Unmanned monitoring passive energy-saving constant-temperature room capable of being quickly assembled

Abstract

The utility model discloses an unmanned monitoring passive energy-saving constant-temperature room capable of being quickly assembled. The unmanned monitoring passive energy-saving constant-temperature room comprises a room body built in an assembly type building mode. The house main body is subjected to heat preservation or heat insulation treatment and is internally provided with an air conditioner for keeping indoor constant temperature; a heat exchange device of the air conditioner exchanges heat between air in a room of the house main body and stored water in a heat storage water tank arranged outside the house main body; the heat storage water tank is connected with the solar water heating device and the heat dissipation device through pipelines, stored water is heated through the solar water heating device, and the stored water is cooled through the heat dissipation device. And a pipeline of the solar water heating device for heating water in the heat storage water tank is controlled to be opened and closed by a temperature sensor arranged in the house main body chamber. The energy consumption for keeping the constant temperature of the building is greatly reduced, the cost of a power generation device and energy storage equipment can be effectively reduced, energy conservation and emission reduction in the operation process are further achieved, and the purposes of green energy conservation and carbon reduction in the whole process of the building are achieved.

Description

Technical Field

[0001] This utility model relates to the field of constant temperature technology for structures, and in particular to a rapidly assembled, unmanned, passive, energy-saving constant temperature room. Background Technology

[0002] In existing temporary structures, especially in some remote stations where simple rest rooms (for guards, etc.) are added later, there are often situations where it is inconvenient to connect to electricity and other energy sources later.

[0003] Moreover, this type of housing is mainly considered for small buildings with poor construction conditions, high costs and long construction periods using traditional methods, and high requirements for room temperature.

[0004] Therefore, how to significantly reduce the energy consumption of maintaining a constant building temperature, reduce the cost of power generation and energy storage equipment, achieve energy conservation and emission reduction during operation, and realize the goal of green energy conservation and carbon reduction throughout the entire building process has become a technical problem that urgently needs to be solved by those skilled in the art. Utility Model Content

[0005] In view of the above-mentioned deficiencies of the prior art, this utility model provides a rapidly assembled, unmanned, passive, energy-saving, constant-temperature room. The purpose is to greatly reduce the energy consumption for maintaining a constant temperature in a building, reduce the cost of power generation and energy storage equipment, achieve energy conservation and emission reduction during operation, and realize the green energy conservation and carbon reduction goal of the entire building process.

[0006] To achieve the above objectives, this utility model discloses a rapidly assembled, unmanned, passive, energy-saving, constant-temperature house, including a main body of the house constructed using a prefabricated construction method;

[0007] The main structure of the house is insulated or heat-insulated, and the interior is equipped with air conditioning to maintain a constant indoor temperature.

[0008] The heat exchange device of the air conditioner exchanges heat between the air inside the main building and the water stored in the hot water tank located outside the main building.

[0009] The hot water storage tank is connected to a solar water heating device and a heat dissipation device via pipelines. The solar water heating device heats the stored water, and the heat dissipation device cools the stored water.

[0010] The pipeline used by the solar water heating device to heat the water in the hot water storage tank is controlled by a temperature sensor located inside the main building.

[0011] Preferably, the main body of the house is equipped with a monitoring system connected to the air conditioner, and the operation of the air conditioner is monitored through the monitoring system.

[0012] Preferably, the main body of the house adopts prefabricated steel structure components, including ground piles, prefabricated foundations, prefabricated beams and columns, prefabricated walls, prefabricated floors, prefabricated roof slabs, doors and windows, and sealing systems.

[0013] Preferably, it also includes a wind power generation system and a photovoltaic power generation system installed outside the main body of the building;

[0014] Both the wind power generation system and the photovoltaic power generation system are charged by the energy storage system installed inside the main body of the building.

[0015] The energy storage system is used to supply power to the air conditioner.

