Herringbone house assembly structure

Abstract

The invention discloses a herringbone house assembly structure, and relates to the technical field of mobile houses, the herringbone house assembly structure comprises a floor module, a wall module, a roof module and a plurality of fasteners, mounting profiles are fixed to the four edges of the top surface of the floor module and the four edges of the bottom surface of the roof module through corner connectors, and mounting grooves A are formed in the faces, facing the wall module, of the mounting profiles; detachable frame profiles are arranged at the top and the bottom of the wall module, fixing grooves are formed in the faces, facing the wall module, of the frame profiles, the frame profiles are arranged over or under the installation profiles, fasteners penetrate through the fixing grooves and the installation grooves A at the same time, and limiting grooves A are formed in the faces, facing the installation profiles, of the frame profiles; sealing rubber strips A are limited in the limiting grooves A. The sealing rubber strips A are extruded between the frame sectional material and the installation sectional material. The structure is easy to assemble, and the labor cost is saved.

Description

Technical Field

[0001] The present invention relates to the technical field of mobile houses, and particularly to a gable roof assembly structure. Background Art

[0002] A mobile house is a living room that can be easily assembled and moved. Such houses are generally installed outdoors. Since the overall volume of the house is large, on-site assembly is required. At present, when the walls of a mobile house are assembled with the floor and the roof, a caulking method is usually used for fixing and sealing. Caulking requires skilled workers to operate on-site, has certain technical requirements, and the caulking area is large, which not only requires expensive labor costs but also wastes time. Summary of the Invention

[0003] Aiming at the defects existing in the above-mentioned prior art, the purpose of the present invention is to provide a gable roof assembly structure, which reduces the assembly difficulty and saves assembly time.

[0004] The purpose of the present invention is achieved by adopting the following technical solutions:

[0005] A gable roof assembly structure includes a floor module, a wall module, a roof module, and several fasteners. Angle codes are fixed to the four sides of the top surface of the floor module and the four sides of the bottom surface of the roof module, and mounting profiles are provided on the surface of the angle codes facing the wall module. Mounting groove A is provided on the surface of the mounting profile facing the wall module. Removable frame profiles are provided at the top and bottom of the wall module, and fixing grooves are provided on the surface of the frame profile facing the wall module. The frame profile is arranged directly above or directly below the mounting profile, and the fastener passes through the fixing groove and the mounting groove A at the same time. A limiting groove A is provided on the surface of the frame profile facing the mounting profile, and a sealing strip A is defined in the limiting groove A. The sealing strip A is pressed between the frame profile and the mounting profile.

[0006] Further, the roof module includes a cross beam, inclined roof walls, and a skeleton. First circular arc walls are respectively provided on both sides of the cross beam. There are two inclined roof walls, which are installed on the cross beam in an inverted V shape. A first circular arc groove in contact with the first circular arc wall is provided at the top of the inclined roof wall. The first circular arc groove is rotatable relative to the first circular arc wall, and the first circular arc groove and the first circular arc wall are fixed by fasteners; the bottom surface of the skeleton is fixed to the mounting profile by fasteners, and a protruding second circular arc wall is provided on the top surface. A second circular arc groove in contact with the second circular arc wall is provided at the bottom of the inclined roof wall. The second circular arc groove is rotatable relative to the second circular arc wall, and the second circular arc groove and the second circular arc wall are fixed to the mounting profile by fasteners.

[0007] Furthermore, the roof module further includes two triangular roof panels, which are arranged at both ends of the inclined roof wall. An installation profile is provided at the bottom of the triangular roof panel. The installation profile and the frame profile at the top of the wall module are fixed by fasteners. The two side edges of the triangular roof panel are clamped on the inner wall of the inclined roof wall.

[0008] Furthermore, the inclined roof wall includes a bottom plate, a support composite plate, and a power generation composite glass. The bottom plate is clamped on the keel frame or the triangular roof panel, or the bottom plate is fixed to the triangular roof panel by screws. The support composite plate is arranged between the bottom plate and the power generation composite glass. The top of the support composite plate is detachably arranged on the cross beam and the bottom is detachably arranged on the wall module. The power generation composite glass is installed on the support composite plate through a connector.

