Environment-friendly and energy-saving assembly type photovoltaic landscape homestay

Abstract

The invention relates to an environment-friendly and energy-saving assembly type photovoltaic landscape homestay, in particular to a photovoltaic power generation assembly type landscape homestay applying deep integration of a photovoltaic building integration technology and a modular integrated building technology, which is provided with a homestay body and is characterized in that the homestay body is of an upper-part structure, a middle-part structure and a lower-part structure: the upper part is a photovoltaic dome and an upper-layer structure connecting ring; the middle part is provided with a functional structure stand column and a modular photovoltaic wall body; the lower part is provided with a lower-layer structure connecting ring and an assembling base; a house integrated fresh air pipeline system, a house integrated solar photovoltaic networking system and a multi-monomer combined functional gallery bridge piece are arranged in the house body. The method has the advantages that environmental protection is achieved, the discharge amount of construction waste is reduced, and discharge pollution of a construction site is reduced; energy is saved, energy consumption can be reduced through the photovoltaic building integrated technology, and on the premise of photovoltaic array networking energy storage, 100% consumption reduction can be achieved, and the requirement of being completely separated from the mains supply can be met; 3, high efficiency, and 4, better conformity to the modern travel market.

Description

Technical Field

[0001] The present invention relates to an environmentally friendly and energy-saving assembled photovoltaic landscape homestay, and in particular to a photovoltaic power generation assembled landscape homestay that deeply integrates photovoltaic building integration technology and modular integrated building technology, and an installation method thereof. Background Art

[0002] With the development of the modern market and the support of national policies, the cultural tourism industry has seen rapid and vigorous growth. Various scenic spots and attractions are vying for development, particularly in rural areas. The successful attraction of these attractions has brought in a large number of tourists, resulting in a shortage of hotel rooms. Coupled with modern tourists' preference for immersion in nature, the homestay industry has seen strong growth. The homestay industry is rapidly developing, and demand for homestay accommodation is surging. This rapid growth has also led to a shortage of construction land. To address this land shortage, many scenic spots and attractions are opting for temporary structures and space capsule homestays. These structures require no land use quotas and are often prefabricated, requiring minimal site selection and expediting construction, making them a must-have and a growing trend. However, although this type of product solves the problem of land use indicators and has advantages in assembly and construction, it is not satisfactory in terms of compatibility with nature, environmental protection, and energy. It is difficult to fit in with scenic areas and landscapes in nature, and it is difficult to add color to scenic areas and attractions. In terms of environmental protection, there is no greater advantage from materials to construction to maintenance. In terms of energy, it still uses city electricity supply, cannot meet the needs of saving electricity, and cannot get rid of the control of the power grid. After many experiments, the inventor has invented an environmentally friendly and energy-saving assembled photovoltaic landscape homestay with simpler assembly technology, simpler construction process, and more environmentally friendly materials and construction. It can not only add color to scenic areas and attractions as a landscape, but also achieve energy self-sufficiency without city electricity supply. Summary of the Invention

[0003] The environmentally friendly and energy-saving assembled photovoltaic landscape homestay provided by the present invention can fully solve the material environmental protection problems, construction environmental protection problems, energy conservation problems, standardized design and production problems, efficient assembly construction and digital management problems existing in existing assembled homestays such as space capsules. At the same time, it can also solve the problem of the integration of diversified appearance design aesthetics with scenic spots and attractions in nature, as well as the problem of getting rid of the problem of self-sufficiency in mains electricity. This landscape homestay adopts the deep integration of photovoltaic building integration technology and modular integrated building technology, which has the advantages of reducing building energy consumption and achieving building energy conservation. It has standardized design, factory production, assembly construction, integrated decoration, digital management, rapid construction, green and low-carbon, energy-saving and environmental protection. The assembly period is greatly reduced, construction waste emissions are reduced, on-site labor is reduced, and material waste is reduced. While efficiently improving the construction time, it also achieves the problems of material environmental protection and operating environment environmental protection. Energy consumption can be reduced during operation. Under the premise of photovoltaic array networking and energy storage, 100% consumption reduction can be achieved, completely breaking away from the energy-saving and environmental protection requirements of mains self-sufficiency.