[0016] In practical applications, wind power generation systems and photovoltaic power generation systems are used to complement each other, and energy storage systems are used to provide uninterrupted power supply for building monitoring systems and temperature control systems.

[0017] More preferably, the solar water heating device, the wind power generation system, and the photovoltaic power generation system are all installed on the roof of the main building.

[0018] More preferably, the energy storage system includes a storage battery, a lithium iron phosphate battery, or a ternary lithium battery.

[0019] Preferably, the main structure of the house includes a top beam and a ground beam;

[0020] Both the top beam and the ground beam include a rectangular outer beam, as well as a positioning beam and several primary inner beams disposed within the outer beam;

[0021] Each of the aforementioned positioning beams is cross-shaped and includes a first positioning beam and a second positioning beam that are intersected at a 90-degree angle.

[0022] The primary inner beams within the outer beams of the top beam and the ground beam are arranged along the length direction of the corresponding first positioning beam or the corresponding second positioning beam.

[0023] Each of the first-level inner beams within the ground beam has several second-level inner beams along its length, which are provided between it and another adjacent first-level inner beam, between it and an adjacent outer beam, and between it and an adjacent first or second positioning beam.

[0024] Each of the first positioning beams and the corresponding second positioning beams has an insertion slot at the intersection center on the facing side, and a rotating shaft extending along the intersection center is provided at the corresponding insertion slot at the intersection center, so that each of the first positioning beams and the corresponding second positioning beams can rotate relative to each other before being inserted through the corresponding insertion slot.

[0025] The width of the insertion slot of each of the first positioning beams is matched with the width of the corresponding second positioning beam.

[0026] The width of the insertion slot of each of the second positioning beams is matched with the width of the corresponding first positioning beam.

[0027] Two positioning keys are provided around the corresponding intersection center between each of the first positioning beams and the corresponding second positioning beams;

[0028] Both positioning keys are L-shaped angle steel structures. Each right-angled side is pre-fixed to the corresponding first positioning beam or the corresponding second positioning beam. After the corresponding first positioning beam and the corresponding second positioning beam are snapped together in a cross shape through the corresponding insertion slots, they are fixed by the positioning keys passing through the pre-set fixing holes on the other right-angled side and the corresponding other second positioning beam, or on the other right-angled side and the corresponding other first positioning beam.

[0029] The outer beam of the ground beam is provided with a plurality of spiral ground piles, which are fixed to the ground.

[0030] Each of the first positioning beams, each of the second positioning beams, each of the first-level inner beams and each of the second-level inner beams is provided with a connecting plate at both ends. The connecting plate is provided with beam bolt holes and beam fixing bolts are passed through it to connect to the corresponding outer beam, the corresponding first positioning beam, the corresponding second positioning beam or the corresponding first-level inner beam.

[0031] The ground beam is provided with a ground beam insulation layer;

[0032] The insulation layer of the ground beam extends downward from the position of the wall panel corresponding to the external location of the ground beam, covers the ground beam, and is fixed by wall fixing bolts.

[0033] More preferably, each of the spiral piles is provided with a ground beam fixing member at the top, and is fixed to the outer beam of the ground beam by the corresponding ground beam fixing member;

[0034] Each of the aforementioned ground beam fasteners includes two plate structures whose spacing is adjusted by height-adjusting nuts;

[0035] In the two plate structures, the lower plate structure is fixed to the corresponding helical ground piles, and the upper plate structure is fixed to the ground beam by a pair of parallel plates that match the width of the ground beam.

[0036] Both of the aforementioned plate structures have height adjustment bolts installed near the edges via bolt holes;

[0037] Each of the height adjustment bolts achieves height adjustment by means of three height adjustment nuts provided on the threaded portion and the screw head clamping the corresponding two plate structures;

[0038] Each pair of parallel plates, matching the width of the ground beam, is provided with bolt holes for fixing by bolts passing through the corresponding ground beam.