[0009] Furthermore, the support composite plate includes a plurality of support plates, the power generation composite glass includes a plurality of power generation glasses, the connector includes a transverse splicing profile. Two parallel clamping strips protrude from the four sides of the support plate. A first clamping groove for the clamping strip to be inserted is provided on the side surface of the transverse splicing profile. First limiting grooves are provided on both sides of the top surface of the transverse splicing profile and a first support rod protruding upward is provided in the middle of the top surface. A first sealing strip is defined in the first limiting groove. Sealing grooves are provided on both sides of the first support rod. The transverse edge of the power generation glass is inserted into the sealing groove and the first sealing strip abuts against the lower surface of the power generation glass.

[0010] Furthermore, the support composite plate includes a plurality of support plates, two parallel clamping strips protrude from the four sides of the support plate, the power generation composite glass includes a plurality of power generation glasses, the connector includes a longitudinal splicing profile. The longitudinal splicing profile includes splicing part A and splicing part B. First clamping grooves for the clamping strip to be inserted are provided on both side surfaces of the splicing part A. Second limiting grooves are provided on both sides of the top surface of the splicing part A. A second sealing strip is defined in the second limiting groove. A fixing rod is provided in the middle of the top surface of the splicing part A. Third limiting grooves are provided on both sides of the bottom surface of the splicing part B. A third sealing strip is defined in the third limiting groove. The longitudinal edge of the power generation glass is squeezed between the second sealing strip and the third sealing strip. The fixing rod extends out of the gap between adjacent power generation glasses. The splicing part B and the fixing rod are fixed together by fasteners.

[0011] Further, a first connecting profile is provided on the top of the support composite plate. The top surface of the first connecting profile is mounted on the cross beam, and a second slot for the edge of the support composite plate to be snapped into is formed on its bottom surface. A fourth limiting groove is formed on one side surface of the first connecting profile, and a fourth sealing strip is defined in the fourth limiting groove. The lower surface of the power generation composite glass abuts against the fourth sealing strip. A fifth limiting groove is formed on the cross beam, and a fifth sealing strip is defined in the fifth limiting groove. The fifth sealing strip abuts against the upper surface of the power generation composite glass. A second connecting profile is provided at the bottom of the support composite plate. A second slot for the edge of the support composite plate to be snapped into is formed on the top surface of the second connecting profile. The bottom surface of the second connecting profile is fixed on the mounting profile by fasteners. A sixth limiting groove is formed on one side surface of the second connecting profile and an insertion slot is provided at the end of the side surface. The bottom of the power generation composite glass is inserted into the insertion slot, and a sixth sealing strip is defined in the sixth limiting groove. The sixth sealing strip abuts against the lower surface of the power generation composite glass.

[0012] Further, the floor module includes a floor frame, a plurality of transverse support columns, longitudinal support columns, floor units and support blocks. The transverse support columns are evenly fixed on the transverse direction of the floor frame through corner brackets. The longitudinal support columns are evenly fixed between the floor frame and the transverse support columns through corner brackets. The floor units are laid on the transverse support columns and the longitudinal support columns. The support blocks are fixed to the bottom of the floor frame through corner brackets.

[0013] Further, the wall module includes support arms, wall units and door and window units. There are four support arms, which are fixed at the four corners of the floor module through corner brackets. The wall units and the door and window units are installed between adjacent support arms. Removable frame profiles are provided around the wall units. Installation grooves B are provided at the connection positions of the support arms and the wall units. The installation grooves B and the fixing grooves on the frame profiles are fixed by fasteners.

[0014] Further, the cross beam includes a disassembly and assembly part and an adjustment part. The disassembly and assembly part includes a fixed baffle and a shielding baffle. The shielding baffle is detachably covered on the fixed baffle. The adjustment part includes a second support rod and an adjustment body. The second support rod is defined under the fixed baffle. The adjustment body is arranged under the second support rod. The first circular arc wall is arranged on both sides of the adjustment body.