[0004] In order to achieve the above-mentioned purpose, the technical solution adopted by the patent of the present invention is: an environmentally friendly and energy-saving assembled photovoltaic landscape homestay, which is equipped with a house body, characterized in that the house body is composed of three structures: upper, middle and lower parts: the upper part is the photovoltaic dome and the upper structure connecting ring; the middle part is the functional structural column and the modular photovoltaic wall; the lower part is the lower structure connecting ring and the assembly base; the house body is equipped with an integrated fresh air duct system, an integrated solar photovoltaic networking system, and a multi-unit combination functional corridor bridge component.

[0005] The upper structure is provided with a photovoltaic dome and an upper structure connecting ring. The photovoltaic dome is a three-glass two-cavity structure. The two cavities are inert gas layers, which are filled with inert gas for heat preservation and sound insulation. Aluminum spacers are provided on the four edges of the inert gas layer. Molecular sieves are filled inside the spacers. The spacers are used for isolation, shock absorption and sealing. The molecular sieves are used for pressure reduction, buffering and space drying. The outer layer of the dome is transparent photovoltaic glass. Electrode terminals are provided on the bottom edge of the photovoltaic glass. The electrode terminals are connected to the power line and are connected to the house integrated solar photovoltaic network system through the upper structure connecting ring and the functional structural columns. The middle layer of the dome is low-E low-radiation glass for blocking light and heat. The inner layer is tempered dimming glass for indoor privacy protection. Inert gas filling holes are provided on the bottom edges of the outer and inner glass layers. An upper structure connecting ring is provided below the photovoltaic dome. The photovoltaic dome is placed flat on the upper structure connecting ring. The edges on both sides are fixed by the outer card plate of the dome and the inner protruding structure of the connecting ring. The planar contact position is sealed by building structural adhesive; the upper structure connecting ring is composed of a plurality of upper structure connecting ring module assemblies, and the outer facade of the upper structure connecting ring module assembly is provided with an upper structure connecting ring photovoltaic panel, and the upper structure connecting ring photovoltaic panel electrode is led to the house integrated solar photovoltaic networking system by the power line; the upper and lower sides of the outer end of the upper structure connecting ring module assembly are provided with upper structure connecting ring column reinforcement screw positions, upper structure connecting ring wire holes, and upper structure connecting ring wire grooves, the upper edge of the outer end is provided with a dome outer card plate, the inner facade is provided with a lighting hole, and the left and right sides of the upper structure connecting ring module assembly are provided with connection reinforcement screw positions; the upper structure connecting ring column reinforcement screw position is bolted to the upper reinforcement screw hole of the functional column by a connecting rod screw, which plays a role of connection and reinforcement; the connection reinforcement screw position is bolted and reinforced by the connecting rod screw through the upper structure connecting ring wire groove to two adjacent upper structure connecting ring module assemblies.