[0039] More preferably, it also includes ceiling panels, floor panels, and wall panels;

[0040] The top plate includes top plate panels located on the upper and lower surfaces, and a top plate insulation layer disposed between the two top plate panels;

[0041] The floor includes floor panels located on the upper and lower surfaces, and a floor insulation layer disposed between the two floor panels;

[0042] The thickness of the top insulation layer is greater than the thickness of the floor insulation layer;

[0043] The wall panel consists of wall panel faces on the outer and inner surfaces, and a wall panel insulation layer disposed between the two wall panel faces.

[0044] Each of the wall panels is provided with an internal support frame on the side facing the corresponding wall panel insulation layer.

[0045] Each of the wall panel insulation layers has a groove around its entire circumference on all four sides;

[0046] Near the top of the wall panel, corresponding to the bottom of the corresponding groove, there is a top beam mounting hole that penetrates the two wall panel panels. Near the top of the wall panel, corresponding to the bottom of the corresponding groove, there is a ground beam mounting hole that penetrates the two wall panel panels.

[0047] Each of the aforementioned top beam mounting holes and each of the aforementioned ground beam mounting holes is provided with a wall fixing bolt;

[0048] The floor and the ground beam are fixed together by floor fasteners with an angle steel structure installed under the floor;

[0049] Airtight fasteners are provided between each wall panel and the top panel, and between each wall panel and the floor, at positions corresponding to the top beam and the ground beam.

[0050] More preferably, the sidewall of the groove at the upper end of each wall panel connected to the top beam extends upward to form a steel beam insulation layer covering the corresponding top beam;

[0051] Each of the steel beam insulation layers is provided with wall fixing bolts, which are used to fix it to the corresponding top beam.

[0052] The beneficial effects of this utility model are:

[0053] This invention significantly reduces the energy consumption for maintaining a constant building temperature, effectively reducing the cost of power generation and energy storage equipment, further achieving energy conservation and emission reduction during operation, and realizing the goal of green energy conservation and carbon reduction throughout the entire building process.

[0054] The following will further explain the concept, specific structure and technical effects of this utility model in conjunction with the accompanying drawings, so as to fully understand the purpose, features and effects of this utility model. Attached Figure Description

[0055] Figure 1 A schematic diagram of an embodiment of the present invention is shown.

[0056] Figure 2 A schematic diagram of the top beam structure is shown in one embodiment of this utility model.

[0057] Figure 3 A schematic diagram of the ground beam structure in one embodiment of this utility model is shown.

[0058] Figure 4 This is a side view diagram showing the state of the first positioning beam and the second positioning beam not being engaged at their intersection position in one embodiment of the present invention.

[0059] Figure 5 This is a top view of the state when the first positioning beam and the second positioning beam are not engaged at their intersection position in one embodiment of the present invention.

[0060] Figure 6 This diagram shows the structure after the first positioning beam and the second positioning beam are snapped together at the intersection in one embodiment of the present invention.

[0061] Figure 7 The diagram shows a structural schematic of a secondary inner beam in one embodiment of the present invention.

[0062] Figure 8 This diagram illustrates the structural connection between the primary inner beam and the outer beam in one embodiment of the present invention.

[0063] Figure 9 This diagram illustrates the structural connection between the secondary inner beam and the primary inner beam in one embodiment of the present invention.

[0064] Figure 10 This diagram illustrates the connection between the primary inner beam and the positioning beam in one embodiment of the present invention.

[0065] Figure 11 This diagram illustrates the structural connection between the spiral pile and the outer beam in the ground beam according to one embodiment of the present invention.

[0066] Figure 12 This diagram illustrates the structural connection between the spiral pile and the positioning beam, primary inner beam, or secondary inner beam in one embodiment of the present invention.

[0067] Figure 13 This diagram shows a schematic of a spiral pile with a plate structure at the upper end in one embodiment of the present invention.

[0068] Figure 14 The diagram shows a top view of the upper plate structure and a pair of parallel plates on top of it that match the width of the ground beam in a two-plate structure according to one embodiment of the present invention.