[0015] The beneficial effects of the present invention are as follows:

[0016] By setting up installation profiles and frame profiles, the present invention realizes the detachable structure of the gable roof, eliminating the caulking process and saving professional caulking personnel; by setting up circular arc grooves and circular arc walls, the angle adjustment of the gable roof is realized, facilitating on-site assembly and adjustment; by setting up a power generation composite glass, the self-sufficiency of power consumption in the gable house is realized, solving the problem of inconvenient power consumption in mobile houses. The present invention is simple in assembly and saves labor costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 is a schematic structural diagram of the gable house;

[0018] Figure 2 is a schematic structural diagram of the gable house with some wall units removed;

[0019] Figure 3 is a schematic structural diagram of the wall unit in the present invention;

[0020] Figure 4 is a schematic structural diagram of the frame profile and the installation profile in the present invention;

[0021] Figure 5 is a schematic structural diagram of the frame profile in the present invention;

[0022] Figure 6 is a schematic splicing structural diagram of the power generation glass and the support plate in the present invention;

[0023] Figure 7 is Figure 6 the structural decomposition diagram of;

[0024] Figure 8 is a schematic structural diagram of the horizontal splicing profile in the present invention;

[0025] Figure 9 is a schematic structural diagram of the vertical splicing profile in the present invention;

[0026] Figure 10 is a schematic splicing structural diagram of the vertical splicing profile in the present invention;

[0027] Figure 11 is a sectional view of the gable house;

[0028] Figure 12 is Figure 11 the enlarged structural diagram of area A in;

[0029] Figure 13 is Figure 11 the enlarged structural diagram of area B in;

[0030] Figure 14 is Figure 11 the enlarged structural diagram of area C in;

[0031] Figure 15It is a schematic structural diagram of the crossbeam in the present invention;

[0032] In the figure: 1. Wall module; 11. Support arm; 12. Wall unit; 13. Door and window unit; 14. Installation groove B; 15. Wall panel; 2. Angle code; 3. Frame profile; 31. Fixed groove; 32. Limit groove A; 33. Sealant strip A; 34. Third card slot; 4. Floor module; 41. Floor frame; 42. Horizontal support column; 43. Vertical support column; 44. Floor unit; 45. Support block; 5. Installation profile; 51. Installation groove A; 6. Roof module; 61. Crossbeam; 6101. Disassembly and assembly part; 61011. Fixed baffle; 61012. Shielding baffle; 62. Adjusting part; 63. Inclined roof wall; 64. Skeleton; 65. First circular arc wall; 66. First circular arc groove; 67. Second circular arc wall; 68. Second circular arc groove; 69. Triangular roof board; 610. Bottom board; 611. Support plate; 61101. Plate; 61102. Support frame; 612. Generating glass; 613. Horizontal splicing profile; 614. Vertical splicing profile; 615. Card strip; 616. First card slot; 617. First limit groove; 618. First support rod; 619. First sealant strip; 620. Seal groove; 621. Splicing part A; 622. Splicing part B; 623. Second limit groove; 624. Second sealant strip; 625. Fixed rod; 626. Third limit groove; 627. Third sealant strip; 628. Fixing part; 629. Movable part; 630. Slide groove; 631. Slide bar; 632. Baffle; 633. Drainage groove; 634. First connecting profile; 635. Second card slot; 636. Fourth limit groove; 637. Fourth sealant strip; 638. Fifth limit groove; 639. Fifth sealant strip; 640. Second connecting profile; 641. Sixth limit groove; 642. Insertion groove; 643. Sixth sealant strip; 644. Second support rod; 645. Adjusting body. Detailed implementation mode

[0033] In order to make the technical problems, technical solutions and beneficial effects solved by the invention clearer, the following further describes the invention in combination with the drawings and embodiments.