[0006] The central structure is provided with functional structural columns, modular photovoltaic walls, doorway-type photovoltaic walls, functional corridor bridges, swing windows and rain eyebrows. The functional structural columns adopt a unified structural function distinction. The functional structural columns are composed of three types: fresh air columns, exhaust columns and electric control columns. The functional distinction is mainly reflected in the functional reserved openings on the inner facade of the columns. The functional structural columns are provided with internal mechanical structural columns, wall slots, photovoltaic panel installation slots, insulating isolation layers, flame retardant insulation layers, column photovoltaic panels, outer wire holes, column air vents, column inlet and outlet ports, sealing strip slots, sealant slots, column reinforcement angles, reinforcement angle threading holes, inner panel slots, outer side surfaces of columns, upper reinforcement thread holes, power supply inlet slots, fresh air inlet and outlet slots, and power supply outlet slots. The inner facade of the fresh air column is provided with an air inlet, a dual power socket position, and an internal air inlet and outlet; the inner facade of the exhaust column is provided with an exhaust vent, a dual power socket position, and an internal air inlet and outlet; the inner facade of the electric control column is provided with an electric control digital intelligent reserved position, a single power socket position, an optical fiber box position, and an electric control digital intelligent threading port; the fresh air column, the exhaust column and the electric control column are all bolted and reinforced with the upper structure connecting ring through the upper reinforcement thread hole at the top of the column through the connecting rod screw, and the bottom of the functional structure column and the lower structure connecting ring are plugged in through the column plug-in position on the lower structure connecting ring module assembly, and the column reinforcement angle is connected to the column reinforcement position, and the functional column and the lower connecting ring are bolted and reinforced by the connecting rod screw through the reinforcement angle thread hole; the modular photovoltaic wall is three-glass Two-cavity structure, the two cavities are inert gas layers, filled with inert gas for heat preservation and sound insulation, aluminum spacers are provided on the four edges of the two cavities, and molecular sieves are filled inside the spacers. The spacers are used for isolation, shock absorption and sealing, and the molecular sieves are used for pressure reduction, buffering and space drying; the outer layer of the wall is transparent photovoltaic glass, and the top edge of the photovoltaic glass is provided with electrode terminals, which are connected to the power line and lead to the functional structural column through the upper structure connection ring through the wire hole, and then to the house integrated solar photovoltaic network system from the column inlet and outlet; the middle layer of the wall is low-E low-radiation glass for blocking light and heat, and the inner layer is tempered dimming glass for indoor privacy protection, and the upper edges of the outer and inner layers of glass are provided with inert gas filling holes; the modular photovoltaic wall is erected between the upper structure connection ring and the lower layer Between the structural connection rings, the edges on both sides are embedded in the wall slots of the functional structural columns. The side surfaces of the photovoltaic wall are connected and sealed with the functional columns by building structural adhesive, and the upper and lower side planes are connected and sealed with the upper structure connection ring and the lower structure connection ring by building structural adhesive; the functional corridor bridge component is composed of an upper corridor bridge component and an edge corridor bridge component, and the upper corridor bridge component is connected to the corridor bridge slot at the top of the edge corridor bridge component through a corridor bridge plug-in to form a whole. The groove surface of the corridor bridge component and the hollow edge of the doorway-type photovoltaic wall are sealed and reinforced by building structural adhesive; the swing window door is fixed to the inner facade of the edge corridor bridge component by a hinge, and the swing window door is provided with a swing window, a door lock, and a lock tongue; the rain eyebrow is installed and reinforced by a connecting rod screw through the rain eyebrow fixing thread hole and the threading hole of the upper corridor bridge component;Functional bridge pieces can be used as door frames in single-unit landscape B&B applications. When multiple single-unit landscape B&Bs are interconnected, they can be used as bridge connectors to achieve interconnection between multiple units, expand the use space, and realize diversified design of assembly shapes.

[0007] The lower structure is provided with a lower structure connecting ring and an assembly base. The lower structure connecting ring is composed of a plurality of lower structure connecting ring module components. The lower structure connecting ring module components are provided with a lower structure connecting ring reinforcement angle, a column plug-in position, a column reinforcement position, a lower structure connecting ring bolt hole, a connector male interface, a photovoltaic line source inlet and outlet, a fresh air and electric control line source inlet and outlet, and a connector female interface; the lower structure connecting ring module component is engaged with the connector male interface and the connector female interface to connect two adjacent modules, and then covered and reinforced by the connecting reinforcement member and the lower structure connecting ring bolt hole through the connecting bolt; the assembly base is a double-layer wooden structure with thermal insulation material in the middle. The assembly base is flat on the ground and is connected and reinforced through the lower structure connecting ring reinforcement angle of the lower structure connecting ring to achieve the overall stability of the single unit of the photovoltaic landscape homestay.

[0008] The integrated fresh air duct system of the house is a fresh air circulation system formed by fresh air columns, exhaust columns, fresh air ducts and external fresh air main units; the external fresh air main unit sends fresh air through the pipe to the internal air inlet and outlet of the photovoltaic landscape homestay through the air outlet of the fresh air main unit, and then through the fresh air inlet and outlet slots to the air inlet on the fresh air column to provide fresh air to the interior of the landscape homestay; the polluted air in the homestay passes through the exhaust port to the exhaust column, through the fresh air inlet and outlet slots, the fresh air duct to the fresh air main unit, and then is sent to the external air inlet and outlet after heat filtering to discharge the polluted air, thereby forming a complete integrated fresh air duct system for the house.

[0009] The house-integrated solar photovoltaic networking system consists of a photovoltaic dome, modular photovoltaic walls, doorway-type photovoltaic walls, upper structure connecting ring photovoltaic panels, and column photovoltaic panels, which are connected by power lines. The power lines are passed through the upper structure connecting ring through the wire holes to the functional structure columns and then to the power outlet slots. The power lines are then sent through the column inlets and outlets and from the photovoltaic line source inlets and outlets to the external power storage group. After being processed by the integrated solar photovoltaic networking system, the power is returned to the landscape homestay to form an integrated independent photovoltaic power supply system.