[0069] Figure 15 This diagram shows a side view of the upper plate structure and a pair of parallel plates on top that match the width of the ground beam in a two-plate structure according to one embodiment of the present invention.

[0070] Figure 16 The diagram shows a structural schematic of the top plate in one embodiment of the present invention.

[0071] Figure 17 A schematic diagram of the floor structure is shown in one embodiment of the present invention.

[0072] Figure 18 A schematic diagram of the wall panel in one embodiment of the present invention is shown.

[0073] Figure 19 This diagram shows a structural schematic of the internal support of the wall panel in one embodiment of the present invention.

[0074] Figure 20 This diagram illustrates a structure with a steel beam insulation layer at the upper end of the wall panel in one embodiment of the present invention.

[0075] Figure 21 This diagram illustrates a structure in which the steel beam insulation layer is installed outside the top beam in one embodiment of the present invention. Detailed Implementation

[0076] Example

[0077] like Figure 1 As shown, the rapidly assembled unmanned, passive, energy-saving, constant-temperature house includes the main body 1 of the house constructed using a prefabricated construction method;

[0078] The main body of the house 1 is insulated or heat-insulated, and an air conditioner 11 is installed inside to maintain a constant indoor temperature;

[0079] The heat exchange device of the air conditioner 11 exchanges heat between the air inside the main building 1 and the water stored in the hot water storage tank 3 located outside the main building 1.

[0080] The hot water storage tank 3 is connected to the solar water heating device 2 and the heat dissipation device 4 through pipelines. The solar water heating device 2 heats the stored water, and the heat dissipation device 4 cools the stored water.

[0081] The pipeline for heating the water in the solar water heating device 2 to the hot water storage tank 3 is controlled by the temperature sensor 5 located inside the main building 1.

[0082] This invention utilizes the high specific heat capacity of water in the hot water storage tank 3, supplemented by a solar water heating device 2 for heating and a heat dissipation device 4 for cooling, to provide a stable heat dissipation and heating environment for the air conditioner 11.

[0083] The pipeline for heating the water in the solar water heating device 2 to the hot water storage tank 3 is controlled by a temperature sensor 5 located inside the main building 1.

[0084] When the indoor temperature is higher than the preset threshold and the air conditioner 11 needs to cool, the temperature sensor 5 shuts off the pipeline of the solar water heater 2 that heats the water in the hot water storage tank 3, so that the temperature of the water in the hot water storage tank 3 continues to decrease.

[0085] When the indoor temperature is lower than the preset threshold and the air conditioner 11 needs to heat, the temperature sensor 5 opens the pipeline of the solar water heating device 2 to heat the water in the hot water storage tank 3, so that the temperature of the water in the hot water storage tank 3 continues to increase.

[0086] Moreover, the main body of the building 1 adopts a prefabricated construction method, which not only reduces the difficulty of construction, but also achieves energy conservation and carbon reduction in the building construction method. The use of thermal insulation or heat insulation treatment, as well as the stable heat dissipation and heating environment achieved through hot water storage tank 3, solar water heating device 2, and heat dissipation device 4, greatly reduces the energy consumption for maintaining a constant temperature in the building. This can effectively reduce the cost of power generation devices and energy storage equipment, further achieving energy conservation and emission reduction in the operation process, and realizing the green energy conservation and carbon reduction goal of the entire building process.

[0087] In some embodiments, the main body of the house 1 is equipped with a monitoring system 12 connected to the air conditioner 11, and the monitoring system 12 monitors the operation of the air conditioner 11.

[0088] In some embodiments, the main body of the house 1 is made of prefabricated steel structure components, including piles, prefabricated foundations, prefabricated beams and columns, prefabricated walls, prefabricated floors, prefabricated roofs, doors and windows, and sealing systems.

