advantages of the present invention. The components in the figures are not drawn to scale, and similar component symbols are generally used to represent similar components.

[0067] According to an embodiment of the utility model, a low-energy-consumption, lightweight, corrosion-resistant, and foldable barracks is provided.

[0068] Embodiment 1;

[0069] like Figure 1-Figure 30 As shown, the low-energy, lightweight, corrosion-resistant, splicable and foldable barracks according to the embodiment of the utility model includes a fixed module 1, two ground modules 2, two front wall modules 3, two first gable modules 4, two second gable modules 5, two roof modules 6, four pneumatic support assemblies 7, a plurality of foot pad support assemblies 8, four pull rod modules 9, a plurality of pin assemblies 10, and a reinforcing bolt 11; it is characterized in that: the fixed module 1 includes a frame assembly 1-01, a ground connection assembly 1-02, two gable connection assemblies 1-03, a roof connection assembly 1-04, and a skin assembly 1-05.

[0070] The frame assembly 1-01 includes an aluminum alloy profile 1-01-01, an aluminum alloy corner code 1-01-02, an anti-drop bolt 1-01-03, a connecting bolt 1-01-04, and a rubber pad 1-01-05; the aluminum alloy profile 1-01-01 and the aluminum alloy corner code 1-01-02 are fixedly connected by the anti-drop bolt 1-01-03.

[0071] The ground connection component 1-02 includes an aluminum alloy profile 2 1-02-01, an aluminum alloy profile 3 1-02-02 and an intermediate rolling 1 1-02-03, a first polyurethane thermal insulation material 1-02-04, a second polyurethane thermal insulation material 1-02-06, an anti-lateral push deformation rubber strip 1-02-07, a second polyurethane thermal insulation material 1-02-06, and an anti-lateral push deformation rubber strip 1-02-07; the intermediate rolling 1-02-03 is a reinforced PA66 thermal insulation strip composed of a broken bridge profile; the aluminum alloy profile 2 1-02-01, the aluminum alloy profile 3 1-02-02 and the intermediate rolling 1 1-02-03 are filled with the first polyurethane thermal insulation material 1-02-04; the aluminum alloy profile 2 1-02-01 and the aluminum alloy profile 3 1 -02-02 is provided with an installation hole and a process hole, the installation hole is injected with a second polyurethane thermal insulation material 1-02-06, and the process hole is closed by the second polyurethane thermal insulation material 1-02-06; the frame component 1-01 and the ground connection component 1-02 are connected by a connecting bolt 1-01-04, and the frame component 1-01 and the ground connection component 1-02 are connected at the connecting bolt 1-01-04 by a rubber pad 1-01-05; the aluminum alloy profile 1-01-01 and the aluminum alloy angle code 1-01-02 are connected in the groove by an anti-side thrust deformation rubber strip 1-02-07; the ground connection component 1-02 connects the frame component 1-01 and the ground connection component 1-02 together by the connecting bolt 1-01-04.

[0072] The gable connection assembly 1-03 includes aluminum alloy profile 4 1-03-01, aluminum alloy profile 5 1-03-02, intermediate roll-pressed profile 2 1-03-03, polyurethane insulation 1 1-03-04, polyurethane insulation 2 1-03-05, insulation board 1 1-03-06, and first mounting bolt 1-03-07; the intermediate roll-pressed profile 2 1-03-03 is reinforced with PA66 thermal insulation strip to form a broken bridge profile, and the cavities of aluminum alloy profile 4 1-03-01, aluminum alloy profile 5 1-03-02 and intermediate roll-pressed profile 2 1-03-03 are filled with polyurethane insulation 1 1-03-04; the connecting bolts At the corresponding position of the mounting bolts of 1-01-04, mounting holes and process holes are opened on the outer walls of the aluminum alloy profile four 1-03-01 and the aluminum alloy profile five 1-03-02. After the aluminum alloy profile four 1-03-01 and the aluminum alloy profile five 1-03-02 are installed with bolts, polyurethane insulation two 1-03-05 is injected into the mounting hole position; the insulation board one 1-03-06 is fixed in the frame of the gable connection component 1-03 by the first mounting bolt 1-03-07; the gable connection component 1-03 connects the frame component 1-01 and the gable connection component 1-03 together by the connecting bolts 1-01-04.

[0073] The roof connection assembly 1-04 includes aluminum alloy profile eight 1-04-01, aluminum alloy profile nine 1-04-02, intermediate roll-pressed three 1-04-03, polyurethane insulation three 1-04-04, polyurethane insulation five 1-04-05, insulation board two 1-04-06, second mounting bolt 1-04-07, aluminum alloy profile ten 1-04-08, aluminum alloy profile eleven 1-04-09, intermediate roll-pressed five 1-04-10, polyurethane insulation six 1-04-11; intermediate roll-pressed three 1-04-03 is composed of reinforced PA66 thermal insulation strips and broken bridge profiles; aluminum alloy profile eight 1-04-01, aluminum alloy profile nine 1-0 The cavity of 4-02 and the middle roller pressed cavity 1-04-03 is filled with polyurethane thermal insulation 3 1-04-04; the mounting holes and process holes are opened on the outer walls of the aluminum alloy profile 8 1-04-01 and the aluminum alloy profile 9 1-04-02 at the corresponding positions of the mounting bolts of the connecting bolts 1-01-04, and polyurethane thermal insulation 5 1-04-05 is injected into the mounting holes after the bolts are installed; the thermal insulation board 2 1-04-06 is fixed in the roof connection assembly 1-04 by the second mounting bolts 1-04-07; the roof connection assembly 1-04 connects the frame assembly 1-01 and the roof connection assembly 1-04 together by the connecting bolts 1-01-04.