[0010] The beneficial effects of the present invention are: 1. Environmental protection, reducing the emission of construction waste and reducing pollution emissions from construction sites; 2. Energy saving, through photovoltaic building integration technology, energy consumption can be reduced. Under the premise of photovoltaic array networking and energy storage, 100% consumption reduction can be achieved and completely independent of the demand for city electricity; 3. High efficiency, through the application of modular integrated building technology, standardized design, factory production, assembly construction, and integrated decoration assembly process can be realized, which can reduce the construction period; 4. More in line with the modern cultural and tourism market, it can perfectly meet the tourists' higher demands for starry sky homestays, and the appearance of the full glass can better integrate into the lighting and light and shadow effects of the scenic area; 5. Low application cost. In addition to the annual electricity cost, this landscape homestay has more reserved space for future transformation and digital upgrades, such as the interconnection of multiple units to expand the use space, such as the wiring and CNC positions reserved during standardized design, and the development of light and shadow effects of the overall glass dome. BRIEF DESCRIPTION OF THE DRAWINGS

[0011] Figure 1 This is a schematic diagram of the appearance structure of the present invention;

[0012] Figure 2 This is a schematic diagram of the lower structure connecting ring module assembly of the present invention;

[0013] Figure 3 It is a schematic front view of the superstructure connecting ring module assembly of the present invention;

[0014] Figure 4 It is a schematic side view of the superstructure connecting ring module assembly of the present invention;

[0015] Figure 5 This is a schematic diagram of the exploded structure of the column facade of the present invention;

[0016] Figure 6 This is a schematic diagram of the fresh air column of the present invention;

[0017] Figure 7 It is a schematic diagram of the exhaust column of the present invention;

[0018] Figure 8 It is a schematic diagram of the electric control column of the present invention;

[0019] Figure 9 This is a schematic diagram of the internal structure of the column of the present invention;

[0020] Figure 10 This is a schematic diagram of the column plug-in position structure of the present invention;

[0021] Figure 11 This is a schematic diagram of a functional covered bridge member of the present invention;

[0022] Figure 12 Schematic diagram of a swing window door of the present invention;

[0023] Figure 13 It is a schematic diagram of a rain eyebrow of the present invention;

[0024] Figure 14 This is a schematic front view of a modular photovoltaic wall according to the present invention;

[0025] Figure 15 This is a schematic diagram of the front view of the doorway-type photovoltaic wall of the present invention;

[0026] Figure 16 Schematic diagram of the exploded cross-section of the wall and dome of the present invention;

[0027] As shown in the figure: 1. Assembly base, 2. Lower structure connecting ring, 3. Modular photovoltaic wall, 3-1. Doorway type photovoltaic wall, 4. Functional structural column, 5. Upper structure connecting ring, 6. Photovoltaic dome, 7. Connection reinforcement, 8. Lower structure connecting ring module assembly, 9. Lower structure connecting ring reinforcement angle, 10. Column plug-in position, 11. Column reinforcement position, 12. Lower structure connecting ring bolt hole, 13. Connector male interface, 14. Photovoltaic line source inlet and outlet, 15. Fresh air and electric control line source, 16 , female connector, 17, upper structure connecting ring module assembly, 18, upper structure connecting ring photovoltaic panel, 19, upper structure connecting ring column reinforcement wire position, 20, connection reinforcement wire position, 21, upper structure connecting ring threading hole, 22, upper structure connecting ring threading groove, 23, lighting hole, 24, dome outer card plate, 25, wall card slot, 26, photovoltaic panel installation slot, 27, insulation isolation layer, 28, flame retardant insulation layer, 29, column photovoltaic panel, 30, external air inlet and outlet, 31, external threading hole, 32. Fresh air column, 33. Air inlet, 34. Dual power socket, 35. Column inlet and outlet, 36. Internal air inlet and outlet, 37. Exhaust column, 38. Exhaust vent, 39. Electric control column, 40. Electric control digital intelligent reserved position, 41. Single power socket, 42. Fiber optic box position, 43. Electric control digital intelligent threading port, 44. Sealing strip slot, 45. Sealant slot, 46. Column reinforcement angle, 47. Reinforcement angle threading hole, 48. Inner panel slot, 49. Column outer side, 50. Upper reinforcement thread hole, 5 1. Power supply line duct, 52. Fresh air inlet and outlet duct, 53. Power supply line duct, 54. Upper corridor bridge piece, 55. Side corridor bridge piece, 56. Corridor bridge plug-in, 57. Corridor bridge slot, 58. Threading hole, 59. Swing window door, 60. Swing window, 61. Door lock, 62. Lock tongue, 63. Rain eyebrow, 64. Rain eyebrow fixing thread hole, 65. Inflation hole, 66. Electrode terminal, 67. Aluminum spacer, 67a. Molecular sieve, 68. Inert gas layer, 69. Photovoltaic glass, 70. Low-E glass, 71. Dimming glass. DETAILED DESCRIPTION