[0089] In some embodiments, a wind power generation system 6 and a photovoltaic power generation system 7 are also provided outside the main building 1;

[0090] Both the wind power generation system 6 and the photovoltaic power generation system 7 are charged by the energy storage system 8 installed inside the main building 1;

[0091] Energy storage system 8 is used to supply power to air conditioner 11.

[0092] In practical applications, a complementary power generation system of wind power generation system 6 and photovoltaic power generation system 7 is adopted, and an energy storage system 8 is used to provide uninterrupted power supply for building monitoring system and constant temperature system.

[0093] In some embodiments, the solar water heating system 2, the wind power generation system 6, and the photovoltaic power generation system 7 are all installed on the roof of the main building 1.

[0094] In some embodiments, the energy storage system 8 includes a battery, a lithium iron phosphate battery, or a ternary lithium battery.

[0095] like Figures 2 to 10 As shown, in some embodiments, the main body of the house 1 includes a top beam 13 and a ground beam 14;

[0096] Both the top beam 13 and the ground beam 14 include a rectangular outer beam 15, a positioning beam 16 and several primary inner beams 17 set inside the outer beam 15;

[0097] Each positioning beam 16 is cross-shaped and includes a first positioning beam 161 and a second positioning beam 162 that are intersected at a 90-degree angle.

[0098] Several primary inner beams 17 within the outer beams 15 of the top beam 13 and the ground beam 14 are arranged along the length direction of the corresponding first positioning beam 161 or the corresponding second positioning beam 162.

[0099] Each of the first-level inner beams 17 within the ground beam 14, between itself and another adjacent first-level inner beam 17, between itself and an adjacent outer beam 15, and between itself and an adjacent first positioning beam 161 or second positioning beam 162, is provided with several second-level inner beams 18 along the length direction.

[0100] Each first positioning beam 161 and the corresponding second positioning beam 162 has an insertion groove 163 at the intersection center position on the facing side, and a rotating shaft 164 extending along the intersection center is provided at the corresponding insertion groove 163 at the intersection center position, so that each first positioning beam 161 and the corresponding second positioning beam 162 can rotate relative to each other before being inserted through the corresponding insertion groove 163.

[0101] The width of the insertion slot 163 of each first positioning beam 161 is matched with the width of the corresponding second positioning beam 162;

[0102] The width of the insertion slot 163 of each second positioning beam 162 is matched with the width of the corresponding first positioning beam 161;

[0103] Two positioning keys 165 are provided around the corresponding intersection center between each first positioning beam 161 and the corresponding second positioning beam 162;

[0104] Both positioning keys 165 are angle steel structures formed in the shape of an "L". Each right-angle side is pre-fixed to the corresponding first positioning beam 161 or the corresponding second positioning beam 162. After the corresponding first positioning beam 161 and the corresponding second positioning beam 162 are snapped together in a cross shape by the corresponding insertion slot 163, the positioning key 167 is inserted through the pre-set fixing hole 166 of the other right-angle side and the corresponding other second positioning beam 162, or through the other right-angle side and the corresponding other first positioning beam 161.

[0105] The outer beam 15 of the ground beam 14 is provided with a number of spiral ground piles 20, which are fixed to the ground by the number of spiral ground piles 20;

[0106] Each first positioning beam 161, each second positioning beam 162, each first-level inner beam 17 and each second-level inner beam 18 is provided with a connecting plate 19 at both ends. The connecting plate 19 is provided with beam bolt holes 191 and beam fixing bolts 192 are passed through to connect to the corresponding outer beam 15, the corresponding first positioning beam 161, the corresponding second positioning beam 162 or the corresponding first-level inner beam 17.

[0107] A ground beam insulation layer 141 is provided outside the ground beam 14;

[0108] The ground beam insulation layer 141 extends downward from the position of the wall panel 17 corresponding to the ground beam 14, covers the ground beam 14, and is fixed by the wall fixing bolts 178.