[0074] The gable connection assembly 1-03 also includes aluminum alloy profile 6 1-03-08, aluminum alloy profile 7 1-03-09, first connection angle code 1-03-10, second connection angle code 1-03-11, intermediate roll-pressed 4 1-03-12, and bolts 1-04-13; the intermediate roll-pressed 4 1-03-12 is a broken bridge profile composed of reinforced PA66 thermal insulation strips; polyurethane is passed through the cavity of aluminum alloy profile 6 1-03-08, aluminum alloy profile 7 1-03-09 and intermediate roll-pressed 4 1-03-12. The aluminum alloy profile 1-03-08 is filled with ester insulation 1-03-04; the aluminum alloy profile 1-03-08 is provided with mounting holes and process holes at positions corresponding to the mounting bolts of the connecting bolts 1-01-04; the connecting bolts 1-01-04 connect the frame assembly 1-01 and the gable connecting assembly 1-03; the heat-insulating profile composed of the aluminum alloy profile 6 1-03-08 and the aluminum alloy profile 7 1-03-09 is connected to the ground connecting assembly 1-02 through the first connecting angle code 1-03-10 and the second connecting angle code 1-03-11 self-tapping screws;

[0075] The gable connection component 1-03 comprises aluminum alloy profile four 1-03-01, aluminum alloy profile five 1-03-02 and intermediate rolled two 1-03-03, and the broken bridge profile formed by filling the wall with polyurethane insulation one 1-03-04 after rolling, and the broken bridge profile formed by aluminum alloy profile seven 1-03-09 and aluminum alloy profile six 1-03-08 intermediate rolled four 1-03-12PA66 insulation strip, and the first mounting bolt 1-03-07 fixes the insulation plate one 1-03-06.

[0076] The thermal break profile composed of aluminum alloy profile four 1-03-01 and aluminum alloy profile five 1-03-02 is connected to the frame profile of the roof connection component 1-04 through bolts 1-04-13, and the frame profile is composed of aluminum alloy profile ten 1-04-08 and aluminum alloy profile eleven 1-04-09, intermediate rolled five 1-04-10, and filled with polyurethane insulation six 1-04-11; aluminum alloy profile ten 1-04-08 is connected to the frame component 1-01 through connecting bolts 1-01-04 bolts, connecting the frame component 1-01 and the roof connection component 1-04 together.

[0077] In this embodiment, the main frame material of this scheme is 6EXX series high-strength corrosion-resistant aluminum alloy for keel and enclosure shell. 6EXX aluminum alloy has high strength and super corrosion resistance, and its corrosion resistance reaches EA level. The tensile strength can be preferably 6E70 (tensile strength 400MPa, yield strength 382MPa) or 6E63 tensile strength 240MPa, yield strength 200MPa according to needs, which solves the problem of easy corrosion of folding houses in coastal areas and greatly improves durability.

[0078] Embodiment 2:

[0079] On the basis of the first embodiment, the preferred embodiment of the low-energy-consumption, lightweight, corrosion-resistant and foldable barracks provided by the present invention is as follows: Figure 1-Figure 30 As shown: the ground module 2 includes aluminum alloy profile twelve 2-01, aluminum alloy profile thirteen 2-02, rolled thermal insulation strip one 2-03, polyurethane thermal insulation seven 2-04, thermal insulation board three 2-05, and aluminum pressure strip 2-06; aluminum alloy profile twelve 2-01, aluminum alloy profile thirteen 2-02, rolled thermal insulation strip one 2-03, and polyurethane thermal insulation seven 2-04 constitute a main frame, and the main frame is connected to the ground connection component 1-02 of the fixed module 1 through the pin shaft component 10; the thermal insulation board three 2-05 and the aluminum pressure strip 2-06 are fixed to the frame to constitute the ground board.

[0080] The first gable module 4 includes aluminum alloy profile 18 4-01, front aluminum alloy profile 19 4-02, insulation strip 4 4-03, polyurethane insulation 10 4-04, insulation board 4 4-06, pressure strip 2 4-07, first aluminum alloy center support 4-08, rear aluminum alloy profile 19 4-09, aluminum alloy profile 20 4-10, insulation strip 5 4-11, polyurethane insulation 11 4-12, aluminum alloy profile 18 4-01, front aluminum alloy profile 19 4-02, insulation strip 4 4-03 constitute a main frame, aluminum alloy profile 18 4-01, front aluminum alloy profile 19 4-02 and insulation strip 4 4-03 are filled with polyurethane insulation 10 4-04 in the insulation cavity; the main frame is connected to the gable connection component 1-03 of the fixed module 1 through the pin shaft component 10; the insulation board 4 4-06 of the first gable module 4 is connected to the frame through the pressure strip 2 4-07.

[0081] The second gable module 5 includes aluminum alloy profile twenty-one 5-01, aluminum alloy profile twenty-two 5-02, thermal insulation strip six 5-03, polyurethane thermal insulation twelve 5-04, thermal insulation board five 5-06, pressure strip three 5-07, second aluminum alloy center support 5-08, aluminum alloy profile twenty-three 5-09, aluminum alloy profile twenty-four 5-10, thermal insulation strip seven 5-11, and polyurethane thermal insulation thirteen 5-12; aluminum alloy profile twenty-one 5-01 and aluminum alloy profile twenty-two 5-02 and rolled thermal insulation strip six 5-03 constitute the main frame of the second gable module 5, and the thermal insulation cavity is filled with polyurethane thermal insulation twelve 5-04, and the main frame is connected to the gable connection assembly 1-03 through the pin shaft assembly 10; the thermal insulation board five 5-06 of the second gable module 5 is connected to the frame through the pressure strip three 5-07.