[0034] Embodiment 1

[0035] As Figures 1 - 5 shown, this embodiment provides a wall module 1, which includes a support arm 11, a wall unit 12 and a door and window unit 13. There are four support arms 11, which are fixed at the four corners of the floor module 4 through angle codes 2. The wall unit 12 and the door and window unit 13 are installed between adjacent support arms 11; Removable frame profiles 3 are provided around the wall unit 12. The support arm 11 is provided with an installation groove B14 at the connection position with the wall unit 12. The installation groove B14 and the fixed groove 31 on the frame profile 3 are fixed through fasteners.

[0036] The four sides of the wall unit 12 are fixedly installed by means of fixing grooves 31, installation grooves and fasteners. The door and window unit 13 includes a house door, windows, etc. The door and window unit 13 is generally arranged between two wall units 12 or between a wall unit 12 and a support arm 11. When the door and window unit 13 is installed on the support arm 11, a detachable frame profile 3 is provided on the connection surface between the door and window unit 13 and the support arm 11. The frame profile 3 can be used as a door frame or a window frame. The support arm 11 is also provided with an installation groove B14 at the connection position with the door and window unit 13. The fixing groove 31 on the installation groove B14 and the frame profile 3 is fixed by a fastener.

[0037] When the door and window unit 13 is installed on the wall unit 12, an installation groove C is provided on the connection surface between the door and window unit 13 and the support arm 11. A detachable frame profile 3 is provided on the connection surface between the wall unit 12 and the door and window unit 13. The fixing groove 31 on the installation groove C and the frame profile 3 is fixed by a fastener. Through the above method, the installation of the house door, windows, etc. of the mobile house can be realized.

[0038] A limiting groove A32 is opened on the back of the fixing groove 31 of the frame profile 3. A sealing strip A33 is defined in the limiting groove A32. The sealing strip A33 is extruded between the frame profile 3 and the installation profile 5. By providing the sealing strip A33, the sealing performance between the frame profile 3 and the installation profile 5 is increased, and water leakage is avoided.

[0039] The fixing groove 31 is arranged in the middle of the frame profile 3. Two third clamping grooves 34 are further provided on the frame profile 3. The two third clamping grooves 34 are respectively arranged on both sides of the fixing groove 31. Each wall unit 12 includes two wall panels 15. The edges of the wall panels 15 are clamped in the third clamping grooves 34. The detachable structure between the wall panel 15 and the frame profile 3 is realized through this clamping structure.

[0040] Embodiment 2

[0041] As Figure 2 shown, on the basis of Embodiment 1, this embodiment provides a floor module 4. The floor module 4 includes a floor frame 41, a plurality of transverse support columns 42, longitudinal support columns 43, a floor unit 44 and support blocks 45. The transverse support columns 42 are uniformly fixed on the transverse direction of the floor frame 41 through angle codes 2. The longitudinal support columns 43 are uniformly fixed between the floor frame 41 and the transverse support columns 42 through angle codes 2. The floor unit 44 is laid on the transverse support columns 42 and the longitudinal support columns 43. The existing splicing structure can be adopted between the floor units 44, which will not be elaborated here. The support blocks 45 are fixed to the bottom of the floor frame 41 through angle codes 2. In this way, the floor frame 41 does not contact the ground. Specifically, the floor frame 41 includes four long frames, and the four long frames enclose a rectangle and are fixed to the support arm 11 through angle codes 2.

[0042] On the top surface of the four sides of the floor frame 41, mounting profiles 5 are fixed by corner codes 2. An installation groove A51 is formed on one side of the mounting profile 5 facing the wall unit 12. Detachable frame profiles 3 are provided on the four sides of the wall unit 12. A fixing groove 31 is provided on one side of the frame profile 3 facing the wall unit 12. The frame profile 3 is arranged directly above the mounting profile 5. The fastener passes through the fixing groove 31 and the installation groove A51 at the same time. A limiting groove A32 is formed on one side of the frame profile 3 facing the mounting profile 5. A sealing strip A33 is defined in the limiting groove A32. The sealing strip A33 is pressed between the frame profile 3 and the mounting profile 5.