[0109] like Figures 11 to 15 As shown, in some embodiments, each spiral pile 20 is provided with a ground beam fixing member 201 at the top, which is fixed to the outer beam 15 of the ground beam 14 by the corresponding ground beam fixing member 201.

[0110] Each ground beam fixing component 201 includes two plate structures whose spacing is adjusted by height adjusting nuts 202;

[0111] In the two-plate structure, the lower plate structure is fixed to the corresponding helical ground piles 20, and the upper plate structure is fixed to the ground beam 14 by a pair of parallel plates that match the width of the ground beam 14.

[0112] Both plate structures have height adjustment bolts 204 installed near the edge via bolt holes 203;

[0113] Each height adjustment bolt 204 achieves height adjustment through three height adjustment nuts 202 set on the threaded part and the corresponding two plate structures clamped by the screw head;

[0114] Each pair of parallel plates, matching the width of the ground beam 14, is provided with bolt holes 203 for fixing by bolts passing through the corresponding ground beam 14.

[0115] like Figures 16 to 19 As shown, in some embodiments, it also includes a top panel 15, a floor 16, and a wall panel 17;

[0116] The top plate 15 includes a top plate panel 151 located on the upper surface and the lower surface, and a top plate insulation layer 152 disposed between the two top plate panels 151.

[0117] The floor 16 includes floor panels 161 located on the upper and lower surfaces, and a floor insulation layer 162 disposed between the two floor panels 161.

[0118] The thickness of the roof insulation layer 152 is greater than the thickness of the floor insulation layer 162;

[0119] The wall panel 17 has wall panel 171 on the outer and inner surfaces, and wall panel insulation layer 172 disposed between the two wall panel 171.

[0120] Each wall panel 171 is provided with an inner wall panel support 173 on the side facing the corresponding wall panel insulation layer 172.

[0121] Each wall panel insulation layer 172 has a groove 174 that surrounds all four sides.

[0122] Near the top of the wall panel 17, a top beam mounting hole 175 is provided, which passes through the two wall panel panels 171, corresponding to the bottom of the corresponding groove 174. Near the top of the wall panel 17, a ground beam mounting hole 176 is provided, which passes through the two wall panel panels 171, corresponding to the bottom of the corresponding groove 174.

[0123] Each top beam mounting hole 175 and each ground beam mounting hole 176 is equipped with a wall fixing bolt 178;

[0124] The floor 16 and the ground beam 14 are fixed together by floor fasteners 161, which are angle steel structures, installed under the floor 16;

[0125] Airtight fasteners 179 are provided between each wall panel 17 and the top panel 15, and between each wall panel 17 and the floor 16, at the positions corresponding to the top beam 13 and the ground beam 14.

[0126] like Figure 20 and Figure 21 As shown, in some embodiments, the sidewall of the groove 174 at the upper end of each wall panel 17 connected to the top beam 13 extends upward to form a steel beam insulation layer 177 covering the corresponding top beam 13.

[0127] Each steel beam insulation layer 177 is equipped with a wall fixing bolt 178, which is used to fix it to the corresponding top beam 13.

[0128] The preferred embodiments of this utility model have been described in detail above. It should be understood that those skilled in the art can make numerous modifications and variations based on the concept of this utility model without creative effort. Therefore, all technical solutions that can be obtained by those skilled in the art based on the concept of this utility model through logical analysis, reasoning, or limited experimentation on the basis of existing technology should be within the scope of protection defined by the claims.

Claims

1. A fast-assembled, unattended, passive energy-saving constant-temperature room; characterized in that, The housing body (1) is built by using the assembly type building method; The housing body (1) is heat-insulated or heat-protected, and is internally provided with an air conditioner (11) for maintaining constant indoor temperature; The heat exchange device of the air conditioner (11) exchanges heat between the air in the housing body (1) and the water stored in the heat storage water tank (3) arranged outside the housing body (1); The heat storage water tank (3) is connected with a solar water heating device (2) and a heat dissipation device (4) through pipelines, and the water stored in the heat storage water tank (3) is heated by the solar water heating device (2) and cooled by the heat dissipation device (4); The pipeline for heating the water in the heat storage water tank (3) by the solar water heating device (2) is controlled to be opened or closed by a temperature sensor (5) arranged in the housing body (1).