[0028] The present invention will be further described below with reference to the accompanying drawings and specific embodiments:

[0029] like Figure 1-16 The illustration shows an environmentally friendly and energy-saving prefabricated photovoltaic landscape homestay with a building structure consisting of three parts: an upper photovoltaic dome and an upper structural connection ring; a middle part with functional structural columns and modular photovoltaic walls; and a lower part with a lower structural connection ring and an assembly base. Features include a photovoltaic dome, an upper structural connection ring, functional structural columns, modular photovoltaic walls, a lower structural connection ring, an integrated fresh air duct system, an integrated solar photovoltaic networking system, and multi-unit functional bridge components.

[0030] The superstructure is equipped with a photovoltaic dome 6 and a superstructure connecting ring 5. The photovoltaic dome 6 is a three-glass, two-cavity structure. The two cavities contain an inert gas layer 68 filled with inert gas for thermal insulation and sound insulation. Aluminum spacers 67 are installed on all four edges of the inert gas layer 68, and the spacers are filled with molecular sieve 67a. The spacers 67 provide isolation, shock absorption, and sealing, while the molecular sieve 67a provides pressure reduction, buffering, and space drying. The outer layer of the dome is transparent photovoltaic glass 69. The bottom edge of photovoltaic glass 69 is equipped with electrode terminals 66. Electrode terminals 66 are connected to the power line and are connected through the superstructure connecting ring through the wire hole 21 to the functional structural column 4. From the column inlet and outlet 35, they are connected to the photovoltaic line source inlet and outlet 14 to the house's integrated solar photovoltaic network system. The dome's middle layer is low-E glass 70, which blocks sunlight and heat. The inner layer is tempered, dimming glass 71, which provides privacy. The bottom edges of the outer and inner glass layers are equipped with inert gas filling holes 65. Below the photovoltaic dome 6, a superstructure connecting ring 5 is installed. The photovoltaic dome 6 is placed flat on the superstructure connecting ring 5. The two edges are fixed by the connecting ring's outer dome clamping plates 24 and the inner protruding structure. The flat contact points are sealed with building structural adhesive. The superstructure connecting ring 5 is composed of multiple superstructure connecting ring module assemblies 17. The outer facade of the superstructure connecting ring module assemblies 17 is equipped with superstructure connecting ring photovoltaic panels 18. The photovoltaic panel electrodes are connected by power lines through functional structural columns 4 to the column inlet and outlet 35, and then through the line source inlet and outlet 14 to the house's integrated solar photovoltaic network system. The upper and lower sides of the outer end of the upper structure connection ring module assembly 17 are provided with upper structure connection ring column reinforcement thread positions 19, upper structure connection ring threading holes 21, and upper structure connection ring threading grooves 22. The upper edge of the outer end is provided with a dome outer clamping plate 24, and the inner facade is provided with a lighting lamp hole 23. The upper structure connection ring module assembly 17 is provided with connection reinforcement thread positions 20 on the left and right sides. The upper structure connection ring column reinforcement thread positions 19 are bolted to the upper reinforcement thread holes 50 of the functional structure column 4 by connecting rod screws, playing a role in connection and reinforcement. The connection reinforcement thread positions 20 are bolted and reinforced by connecting rod screws through the upper structure connection ring threading grooves 22 to two adjacent upper structure connection ring module assemblies 17.