[0043] Embodiment 3

[0044] As Figures 6 - 15 shown, on the basis of Embodiment 1, this embodiment provides a roof module 6. The roof module 6 includes a cross beam 61, an inclined roof wall 63 and a keel frame 64. First circular arc walls 65 are respectively provided on both sides of the cross beam 61. There are two inclined roof walls 63 which are installed on the cross beam 61 in an inverted V shape. A first circular arc groove 66 in contact with the first circular arc wall 65 is provided at the top of the inclined roof wall 63. The first circular arc groove 66 is rotatable relative to the first circular arc wall 65. The first circular arc groove 66 and the first circular arc wall 65 are fixed by fasteners; the bottom surface of the keel frame 64 is fixed on the mounting profile 5 by fasteners. A protruding second circular arc wall 67 is provided on the top surface. A second circular arc groove 68 in contact with the second circular arc wall 67 is provided at the bottom of the inclined roof wall 63. The second circular arc groove 68 is rotatable relative to the second circular arc wall 67. The second circular arc groove 68 and the second circular arc wall 67 are fixed on the mounting profile 5 by fasteners.

[0045] When assembling a pitched roof, the first circular arc walls 65 on both sides of the cross beam 61 are respectively abutted against the first circular arc grooves 66 on the two inclined roof walls 63. According to the actual angle requirements, the angle between the two inclined roof walls 63 is adjusted. After adjustment, the two inclined roof walls 63 are fixed on the cross beam 61 by fasteners; the mounting profile 5 is respectively fixed on the keel frame 64 and the frame profile 3 at the top of the wall unit 12 by locking parts. The second circular arc groove 68 at the bottom of the inclined roof wall 63 is adjusted to abut against the second circular arc wall 67 on the top surface of the keel frame 64, and then the second circular arc groove 68 and the second circular arc wall 67 are fixed together by fasteners.

[0046] Since the first circular arc wall 65, the first circular arc groove 66, the second circular arc groove 68, and the second circular arc wall 67 are part of a circle, no matter how the first circular arc groove 66 rotates along the first circular arc wall 65 and no matter how the second circular arc groove 68 rotates along the second circular arc wall 67, they can fit perfectly between the first circular arc wall 65 and the first circular arc groove 66 and between the second circular arc groove 68 and the second circular arc wall 67. The angle of the gable roof can be adjusted arbitrarily. At the same time, for gable roofs of any size, the manufacturer only needs to produce this structure to achieve angle adjustment and fixation, saving costs.

[0047] The roof module 6 further includes two triangular roof panels 69. The two triangular roof panels 69 are provided at both ends of the inclined roof wall 63. The bottom of the triangular roof panel 69 is provided with a mounting profile 5. The mounting profile 5 and the border profile 3 at the top of the wall module 1 are fixed by fasteners. The two side edges of the triangular roof panel 69 are clamped on the inner wall of the inclined roof wall 63 or can also be fixed on the inner wall of the inclined roof wall 63 by fasteners.

[0048] The inclined roof wall 63 includes a bottom plate 610, a support composite plate, and a power generation composite glass. The bottom plate 610 is clamped on the keel frame 64 or the triangular roof panel 69, or the bottom plate 610 is fixed to the triangular roof panel 69 by screws. The support composite plate is provided between the bottom plate 610 and the power generation composite glass. The top of the support composite plate is detachably provided on the cross beam 61 and the bottom is detachably provided on the wall module 1. The power generation composite glass is installed on the support composite plate through a connector.

[0049] Gaps are left between the bottom plate 610 and the support composite plate and between the support composite plate and the power generation composite glass. The photovoltaic power generation system connected to the power generation composite glass can be installed in the gaps, thus being hidden inside the gable roof without being exposed, making it more beautiful. The power generation composite glass combines with the photovoltaic power generation system to convert solar energy into electrical energy, which can provide electrical energy for the electrical appliances inside the gable house, achieving self-sufficiency in electricity consumption for the gable house.

[0050] Since the bottom plate 610 mainly serves a decorative purpose and is not used for load-bearing, the bottom plate 610 can be fixed by means of clamping or fasteners, as long as the bottom plate 610 can be fixed to the roof.