2. The fast assemblable, unattended, passive energy saving constant temperature room of claim 1, wherein, The housing body (1) is provided with a monitoring system (12) connected with the air conditioner (11), and the working condition of the air conditioner (11) is monitored by the monitoring system (12).

3. The fast assemblable, unattended, passive energy saving constant temperature room of claim 1, wherein, The housing body (1) is made of steel structure finished components, including ground pile, prefabricated foundation, prefabricated beam column, prefabricated wall, prefabricated floor, prefabricated roof, door and window, and sealing system.

4. The fast assemblable, unattended, passive energy saving constant temperature room of claim 1, wherein, Further comprising a wind power generation system (6) and a photovoltaic power generation system (7) arranged outside the housing body (1); The wind power generation system (6) and the photovoltaic power generation system (7) are both charged by an energy storage system (8) arranged in the housing body (1); The energy storage system (8) is used to supply power to the air conditioner (11). In practical application, the wind power generation system (6) and the photovoltaic power generation system (7) are used to complement each other, and the energy storage system (8) is used to provide uninterrupted power supply for the building monitoring system and the constant temperature system.

5. The fast-assemble, unattended, passive energy-saving constant-temperature room of claim 4, wherein, The solar water heating device (2), the wind power generation system (6) and the photovoltaic power generation system (7) are all arranged on the roof of the housing body (1).

6. The fast assemblable, unattended, passive energy saving constant temperature room of claim 4, wherein, The energy storage system (8) includes a storage battery, a lithium iron phosphate battery or a ternary lithium battery.

7. The fast assemblable, unattended, passive energy saving constant temperature room of claim 1, wherein, The housing body (1) includes a roof beam (13) and a ground beam (14); The roof beam (13) and the ground beam (14) both include a rectangular outer beam (15), and a positioning beam (16) and a plurality of first-level inner beams (17) arranged in the outer beam (15); Each positioning beam (16) is cross-shaped and includes a first positioning beam (161) and a second positioning beam (162) arranged at an angle of 90 degrees; The plurality of first-level inner beams (17) in the outer beam (15) of the roof beam (13) and the ground beam (14) are arranged along the length direction of the corresponding first positioning beam (161) or the corresponding second positioning beam (162); Each first-level inner beam (17) in the ground beam (14) is provided with a plurality of second-level inner beams (18) along the length direction between the adjacent first-level inner beam (17), the adjacent outer beam (15), and the adjacent first positioning beam (161) or second positioning beam (162). The opposite side of each first positioning beam (161) and corresponding second positioning beam (162) is provided with a plug-in slot (163) at the intersection center position, and a rotating shaft (164) extending along the intersection center is arranged at the corresponding plug-in slot (163) corresponding to the intersection center position, so that each first positioning beam (161) and corresponding second positioning beam (162) can rotate relative to each other before being plugged into the corresponding plug-in slot (163); The width of the plug-in slot (163) of each first positioning beam (161) matches the width of the corresponding second positioning beam (162); The width of the plug-in slot (163) of each second positioning beam (162) matches the width of the corresponding first positioning beam (161); Two positioning keys (165) are arranged around the corresponding intersection center between each first positioning beam (161) and corresponding second positioning beam (162); Both of the positioning keys (165) are formed as an angle steel structure in the shape of "L", and each of the right angle edges is pre-installed on the corresponding first positioning beam (161) or corresponding second positioning beam (162). After the corresponding first positioning beam (161) and corresponding second positioning beam (162) are clamped into a cross shape through the corresponding plug-in slot (163), the positioning key (167) is fixed by penetrating the pre-installed fixing hole (166) on the other right angle edge and the corresponding other second positioning beam (162) or the corresponding other first positioning beam (161); The outer beam (15) of the ground beam (14) is provided with a plurality of spiral piles (20) fixed to the ground through the plurality of spiral piles (20); Both ends of each first positioning beam (161), each second positioning beam (162), each first-level inner beam (17), and each second-level inner beam (18) are provided with a connecting plate (19), and a beam bolt hole (191) is arranged on the corresponding connecting plate (19), and a beam fixing bolt (192) is penetrated to connect the corresponding outer beam (15), the corresponding first positioning beam (161), the corresponding second positioning beam (162), or the corresponding first-level inner beam (17); The ground beam (14) is externally provided with a ground beam insulation layer (141); The ground beam insulation layer (141) extends downward from the position corresponding to the ground beam (14) externally provided on the wall plate (17) to cover the ground beam (14) and is fixed by a wall fixing bolt (178).