[0082] Roof module 6 includes aluminum alloy profile 25 6-01, aluminum alloy profile 26 6-02, insulation strip 8 6-03, polyurethane insulation 14 6-04, polyurethane insulation 15 6-05, insulation board 6 6-06, pressure strip 4 6-07, second broken bridge profile 6-08, aluminum alloy profile 27 6-09, insulation strip 9 6-11, polyurethane insulation 16 6-12, polyurethane insulation 17 6-13, aluminum alloy profile 29 6-14, insulation strip Ten 6-15, polyurethane insulation eighteen 6-16, polyurethane insulation nineteen 6-17; aluminum alloy profile twenty-five 6-01 and aluminum alloy profile twenty-six 6-02 are rolled and heat-insulating strip eight 6-03, and the cavity is filled with polyurethane heat-insulating fourteen 6-04 to form the main frame of roof module 6; the main frame of roof module 6 is connected with roof connection assembly 1-04 through pin assembly 10; the heat-insulating board six 6-06 of roof module 6 is connected with the frame through pressure strip four 6-07.

[0083] The main frame of the ground module 2 is composed of aluminum alloy profile twelve 2-01 and aluminum alloy profile thirteen 2-02, roll-pressed insulation strip one 2-03, and the cavity is filled with polyurethane insulation seven 2-04; the middle frame adopts aluminum alloy center support profile filled with polyurethane insulation; the ground board material is insulation board three 2-05, which is fastened by aluminum pressure strip 2-06; double-channel sealing strips are used around the ground module 2, and double-channel sealing is adopted around the board material.

[0084] The main frame of the first gable module 4 is composed of aluminum alloy profile 18 4-01 and front aluminum alloy profile 19 4-02 roll-pressed insulation strip 4 4-03, and the insulation cavity is filled with polyurethane insulation 10 4-04; the middle keel of the wall is the first aluminum alloy middle support 4-08 filled with polyurethane insulation bridge; the rear aluminum alloy profile 19 4-09 and aluminum alloy profile 20 4-10 roll-pressed insulation strip 5 4-11, and the insulation cavity is filled with polyurethane insulation 11 4-12; the hinge position is designed to strengthen the connection bolts, and the bolt position is set to protect The wall is filled with warm polyurethane, and the bolt mounting holes are provided with process hole decorative covers; the top keel of the wall is composed of aluminum alloy profile 18 4-01 and front aluminum alloy profile 19 4-02 roll-pressed insulation strip four 4-03, and the insulation cavity is filled with polyurethane insulation 10 4-04; the bottom keel of the wall is composed of rear aluminum alloy profile 19 4-09 and aluminum alloy profile 20 4-10 roll-pressed insulation strip five 4-11, and the insulation cavity is filled with polyurethane insulation 11 4-12, and the insulation board four 4-06 is fastened by pressure strip two 4-07.

[0085] The second gable module 5 main frame is composed of aluminum alloy profile 21 5-01 and aluminum alloy profile 22 5-02 roll-pressed insulation strip 6 5-03, and the insulation cavity is filled with polyurethane insulation 12 5-04; the middle keel of the wall is the second aluminum alloy middle support 5-08 filled with polyurethane insulation bridge; the side keel of the wall is aluminum alloy profile 23 5-09 and aluminum alloy profile 24 5-10 roll-pressed insulation strip 7 5-11, and the insulation cavity is filled with polyurethane insulation 13 5-12; The top keel of the second gable module 5 wall is composed of aluminum alloy profile twenty-one 5-01 and aluminum alloy profile twenty-two 5-02 roll-pressed insulation strip six 5-03, and the insulation cavity is filled with polyurethane insulation twelve 5-04; the bottom keel of the wall is composed of aluminum alloy profile twenty-three 5-09 and aluminum alloy profile twenty-four 5-10 roll-pressed insulation strip seven 5-11 insulation strip, and the insulation cavity is filled with polyurethane insulation thirteen 5-12; the insulation board five 5-06 is fastened by the pressure strip three 5-07.

[0086] The cross-sectional frame of the roof module 6 is composed of aluminum alloy profile 25 6-01 and aluminum alloy profile 26 6-02, roll-pressed insulation strip 8 6-03, and the cavity is filled with polyurethane insulation 14 6-04; a reinforcing bolt is set at the pin assembly 10 and then filled with polyurethane insulation 15 6-05; a process hole cover is set for the reinforcing bolt installation hole; the middle keel of the roof module 6 is filled with polyurethane insulation and the second broken bridge profile 6-08; the insulation board 6 6-06 is fastened by the pressure strip 4 6-07; the eaves frame of the vertical cross-sectional view of the roof module 6 is composed of aluminum alloy profile 27 6-09 and aluminum alloy profile 20 Eight 6-10 rolled insulation strip nine 6-11, and the cavity is filled with polyurethane insulation sixteen 6-12; reinforcing bolts are set at the profile pins, polyurethane insulation seventeen 6-13 is filled at the reinforcing bolts, and the bolt mounting holes are sealed with process decorative covers; the main frame of the roof module 6 vertical section view is composed of polyurethane insulation seventeen 6-13 and aluminum alloy profile twenty-nine 6-14 rolled insulation strip ten 6-15 and polyurethane insulation eighteen 6-16 is filled in the cavity; reinforcing bolts are set at the profile pins, polyurethane insulation nineteen 6-17 is filled at the reinforcing bolts, and the bolt mounting holes are sealed with process decorative covers.