[0031] The central structure is provided with functional structural columns 4, modular photovoltaic walls 3, doorway type photovoltaic walls 3-1, functional corridor bridges and swing windows 59 and rain eyebrows 63. The functional structural columns 4 adopt a design method of structural unified function differentiation. The functional structural columns 4 are composed of three types: fresh air columns 32, exhaust columns 37, and electric control columns 39. The functional differentiation is mainly reflected in the functional reserved openings on the facade inside the columns. The unified structural design content is: internal mechanical structure, wall slots 25, photovoltaic panel installation slots 26, insulation isolation Layer 27, flame-retardant insulation layer 28, column photovoltaic panel 29, external wire hole 31, external air inlet and outlet 30, column wire inlet and outlet 35, sealing strip slot 44, sealant slot 45, column reinforcement angle 46, reinforcement angle thread hole 47, inner panel slot 48, column outer side 49, upper layer reinforcement thread hole 50, power supply inlet slot 51, fresh air inlet and outlet slot 52, power supply outlet slot. The functional zoning design content is as follows: fresh air column 32, the interior facade of which is equipped with air outlet 33, dual power socket positions 34, and internal air inlet and outlet 36. Exhaust column 37, the interior facade of which is equipped with exhaust vents 38, dual power socket positions 34, and internal air inlet and outlet 36. The electric control column 39 has an electric control digital intelligence reserved position 40, a single power socket position 41, a fiber optic box position 42, and an electric control digital intelligence threading port 43 on its inner surface. The fresh air column 32, the exhaust column 37, and the electric control column 39 are all bolted and reinforced to the upper structure connection ring 5 through the upper reinforcement thread holes 50 at the top of the column using connecting rod screws. The bottom of the functional structure column 4 is plugged into the lower structure connection ring 2 through the column plug-in position 10 on the lower structure connection ring module assembly 8. The column reinforcement angle 46 is connected to the column reinforcement position 11, and the functional structure column 4 is bolted and reinforced to the lower structure connection ring 2 using connecting rod screws through the reinforcement angle thread holes 47. The modular photovoltaic wall 3 features a three-glass, two-chamber structure. The two chambers are filled with an inert gas layer 68 for thermal insulation and soundproofing. Aluminum spacers 67 are located on all four edges of the chambers, each filled with molecular sieve 67a. The spacers 67 provide isolation, shock absorption, and sealing, while the molecular sieve 67a provides pressure relief, buffering, and air drying. The outer layer of the wall is transparent photovoltaic glass 69. Electrode terminals 66 are located on the top edge of the photovoltaic glass 69. These terminals connect to power lines, which are routed through the upper structure's connecting ring throughholes 21 to the functional structural columns 4. From the column's inlet and outlet ports 35, the photovoltaic line source port 14 leads to the house's integrated solar photovoltaic network system.The middle layer of the wall is low-E low-emissivity glass 70 for blocking light and heat, and the inner layer is tempered dimming glass 71 for indoor privacy protection. The upper edges of the outer and inner glass layers are provided with inert gas filling holes 65. The modular photovoltaic wall 3 is erected between the upper structure connecting ring 5 and the lower structure connecting ring 2, and the two side edges are embedded in the wall card slots 25 of the functional structural columns. The two side surfaces of the photovoltaic wall are connected and sealed to the functional columns by building structural adhesive, and the upper and lower side planes are connected and sealed to the upper structure connecting ring 5 and the lower structure connecting ring 2 by building structural adhesive. The functional corridor bridge component is composed of an upper corridor bridge component 54 and an edge corridor bridge component 55. The upper corridor bridge component 54 is connected to the corridor slot 56 at the top of the edge corridor bridge component 55 through a corridor bridge plug-in 56 to form a whole. The groove surface of the assembled corridor bridge component and the hollow edge of the doorway-type photovoltaic wall 3-1 are sealed and reinforced by building structural adhesive. The swing window door 59 is hinged to the inner facade of the side bridge member 55 and is equipped with a swing window 60, a door lock 61, and a lock tongue 62. The rain eyebrow 63 is installed and reinforced by connecting rod screws through rain eyebrow fixing holes 64 and threading holes 58 of the upper bridge member 54. The functional bridge member can be used as a door frame in a single-unit landscape homestay application. When connecting multiple single-unit landscape homestays, it can be used as a bridge connector, enabling interoperability among multiple units, expanding the usable space, and realizing diverse assembly design.

[0032] The lower structure is provided with a lower structure connecting ring 2 and an assembly base 1. The lower structure connecting ring 2 is composed of multiple lower structure connecting ring module assemblies 8. The lower structure connecting ring module assemblies 8 are provided with lower structure connecting ring reinforcement angles 9, column insertion positions 10, column reinforcement positions 11, lower structure connecting ring bolt holes 12, connector male interfaces 13, photovoltaic line source inlet and outlet 14, fresh air and electric control line source inlet and outlet 15, and connector female interfaces 16. The lower structure connecting ring module assemblies 8 engage with the connector male interfaces 13 and connector female interfaces 16 to connect two adjacent modules. The lower structure connecting ring bolt holes 12 are then covered and reinforced by connecting reinforcement members 7. The assembly base 1 is a double-layer wooden structure with insulation material in the middle. The assembly base 1 is flat on the ground and is connected and reinforced by the lower structure connecting ring reinforcement angles 9 of the lower structure connecting ring 2, achieving the overall stability of the photovoltaic landscape homestay.