[0051] The support composite board includes a plurality of support plates 611, and the power generation composite glass includes a plurality of power generation glasses 612. The number of the power generation glasses 612 is the same as that of the support plates 611 and they correspond to each other vertically. The connecting member includes a transverse splicing profile 613 and a longitudinal splicing profile 614. The transverse splicing profile 613 is detachably arranged between the adjacent support plates 611 and the adjacent power generation glasses 612 transversely, and the longitudinal splicing profile 614 is detachably arranged between the adjacent support plates 611 and the adjacent power generation glasses 612 longitudinally. That is, when the transverse splicing profile 613 and the longitudinal splicing profile 614 splice a plurality of support plates 611, they also splice a plurality of power generation glasses 612 together. The overall area of the gable roof is large, so the support composite board and the power generation composite glass are spliced by multiple pieces, which is more practical and safe.

[0052] Two protruding parallel clamping strips 615 are provided on the four sides of the support plate 611. Refer to Figure 7 , the support plate 611 includes a plate 61101 and a support frame 61102. The plate 61101 is fixed in the support frame 61102. The parallel clamping strips 615 are arranged on the four sides of the support frame 61102. A first clamping groove 616 for the clamping strip 615 to be inserted is formed on the side surfaces of the transverse splicing profile 613 and the longitudinal splicing profile 614. The clamping strip 615 is inserted into the first clamping groove 616, whereby the support plates 611 are spliced together transversely and longitudinally. The material of the plate 61101 can be set according to requirements, and the support frame 61102 is made of metal material and is not easy to deform.

[0053] First limiting grooves 617 are formed on both sides of the top surface of the transverse splicing profile 613, and a first support rod 618 protruding upward is provided in the middle of the top surface. A first sealing strip 619 is defined in the first limiting grooves 617. Sealing grooves 620 are formed on both sides of the first support rod 618. The transverse edges of the power generation glass 612 are inserted into the sealing grooves 620 and the first sealing strip 619 abuts against the lower surface of the power generation glass 612. Under the extrusion and sealing of the first sealing strip 619, the transverse edges of the power generation glass 612 are firmly limited in the sealing grooves 620, whereby the power generation glasses 612 are spliced together transversely by the transverse splicing profile 613.

[0054] Refer to Figure 9 and Figure 10, the longitudinally spliced profile 614 includes a splicing part A621 and a splicing part B622. On both side surfaces of the splicing part A621, there are first clamping grooves 616 for the clamping strips 615 to be inserted. On both sides of the top surface of the splicing part A621, there are second limiting grooves 623. A second sealing strip 624 is defined in the second limiting grooves 623. In the middle of the top surface of the splicing part A621, there is a fixing rod 625; on both sides of the bottom surface of the splicing part B622, there are third limiting grooves 626. A third sealing strip 627 is defined in the third limiting grooves 626. The longitudinal edges of the power generation glass 612 are extruded between the second sealing strip 624 and the third sealing strip 627. The fixing rod 625 extends out of the gap between adjacent power generation glasses 612. The splicing part B622 and the fixing rod 625 are fixed together by fasteners.

[0055] By providing the second sealing strip 624, the third sealing strip 627 and the fasteners, the longitudinal edges of the glass unit are firmly fixed between the second sealing strip 624 and the third sealing strip 627. Thus, the glass units are spliced together longitudinally by the second splicing profile.

[0056] Specifically, the splicing part B622 includes a fixing part 628 and a movable part 629. The fixing part 628 and the fixing rod 625 are fixed together by fasteners. On both sides of the bottom surface of the fixing part 628, there are third limiting grooves 626. On the side surface of the fixing part 628, there is a sliding groove 630. The bottom of the movable part 629 is open and its interior is hollow. On both inner side walls of the movable part 629, there are sliding strips 631. The sliding strips 631 can slide along the sliding groove 630. During installation, first lock the fixing part 628 and the fixing rod 625 together by fasteners, and then slide the movable part 629 into the end of the fixing part 628 until it completely covers the fixing part 628 and the gap between adjacent glass units.