8. The fast-assemble, unattended, passive energy-saving constant-temperature room of claim 7, wherein, The top of each spiral pile (20) is provided with a ground beam fixing member (201), and the corresponding ground beam fixing member (201) is fixed to the outer beam (15) of the ground beam (14); Each ground beam fixing member (201) includes two plate structures with a height adjusting nut (202) adjusting the distance between them; Two of the plate structures are fixed with the corresponding screw piles (20), and the other two of the plate structures are fixed with the ground beams (14) through a pair of parallel plates arranged above the ground beams (14) and matching the width of the ground beams (14); Two of the plate structures are arranged with height adjusting bolts (204) through bolt holes (203) arranged near the edges; Each of the height adjusting bolts (204) is arranged with three height adjusting nuts (202) arranged on the threaded part, and the screw head clamps the corresponding two plate structures to achieve height adjustment; Each pair of parallel plates matching the width of the ground beams (14) is arranged with the bolt holes (203), and is fixed with the screw through the corresponding ground beams (14).

9. The fast-assemble, unattended, passive energy-saving constant-temperature room of claim 7, wherein, It also includes a roof (15), a floor (16) and a wall (17); The roof (15) includes roof panels (151) arranged on the upper surface and the lower surface, and a roof insulation layer (152) arranged between the two roof panels (151); The floor (16) includes floor panels (161) arranged on the upper surface and the lower surface, and a floor insulation layer (162) arranged between the two floor panels (161); The thickness of the roof insulation layer (152) is greater than the thickness of the floor insulation layer (162); The wall (17) includes wall panels (171) arranged on the outer surface and the inner surface, and a wall insulation layer (172) arranged between the two wall panels (171); Each of the wall panels (171) is arranged with a wall inner support (173) on the side facing the corresponding wall insulation layer (172); Each of the wall insulation layers (172) is arranged with a groove (174) around the four sides; The wall (17) is arranged with a top beam mounting hole (175) penetrating through the two wall panels (171) near the upper end and corresponding to the bottom of the corresponding groove (174), and a ground beam mounting hole (176) penetrating through the two wall panels (171) near the upper end and corresponding to the bottom of the corresponding groove (174); Each of the top beam mounting hole (175) and the ground beam mounting hole (176) is arranged with the wall fixing bolt (178); The floor (16) and the ground beam (14) are fixed through the floor fixing member (161) arranged below the floor (16) in an angle steel structure; Each of the wall (17) and the roof (15), and each of the wall (17) and the floor (16) is arranged with an airtight fastener (179) at the position corresponding to the top beam (13) and the ground beam (14).

10. The fast-assemble, unattended, passive energy-saving constant-temperature room of claim 9, wherein, The side wall of the groove (174) of the upper end of the wall (17) connected with the top beam (13) extends upward to form a steel beam insulation layer (177) covering the corresponding top beam (13). Each of the steel beam thermal insulation layers (177) is provided with the wall fixing bolts (178) for fixing with the corresponding top beams (13) through the wall fixing bolts (178).

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