[0087] The front wall module 3 includes aluminum alloy profile 14 3-01, aluminum alloy profile 15 3-02, insulation strip 2 3-03, polyurethane insulation 8 3-04, insulation board 3-06, pressure strip 1 3-07, first thermal break profile 3-08, aluminum alloy profile 16 3-09, aluminum alloy profile 17 3-10, insulation strip 3 3-11, polyurethane insulation 9 3-12, urethane insulation 3-13; reinforcing bolts are set at the pin assembly 10 and then filled with polyurethane insulation 3-13; the middle keel of the front wall module 3 in the cross-section view is polyurethane insulation filled with the first thermal break profile 3-08; the front wall insulation board 3-06 is fastened by the pressure strip 1 3-07; the front wall module The bottom frame of the block 3 in the longitudinal section is composed of aluminum alloy profile sixteen 3-09 and aluminum alloy profile seventeen 3-10, rolled insulation strip three 3-11, and the cavity is filled with polyurethane insulation nine 3-12; reinforcing bolts are arranged at the profile pins, polyurethane insulation 3-13 is filled at the reinforcing bolts, and the bolt mounting holes are sealed with process decorative covers; the top frame of the front wall module 3 in the vertical section is composed of aluminum alloy profile fourteen 3-01 and aluminum alloy profile fifteen 3-02, rolled insulation strip two 3-03, and the cavity is filled with polyurethane insulation eight 3-04; reinforcing bolts are arranged at the profile pins, polyurethane insulation 3-13 is filled at the reinforcing bolts, and the bolt mounting holes are sealed with process decorative covers.

[0088] In this embodiment, insulation strips are inserted into the frame material of this scheme, which acts as a bridge-breaking effect on the heat transfer of the keel material; the core board of the enclosure panel is an aerogel board, which is an inorganic material with a fireproof grade of A1; the thermal conductivity is 0.012, which is much lower than that of ordinary insulation materials, and the thermal inertia coefficient is relatively high, which greatly improves the comfort and fire resistance. The surface layer of the enclosure panel can be preferably 6Exx aluminum alloy single plate or 6Exx honeycomb aluminum plate according to the force requirements; this scheme adopts a fully articulated connection, which is easy to install and disassemble. After the house is unfolded, the wall panels, the ground and the main keels on the roof are connected to form a frame structure through pins and connecting rods. The center support and enclosure panels of the four wall panels can be removed at will, and can be spliced ​​with other folding rooms as needed, which solves the requirements for large-space training.

[0089] Embodiment three;

[0090] On the basis of the first embodiment, the preferred embodiment of the low-energy-consumption, lightweight, corrosion-resistant and foldable barracks provided by the present invention is as follows: Figure 1-Figure 30 As shown: the bottom frames of the first gable module 4 and the second gable module 5 are connected to the frame of the ground module 2 by a pin assembly 10, and a reinforcing bolt 11 is set at the connection point pin assembly 10; the top frames of the first gable module 4 and the second gable module 5 are connected to the frame of the roof module 6 by a pin assembly 10, and a reinforcing bolt 11 is set at the connection point pin assembly 10.

[0091] The bottom frame of the front wall module 3 is connected to the frame of the ground module 2 by the pin assembly 10, and a reinforcing bolt 11 is set at the connection point of the pin assembly 10; the top frame of the front wall module 3 is connected to the frame of the roof module 6 by the pin assembly 10, and a reinforcing bolt 11 is set at the connection point of the pin assembly 10; the main frame of the roof module 6 is connected to the roof connection assembly 1-04 in the fixed module 1 by the pin assembly 10, and a reinforcing bolt 11 is set at the connection point of the pin assembly 10; the main frame of the ground module 2 is connected to the fixed module 1 assembly by the pin assembly 10, and a reinforcing bolt 11 is set at the connection point of the pin assembly 10.

[0092] The side frame of the front wall module 3 is connected to the frames of the first gable module 4 and the second gable module 5 by a pin assembly 10, and a reinforcing bolt 11 is provided at the connection point pin assembly 10.

[0093] The pin assembly 10 is composed of the hinge pin hole 10-01 of each module frame structure, the pin 10-02 and the positioning machine screw 10-03; according to the folding needs of the module, the module frame profile structure reserves the hinge pin hole 10-01, and the excess pin hole is milled off.

[0094] The pin assembly 10 is arranged on the frame of each module according to the force requirements and folding requirements of each module.

[0095] In this embodiment, the weight of a single folding house in this scheme is relatively light, and the weight of a single unit is no more than 2 tons, which is convenient for transportation; in this scheme, the four large corners of the house are connected to the ground with rear anchors through a pull rod system, and the main keels at the bottom of the four wall panels of the house are supported on the ground through a support system to form a stable structure.

[0096] In order to facilitate understanding of the above technical solution of the present invention, the working principle or operation method of the present invention in the actual process is described in detail below.

[0097] In actual application, first, assemble the modules, and then fix them through corresponding structures to complete the installation.