[0057] On both sides of the bottom plate 610, there are baffles 632. The baffles 632 can block and seal both sides of the pitched roof wall 63, making it more beautiful. At the same time, a drainage trough 633 is fixed at the bottom of the pitched roof wall 63 to increase the drainage performance.

[0058] Reference Figure 12 , at the top of the supporting composite plate, there is a first connecting profile 634. The first circular arc groove 66 is provided on the first connecting profile 634. The top surface of the first connecting profile 634 is installed on the cross beam 61. On its bottom surface, there is a second clamping groove 635 for the edge of the supporting composite plate to be inserted. On one side surface of the first connecting profile 634, there is a fourth limiting groove 636. A fourth sealing strip 637 is defined in the fourth limiting grooves 636. The lower surface of the power generation composite glass abuts against the fourth sealing strip 637. On the cross beam 61, there is a fifth limiting groove 638. A fifth sealing strip 639 is defined in the fifth limiting grooves 638. The fifth sealing strip 639 abuts against the upper surface of the power generation composite glass.

[0059] Reference Figure 13 A second connecting profile 640 is provided at the bottom of the supporting composite board. A second circular arc groove 68 is provided on the second connecting profile 640. A second clamping groove 635 for the edge of the supporting composite board to be snapped into is formed on the top surface of the second connecting profile 640. The bottom surface of the second connecting profile 640 is fixed to the mounting profile 5 by fasteners, specifically fixed to the keel frame 64. A sixth limiting groove 641 is formed on one side surface of the second connecting profile 640 and an inserting groove 642 is provided at the side end. The bottom of the power generation composite glass is inserted into the inserting groove 642. A sixth sealing strip 643 is defined in the sixth limiting groove 641, and the sixth sealing strip 643 abuts against the lower surface of the power generation composite glass.

[0060] The cross beam 61 includes a disassembly and assembly part 6101 and an adjusting part 62. The disassembly and assembly part 6101 includes a fixed baffle 61011 and a shielding baffle 61012. The shielding baffle 61012 is detachably covered on the fixed baffle 61011. The adjusting part 62 includes a second support rod 644 and an adjusting body 645. The second support rod 644 is defined under the fixed baffle 61011. The adjusting body 645 is arranged under the second support rod 644. First circular arc walls 65 are arranged on both sides of the adjusting body 645. A fifth limiting groove 638 is formed at the bottom of the fixed baffle 61011.

[0061] The shielding baffle 61012 can be detachably covered on the fixed baffle 61011 in the form of a slide rail and chute 630. The second support rod 644 and the adjusting body 645 are of an integrally formed structure. By arranging the second support rod 644, the distance between the fixed baffle 61011 and the adjusting body 645 is increased, providing space for the insertion of the power generation glass 612. At the same time, the power generation glass 612 is installed under the fixed baffle 61011, and the two are sealed, which can avoid water leakage. At the same time, the shielding baffle 61012 covers the fixed baffle 61011, making it more beautiful.

[0062] Embodiment 4

[0063] Reference Figures 1 - 15 On the basis of Embodiments 1-3, this embodiment provides a herringbone house assembly structure, including the floor module 4 of Embodiment 2, the wall module 1 of Embodiment 1, the roof module 6 of Embodiment 3 and a number of fasteners. Fasteners are involved in many places in the specification, and the fasteners can be ordinary screws or tension screws, etc. according to the situation.

[0064] On the four sides of the top surface of the floor module 4 and the four sides of the bottom surface of the roof module 6, mounting profiles 5 are fixed by corner brackets 2. On the side of the mounting profile 5 facing the wall module 1, a mounting groove A51 is provided. At the top and bottom of the wall module 1, detachable border profiles 3 are provided. On the side of the border profile 3 facing the wall module 1, a fixing groove 31 is provided. The border profile 3 is arranged directly above or directly below the mounting profile 5. The fastener passes through the fixing groove 31 and the mounting groove A51 at the same time. On the side of the border profile 3 facing the mounting profile 5, a limiting groove A32 is provided, and a sealing strip A33 is defined in the limiting groove A32. The sealing strip A33 is squeezed between the border profile 3 and the mounting profile 5.