[0033] The house-integrated fresh air duct system is composed of fresh air columns 32, exhaust columns 37, fresh air and electric control line source inlet and outlet 15, fresh air inlet and outlet slots 52, external air inlet and outlet 30, air inlet 33, exhaust outlet 38, internal air inlet and outlet 36, through fresh air ducts through the middle layer of the assembly base 1 to the external fresh air fan to form a fresh air system.

[0034] The house-integrated solar photovoltaic networking system is composed of a photovoltaic dome 6, a modular photovoltaic wall 3, a doorway-type photovoltaic wall 3-1, an upper structure connecting ring photovoltaic panel 18, and a column photovoltaic panel 29, which are connected by a power line, through the upper structure connecting ring wire hole 21 to the functional structure column 4 to the power outlet groove 53, through the column inlet and outlet 35, from the photovoltaic line source inlet and outlet 14 to the external storage group, and after being processed by the integrated solar photovoltaic networking system, it is returned to the landscape homestay to form an independent system using an integrated system.

[0035] Finally, it should be noted that the above embodiments are merely examples for the purpose of illustrating the present invention and are not intended to limit the embodiments. Persons skilled in the art will readily appreciate that other variations or modifications may be made based on the above description, and such obvious variations or modifications remain within the scope of protection of the present invention.

Claims

1. An environmentally friendly and energy-saving assembled photovoltaic landscape homestay, with a house body, characterized in that: The house body consists of three structures: upper, middle and lower parts: the upper part is the photovoltaic dome and the upper structure connecting ring; the middle part is the functional structural columns and modular photovoltaic walls; the lower part is the lower structure connecting ring and the assembly base; the house body is equipped with an integrated fresh air duct system, an integrated solar photovoltaic networking system, and a multi-unit combination functional corridor bridge component.

2. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1 is characterized in that: The photovoltaic dome of the upper structure is a three-glass two-cavity structure, with an inert gas layer in the two cavities, which is filled with inert gas; aluminum spacers are provided on the four edges of the inert gas layer, and molecular sieves are filled inside the spacers; the outer layer of the dome is transparent photovoltaic glass, and electrode terminals are provided on the bottom edge of the photovoltaic glass; the middle layer of the dome is low-E low-radiation glass, and the inner layer is tempered dimming glass; inert gas filling holes are provided on the bottom edges of the outer and inner layers of glass; an upper structure connecting ring is provided under the photovoltaic dome, and the photovoltaic dome is placed flat on the upper structure connecting ring, and the edges on both sides are fixed by the outer clamping plate of the dome and the inner protruding structure of the connecting ring, and the flat contact position is sealed by building structural adhesive.

3. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1 is characterized in that: The upper structure connecting ring of the upper structure is composed of multiple upper structure connecting ring module assemblies; the outer facade of the upper structure connecting ring module assembly is provided with an upper structure connecting ring photovoltaic panel; the upper and lower sides of the outer end of the upper structure connecting ring module assembly are provided with upper structure connecting ring column reinforcement screw positions, upper structure connecting ring wire holes, and upper structure connecting ring wire grooves, the upper edge of the outer end is provided with a dome outer clamping plate, the inner facade is provided with a lighting hole, and the left and right sides of the upper structure connecting ring module assembly are provided with connection reinforcement screw positions; the upper structure connecting ring column reinforcement screw positions are bolted to the upper reinforcement screw holes of the functional columns by connecting rod screws; the connection reinforcement screw positions are bolted and reinforced by connecting rod screws through the upper structure connecting ring wire groove to connect two adjacent upper structure connecting ring module assemblies.

4. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1 is characterized in that: The functional structural columns of the middle structure are composed of three models: fresh air columns, exhaust columns, and electric control columns; the functional structural columns are equipped with internal mechanical structural columns, wall slots, photovoltaic panel installation slots, insulating isolation layers, flame retardant insulation layers, column photovoltaic panels, external wire holes, column air vents, column inlets and outlets, sealing strip slots, sealant slots, column reinforcement angles, reinforcement angle thread holes, inner panel slots, outer side surfaces of columns, upper reinforcement threads, power supply inlet slots, fresh air inlet and outlet slots, and power supply outlet slots; the inner facade of the fresh air column is equipped with an air inlet, dual power socket positions, and internal air inlet and outlet; the inner facade of the exhaust column is equipped with an exhaust vent, dual power socket positions, and internal air inlet and outlet; the inner facade of the electric control column is equipped with an electric control digital intelligent reserved position, a single power socket position, a fiber optic box position, and an electric control digital intelligent threading port.

5. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1 is characterized in that: The modular photovoltaic wall of the middle structure is a three-glass two-cavity structure, with an inert gas layer in the two cavities, which are filled with inert gas; aluminum spacers are provided on the four edges of the two cavities, and molecular sieves are filled inside the spacers; the outer layer of the wall is transparent photovoltaic glass, and the top edge of the photovoltaic glass is provided with electrode terminals; the middle layer of the wall is low-E low-radiation glass, and the inner layer is tempered dimming glass; inert gas filling holes are provided on the upper edges of the outer and inner layers of glass; the modular photovoltaic wall is erected between the upper structure connecting ring and the lower structure connecting ring, and the edges on both sides are embedded in the wall slots of the functional structural columns. The two side edges of the photovoltaic wall are connected and sealed with the functional columns by building structural glue, and the upper and lower side planes are connected and sealed with the building structural glue with the upper structure connecting ring and the lower structure connecting ring.

6. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1 is characterized in that: The functional corridor bridge member of the middle structure is composed of an upper corridor bridge member and a side corridor bridge member; the upper corridor bridge member is connected to the corridor slot at the top of the side corridor bridge member through a corridor plug-in to form a whole, and the groove surface of the assembled corridor bridge member and the hollow edge of the doorway-type photovoltaic wall are sealed and reinforced by building structural adhesive; the swing window door is fixed to the inner facade of the side corridor bridge member by a hinge, and the swing window door is provided with a swing window, a door lock, and a lock tongue; the rain eyebrow is installed and reinforced by a connecting rod screw through the rain eyebrow fixing thread hole and the threading hole of the upper corridor bridge member.

7. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1 is characterized in that: The lower structure connecting ring of the lower structure is composed of multiple lower structure connecting ring module components; the lower structure connecting ring module components are provided with lower structure connecting ring reinforcement angles, column plug-in positions, column reinforcement positions, lower structure connecting ring bolt holes, connector male interfaces, photovoltaic line source inlets and outlets, fresh air and electric control line source inlets and outlets, and connector female interfaces; the lower structure connecting ring module components are engaged with the connector male interface and the connector female interface to connect two adjacent modules, and then covered and reinforced by connecting reinforcement pieces and the lower structure connecting ring bolt holes through connecting bolts.

8. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1 is characterized in that: The assembly base of the lower structure is a double-layer wooden structure with insulation material installed in the middle; the assembly base is placed flat on the ground and is connected and reinforced through the lower structure connection ring reinforcement angle of the lower structure connection ring.

9. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1 is characterized in that: The integrated fresh air duct system of the house is formed by fresh air columns, exhaust columns, fresh air ducts and external fresh air main units; the external fresh air main unit sends fresh air through the pipe to the internal air inlet and outlet of the photovoltaic landscape homestay through the air outlet of the fresh air main unit, and then through the fresh air inlet and outlet slots to the air inlet on the fresh air column to provide fresh air to the interior of the landscape homestay; the polluted air in the landscape homestay passes through the exhaust port to the exhaust column, through the fresh air inlet and outlet slots, the fresh air duct to the fresh air main unit, and then is sent to the external air inlet and outlet for discharge through heat filtration.

10. The environmentally friendly and energy-saving assembled photovoltaic landscape homestay according to claim 1, characterized in that: The integrated solar photovoltaic networking system of the house is composed of a photovoltaic dome, a modular photovoltaic wall, a doorway-type photovoltaic wall, an upper structure connecting ring photovoltaic panel, and a column photovoltaic panel, which are connected by a power line, and are passed through the upper structure connecting ring through the wire hole to the functional structure column to the power outlet groove, and are sent to the external power storage group through the column inlet and outlet, from the photovoltaic line source inlet and outlet, and are processed by the integrated solar photovoltaic networking system and then returned to the landscape homestay to form a power supply.

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