[0098] In summary, with the help of the above-mentioned technical solution of the utility model, the low-energy consumption, lightweight, corrosion-resistant and splicable foldable barracks, the main frame material of this solution is the 6EXX series of high-strength corrosion-resistant aluminum alloys for the keel and the outer shell of the enclosure. 6EXX aluminum alloy has high strength and super corrosion resistance, and the corrosion resistance reaches EA level. The tensile strength can be preferably 6E70 (tensile strength 400MPa, yield strength 382MPa) or 6E63 tensile strength 240MPa, yield strength 200MPa according to needs, which solves the problem of easy corrosion of folding houses in coastal areas and greatly improves durability; the frame material of this solution is penetrated with insulation strips, which acts as a bridge to the heat transfer of the keel material; the core board of the enclosure board is an aerogel board, which is an inorganic material with a fireproof grade of A1; the thermal conductivity is 0.012, which is much lower than that of ordinary insulation materials, and the thermal inertia coefficient is relatively high, which greatly improves the comfort and fire resistance. The surface layer of the enclosure panel can be preferably 6Exx aluminum alloy single plate or 6Exx honeycomb aluminum plate according to the force requirements; this solution adopts fully hinged connection, which is easy to install and disassemble. After the house is unfolded, the wall panels, ground and roof outer main keels are connected to form a frame structure through pins and connecting rods. The center support and enclosure panels of the four wall panels can be removed at will, and can be spliced ​​with other folding rooms as required space, which solves the requirements for large-space training; the weight of a single folding room in this solution is relatively light, and the weight of a single unit is no more than 2 tons, which is easy to transport; this solution is connected to the ground rear anchors at the four major corners of the house through a pull rod system, and the main keels at the bottom of the four wall panels of the house are supported on the ground through a support system to form a stable structure.

[0099] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A low-energy-consumption, lightweight, corrosion-resistant, foldable barrack, comprising a fixed module (1), two ground modules (2), two front wall modules (3), two first gable modules (4), two second gable modules (5), two roof modules (6), four pneumatic support assemblies (7), a plurality of foot pad support assemblies (8), four tie rod modules (9), a plurality of pin shaft assemblies (10), and reinforcing bolts (11); characterized in that: The fixing module (1) comprises a frame component (1-01), a ground connection component (1-02), two gable connection components (1-03), a roof connection component (1-04), and a skin component (1-05).

2. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 1 is characterized in that: The frame assembly (1-01) comprises an aluminum alloy profile (1-01-01), an aluminum alloy corner bracket (1-01-02), an anti-drop bolt (1-01-03), a connecting bolt (1-01-04), and a rubber pad (1-01-05); the aluminum alloy profile (1-01-01) and the aluminum alloy corner bracket (1-01-02) are fixedly connected via the anti-drop bolt (1-01-03).

3. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 2 is characterized in that: The ground connection component (1-02) comprises an aluminum alloy profile 2 (1-02-01), an aluminum alloy profile 3 (1-02-02) and an intermediate rolling one (1-02-03), a first polyurethane thermal insulation material (1-02-04), a second polyurethane thermal insulation material (1-02-06), an anti-lateral push deformation rubber strip (1-02-07), a second polyurethane thermal insulation material (1-02-06), and an anti-lateral push deformation rubber strip (1-02-07); the intermediate rolling one (1-02-03) is a reinforced PA66 thermal insulation strip composed of a broken bridge profile; the aluminum alloy profile 2 (1-02-01), the aluminum alloy profile 3 (1-02-02) and the intermediate rolling one (1-02-03) are filled with the first polyurethane thermal insulation material (1-02-04); the aluminum alloy profile 2 (1-02-01) and the aluminum alloy profile 3 (1-02-06) are 02) is provided with an installation hole and a process hole, a second polyurethane thermal insulation material (1-02-06) is injected into the installation hole, and the process hole is sealed by the second polyurethane thermal insulation material (1-02-06); the frame component (1-01) and the ground connection component (1-02) are connected by connecting bolts (1-01-04), and the connecting bolts (1-01-04) in the frame component (1-01) and the ground connection component (1-02) are connected by rubber pads (1-01-05); the notches of the aluminum alloy profile (1-01-01) and the aluminum alloy angle code (1-01-02) are connected by anti-side push deformation rubber strips (1-02-07); the ground connection component (1-02) connects the frame component (1-01) and the ground connection component (1-02) together by connecting bolts (1-01-04).

4. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 3 is characterized in that: The gable connection assembly (1-03) comprises aluminum alloy profile four (1-03-01), aluminum alloy profile five (1-03-02), intermediate roll-pressed profile two (1-03-03), polyurethane insulation one (1-03-04), polyurethane insulation two (1-03-05), insulation board one (1-03-06), and a first mounting bolt (1-03-07); the intermediate roll-pressed profile two (1-03-03) reinforces the PA66 insulation strip to form a thermal break profile, and the cavities of the aluminum alloy profile four (1-03-01), aluminum alloy profile five (1-03-02) and intermediate roll-pressed profile two (1-03-03) are filled with polyurethane insulation one (1-03-04); the connecting bolts The outer walls of the aluminum alloy profile four (1-03-01) and the aluminum alloy profile five (1-03-02) are provided with mounting holes and process holes at positions corresponding to the mounting bolts of the aluminum alloy profile four (1-03-01) and the aluminum alloy profile five (1-03-02). After the aluminum alloy profile four (1-03-01) and the aluminum alloy profile five (1-03-02) are installed with bolts, polyurethane insulation two (1-03-05) is injected at the positions of the mounting holes; the insulation board one (1-03-06) is fixed in the frame of the gable connection component (1-03) by the first mounting bolt (1-03-07); the gable connection component (1-03) connects the frame component (1-01) and the gable connection component (1-03) together by the connecting bolts (1-01-04).

5. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 4 is characterized in that: The roof connection assembly (1-04) comprises an aluminum alloy profile eight (1-04-01), an aluminum alloy profile nine (1-04-02), an intermediate rolling three (1-04-03), a polyurethane thermal insulation three (1-04-04), a polyurethane thermal insulation five (1-04-05), a thermal insulation board two (1-04-06), a second mounting bolt (1-04-07), an aluminum alloy profile ten (1-04-08), an aluminum alloy profile eleven (1-04-09), an intermediate rolling five (1-04-10), and a polyurethane thermal insulation six (1-04-11); the intermediate rolling three (1-04-03) is a reinforced PA66 thermal insulation strip composed of a thermally broken bridge profile; the aluminum alloy profile eight (1-04-01), the aluminum alloy profile nine (1-0 The cavity of the intermediate rolling part (1-04-03) is filled with polyurethane thermal insulation part (1-04-04); at the corresponding position of the mounting bolt of the connecting bolt (1-01-04), the outer wall of the aluminum alloy profile part (1-04-01) and the aluminum alloy profile part (1-04-02) is provided with mounting holes and process holes; after the bolt is installed, polyurethane thermal insulation part (1-04-05) is injected into the mounting hole position; the thermal insulation board part (1-04-06) is fixed in the roof connecting component (1-04) by the second mounting bolt (1-04-07); the roof connecting component (1-04) connects the frame component (1-01) and the roof connecting component (1-04) together by the connecting bolt (1-01-04).

6. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 5 is characterized in that: The gable connection assembly (1-03) also includes aluminum alloy profile six (1-03-08), aluminum alloy profile seven (1-03-09), a first connection angle code (1-03-10), a second connection angle code (1-03-11), an intermediate roll-pressed profile four (1-03-12), and bolts (1-04-13); the intermediate roll-pressed profile four (1-03-12) is a reinforced PA66 heat insulation strip composed of a broken bridge profile; polyurethane is passed through the cavity of the aluminum alloy profile six (1-03-08), the aluminum alloy profile seven (1-03-09), and the intermediate roll-pressed profile four (1-03-12) to form a heat-insulating strip; The insulation one (1-03-04) is filled; the aluminum alloy profile six (1-03-08) is provided with a mounting hole and a process hole at a position corresponding to the mounting bolt of the connecting bolt (1-01-04); the connecting bolt (1-01-04) connects the frame component (1-01) and the gable connecting component (1-03); the heat-insulating profile composed of the aluminum alloy profile six (1-03-08) and the aluminum alloy profile seven (1-03-09) is connected to the ground connecting component (1-02) through the self-tapping screws of the first connecting angle code (1-03-10) and the second connecting angle code (1-03-11); The thermal insulation board one (1-03-06) is fixed by a first mounting bolt (1-03-07) between the aluminum alloy profile four (1-03-01), aluminum alloy profile five (1-03-02) and intermediate rolling two (1-03-03) of the gable connection component (1-03), and the thermal insulation board one (1-03-06) is fixed by a first mounting bolt (1-03-07) between the thermal insulation board formed by filling the wall with polyurethane thermal insulation one (1-03-04) after rolling and the thermal insulation board one (1-03-09) and aluminum alloy profile six (1-03-08) intermediate rolling four (1-03-12) PA66 thermal insulation strips. The broken bridge profile composed of the aluminum alloy profile four (1-03-01) and the aluminum alloy profile five (1-03-02) is connected to the frame profile of the roof connection component (1-04) through bolts (1-04-13), and the frame profile is composed of aluminum alloy profile ten (1-04-08) and aluminum alloy profile eleven (1-04-09), intermediate rolling five (1-04-10), and filled with polyurethane insulation six (1-04-11); the aluminum alloy profile ten (1-04-08) is connected to the frame component (1-01) through connecting bolts (1-01-04), so as to connect the frame component (1-01) and the roof connection component (1-04) together.

7. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 6 is characterized in that: The ground module (2) comprises an aluminum alloy profile twelve (2-01), an aluminum alloy profile thirteen (2-02), a rolled heat insulation strip one (2-03), a polyurethane heat insulation strip seven (2-04), a heat insulation board three (2-05), and an aluminum pressure strip (2-06); the aluminum alloy profile twelve (2-01), the aluminum alloy profile thirteen (2-02), the rolled heat insulation strip one (2-03), and the polyurethane heat insulation strip seven (2-04) constitute a main frame, and the main frame is connected to the ground connection component (1-02) of the fixed module (1) through a pin shaft component (10); the heat insulation board three (2-05), the aluminum pressure strip (2-06) and the aluminum pressure strip are fixed to the frame to form a ground board.

8. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 7 is characterized in that: The first gable module (4) comprises an aluminum alloy profile 18 (4-01), a front aluminum alloy profile 19 (4-02), a heat insulation strip 4 (4-03), a polyurethane heat insulation strip 10 (4-04), a heat insulation board 4 (4-06), a pressure strip 2 (4-07), a first aluminum alloy center support (4-08), a rear aluminum alloy profile 19 (4-09), an aluminum alloy profile 20 (4-10), a heat insulation strip 5 (4-11), and a polyurethane heat insulation strip 11 (4-12). The aluminum alloy profile 18 (4-0 1), a front aluminum alloy profile 19 (4-02) and a heat insulation strip 4 (4-03) form a main frame, and the heat insulation cavity of the aluminum alloy profile 18 (4-01), the front aluminum alloy profile 19 (4-02) and the heat insulation strip 4 (4-03) is filled with polyurethane insulation 10 (4-04); the main frame is connected to the gable connection component (1-03) of the fixed module (1) through a pin shaft component (10); the heat insulation board 4 (4-06) of the first gable module (4) is connected to the frame through a pressure strip 2 (4-07).

9. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 8 is characterized in that: The second gable module (5) comprises an aluminum alloy profile twenty-one (5-01), an aluminum alloy profile twenty-two (5-02), a heat insulation strip six (5-03), a polyurethane heat insulation strip twelve (5-04), a heat insulation board five (5-06), a pressure strip three (5-07), a second aluminum alloy center support (5-08), an aluminum alloy profile twenty-three (5-09), an aluminum alloy profile twenty-four (5-10), a heat insulation strip seven (5-11), a polyurethane heat insulation strip thirteen (5-12); the aluminum alloy profile twenty-one (5-01) and the aluminum alloy profile twenty-two (5-02) and the rolled insulation strip six (5-03) constitute the main frame of the second gable module (5), and the insulation cavity is filled with polyurethane insulation twelve (5-04), and the main frame is connected to the gable connection component (1-03) through the pin shaft component (10); the insulation board five (5-06) of the second gable module (5) is connected to the frame through the pressure strip three (5-07).

10. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 9 is characterized in that: The roof module (6) comprises aluminum alloy profile twenty-five (6-01), aluminum alloy profile twenty-six (6-02), thermal insulation strip eight (6-03), polyurethane thermal insulation fourteen (6-04), polyurethane thermal insulation fifteen (6-05), thermal insulation board six (6-06), pressure strip four (6-07), second thermal break profile (6-08), aluminum alloy profile twenty-seven (6-09), thermal insulation strip nine (6-11), polyurethane thermal insulation sixteen (6-12), polyurethane thermal insulation seventeen (6-13), aluminum alloy profile twenty-nine (6-14), thermal insulation strip ten (6-15), polyurethane thermal insulation eighteen (6-16), polyurethane thermal insulation nineteen (6-17); aluminum alloy profile twenty-five (6-01) and aluminum alloy profile twenty-six (6-02) are rolled and heat insulation strip eight (6-03), and the cavity is filled with polyurethane thermal insulation fourteen (6-04) to form a main frame of the roof module (6); the main frame of the roof module (6) is connected to the roof connection component (1-04) through a pin shaft component (10); the heat insulation board six (6-06) of the roof module (6) is connected to the frame through a pressure strip four (6-07).

11. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 10, characterized in that: The main frame of the floor module (2) is composed of aluminum alloy profile twelve (2-01) and aluminum alloy profile thirteen (2-02), roll-pressed insulation strip one (2-03), and the cavity is filled with polyurethane insulation seven (2-04); the middle frame adopts aluminum alloy middle support profile filled with polyurethane insulation; the floor board is insulation board three (2-05), which is fastened by aluminum pressure strip (2-06); double-channel sealing strips are used around the floor module (2), and double-channel sealing is adopted around the board.

12. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 11, characterized in that: The main frame of the first gable module (4) is composed of aluminum alloy profile 18 (4-01) and front aluminum alloy profile 19 (4-02) roll-pressed insulation strip 4 (4-03), and the insulation cavity is filled with polyurethane insulation 10 (4-04); the middle keel of the wall is a polyurethane-filled insulation bridge first aluminum alloy middle support (4-08); the rear aluminum alloy profile 19 (4-09) and aluminum alloy profile 20 (4-10) roll-pressed insulation strip 5 (4-11), and the insulation cavity is filled with polyurethane insulation 11 (4-12); the hinge position is designed to strengthen the connection bolts, and the bolt position is set The wall is filled with thermal insulation polyurethane, and the bolt installation holes are provided with process hole decorative covers; the top keel of the wall is composed of aluminum alloy profile 18 (4-01) and front aluminum alloy profile 19 (4-02) roll-pressed insulation strip four (4-03), and the insulation cavity is filled with polyurethane insulation ten (4-04); the bottom keel of the wall is composed of rear aluminum alloy profile 19 (4-09) and aluminum alloy profile 20 (4-10) roll-pressed insulation strip five (4-11), and the insulation cavity is filled with polyurethane insulation eleven (4-12), and the insulation board four (4-06) is fastened by pressure strip two (4-07).

13. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 12 is characterized in that: The main frame of the second gable module (5) is composed of aluminum alloy profile 21 (5-01) and aluminum alloy profile 22 (5-02) roll-pressed insulation strip 6 (5-03), and the insulation cavity is filled with polyurethane insulation 12 (5-04); the middle keel of the wall is a polyurethane-filled insulation bridge second aluminum alloy middle support (5-08); the side keel of the wall is aluminum alloy profile 23 (5-09) and aluminum alloy profile 24 (5-10) roll-pressed insulation strip 7 (5-11), and the insulation cavity is filled with polyurethane insulation 13 (5-12); The top keel of the wall of the second gable module 5 is composed of aluminum alloy profile twenty-one (5-01) and aluminum alloy profile twenty-two (5-02) rolled insulation strip six (5-03), and the insulation cavity is filled with polyurethane insulation twelve (5-04); the bottom keel of the wall is composed of aluminum alloy profile twenty-three (5-09) and aluminum alloy profile twenty-four (5-10) rolled insulation strip seven (5-11) insulation strips, and the insulation cavity is filled with polyurethane insulation thirteen (5-12); the insulation board five (5-06) is fastened by the pressure strip three (5-07).

14. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 13 is characterized in that: The cross-sectional frame of the roof module (6) is composed of aluminum alloy profile 25 (6-01) and aluminum alloy profile 26 (6-02), roll-pressed insulation strip 8 (6-03), and polyurethane insulation 14 (6-04) is filled in the cavity; reinforcing bolts are arranged at the pin shaft assembly (10) and then filled with polyurethane insulation 15 (6-05); a process hole cover is arranged at the reinforcing bolt installation hole; the middle keel of the roof module (6) is a polyurethane insulation filled second broken bridge profile (6-08); the insulation board 6 (6-06) is fastened by the pressure strip 4 (6-07); the eaves frame of the vertical cross-sectional view of the roof module (6) is composed of aluminum alloy profile 27 (6-09) and aluminum alloy The profile twenty-eight (6-10) is composed of roll-pressed insulation strip nine (6-11), and the cavity is filled with polyurethane insulation sixteen (6-12); reinforcing bolts are arranged at the profile pin shaft, and polyurethane insulation seventeen (6-13) is filled at the reinforcing bolts, and the bolt installation holes are sealed with process decorative covers; the main frame of the roof module (6) in the vertical section view is composed of polyurethane insulation seventeen (6-13) and aluminum alloy profile twenty-nine (6-14) roll-pressed insulation strip ten (6-15) and polyurethane insulation eighteen (6-16) is filled in the cavity; reinforcing bolts are arranged at the profile pin shaft, and polyurethane insulation nineteen (6-17) is filled at the reinforcing bolts, and the bolt installation holes are sealed with process decorative covers.

15. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 14, characterized in that: The front wall module (3) comprises aluminum alloy profile 14 (3-01), aluminum alloy profile 15 (3-02), thermal insulation strip 2 (3-03), polyurethane thermal insulation 8 (3-04), thermal insulation board (3-06), pressure strip 1 (3-07), first thermal break profile (3-08), aluminum alloy profile 16 (3-09), aluminum alloy profile 17 (3-10), thermal insulation strip 3 (3-11), polyurethane thermal insulation 9 (3-12), and urethane thermal insulation (3-13); reinforcing bolts are arranged at the pin shaft assembly (10) and then filled with polyurethane thermal insulation (3-13); the middle keel of the front wall module (3) in the cross-sectional view is polyurethane thermal insulation filled with the first thermal break profile (3-08); the front wall thermal insulation board (3-06) is composed of pressure strip 1 (3-09); 7) Fasten; the bottom frame of the longitudinal section of the front wall module (3) is composed of aluminum alloy profile sixteen (3-09) and aluminum alloy profile seventeen (3-10) roll-pressed insulation strip three (3-11), and the cavity is filled with polyurethane insulation nine (3-12); reinforcing bolts are arranged at the profile pins, polyurethane insulation (3-13) is filled at the reinforcing bolts, and the bolt mounting holes are sealed with process decorative covers; the top frame of the vertical section of the front wall module (3) is composed of aluminum alloy profile fourteen (3-01) and aluminum alloy profile fifteen (3-02) roll-pressed insulation strip two (3-03), and the cavity is filled with polyurethane insulation eight (3-04); reinforcing bolts are arranged at the profile pins, polyurethane insulation (3-13) is filled at the reinforcing bolts, and the bolt mounting holes are sealed with process decorative covers.

16. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 15, characterized in that: The bottom frames of the first gable module (4) and the second gable module (5) are connected to the frame of the ground module (2) by a pin assembly (10), and a reinforcing bolt (11) is provided at the connection point pin assembly (10); the top frames of the first gable module (4) and the second gable module (5) are connected to the frame of the roof module (6) by a pin assembly (10), and a reinforcing bolt (11) is provided at the connection point pin assembly (10).

17. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 16 is characterized in that: The bottom frame of the front wall module (3) is connected to the frame of the ground module (2) by a pin assembly (10), and a reinforcing bolt (11) is arranged at the connection point of the pin assembly (10); the top frame of the front wall module (3) is connected to the frame of the roof module (6) by a pin assembly (10), and a reinforcing bolt (11) is arranged at the connection point of the pin assembly (10); the main frame of the roof module (6) is connected to the roof connection component (1-04) in the fixed module (1) by the pin assembly (10), and a reinforcing bolt (11) is arranged at the connection point of the pin assembly (10); the main frame of the ground module (2) is connected to the fixed module (1) component by the pin assembly (10), and a reinforcing bolt (11) is arranged at the connection point of the pin assembly (10).

18. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 17 is characterized in that: The side frame of the front wall module (3) is connected to the frames of the first gable module (4) and the second gable module (5) by a pin assembly (10), and a reinforcing bolt (11) is provided at the connection point pin assembly (10).

19. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 18 is characterized in that: The pin assembly (10) is composed of hinge pin holes (10-01) provided in the frame structure of each module, a pin (10-02) and a positioning machine screw (10-03); according to the folding requirements of the module, the module frame profile structure reserves hinge pin holes (10-01), and the redundant pin holes are milled off.

20. The low-energy-consumption, lightweight, corrosion-resistant, foldable barracks according to claim 19 is characterized in that: The pin assembly (10) is arranged on the frame of each module according to the force requirements and folding requirements of each module.

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