[0065] Assembly method:

[0066] S1. Assemble the floor module 4: First, fix a number of support blocks 45 on the bottom of the four floor borders 41 evenly through corner brackets 2. Then, fix the four support arms 11 on the ends of the floor borders 41 through corner brackets 2, that is, fix them at the four corners of the floor module 4. Then, fix the horizontal support columns 42 on the horizontal direction of the floor borders 41 evenly through corner brackets 2, and fix the vertical support columns 43 evenly between the floor borders 41 and the horizontal support columns 42. Lay the floor units 44 on the horizontal support columns 42 and the vertical support columns 43; fix the four mounting profiles 5 on the four floor borders 41 respectively through corner brackets 2;

[0067] S2. Assemble the wall module 1: Fix the border profile 3 on the mounting profile 5 through fasteners, then install the wall unit 12 on the border profile 3, and then install them between the support arms 11 in sequence. Then, install the four mounting profiles 5 on the border profiles 3 at the top of the wall unit 1 through fasteners, and install the keel frame 64 on the mounting profile 5 through fasteners;

[0068] S3. Assemble the roof module 6: Splice the support plate 611 and the power generation glass 612 together through the horizontal splicing profile 613 and the vertical splicing profile 614. Fix the first connecting profile 634 and the second connecting profile 640 on the top and bottom of the support plate 611 respectively. Adjust the angle, and fix the first connecting profile 634 and the second connecting profile 640 on the cross beam 61 and the keel frame 64 respectively. Then, install the bottom plate 610 inside the roof. Finally, install the two triangular roof panels 69 at both ends of the inclined roof wall 63, and finally form a complete gable roof.

[0069] By setting the mounting profile 5 and the border profile 3, the present invention realizes the detachable structure of the gable roof, eliminates the caulking process, and saves professional caulking personnel; by setting the circular arc groove and the circular arc wall, the present invention realizes the angle adjustment of the gable roof, which is convenient for on-site assembly and adjustment; by setting the power generation combined glass, the present invention realizes the self-sufficiency of power consumption of the gable roof, and solves the problem of inconvenient power consumption of mobile houses. The assembly of the present invention is simple and saves labor costs.

[0070] The above are only the 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 principle of the present invention shall fall within the protection scope of the present invention.

Claims

1. A herringbone house assembly structure, characterized in that Comprising a floor module (4), a wall module (1), a roof module (6) and a number of fasteners. Installation profiles (5) are fixed at the four sides of the top surface of the floor module (4) and the four sides of the bottom surface of the roof module (6) through angle codes (2). An installation groove A (51) is formed on one side of the installation profile (5) facing the wall module (1). Removable frame profiles (3) are provided at the top and bottom of the wall module (1). A fixing groove (31) is provided on one side of the frame profile (3) facing the wall module (1). The frame profile (3) is arranged directly above or directly below the installation profile (5). The fastener passes through the fixing groove (31) and the installation groove A (51) simultaneously. A limiting groove A (32) is formed on one side of the frame profile (3) facing the installation profile (5). A sealing strip A (33) is defined in the limiting groove A (32). The sealing strip A (33) is pressed between the frame profile (3) and the installation profile (5).

2. The assembly structure of a pitched roof house according to claim 1, characterized in that, The roof module (6) comprises cross beams (61), inclined roof walls (63) and a keel frame (64). First circular arc walls (65) are respectively provided on both sides of the cross beam (61). There are two inclined roof walls (63) which are installed on the cross beam (61) in an inverted V shape. A first circular arc groove (66) which is in contact with the first circular arc wall (65) is provided at the top of the inclined roof wall (63). The first circular arc groove (66) is rotatable relative to the first circular arc wall (65). The first circular arc groove (66) and the first circular arc wall (65) are fixed through fasteners. The bottom surface of the keel frame (64) is fixed on the installation profile (5) through fasteners. A protruding second circular arc wall (67) is provided on the top surface. A second circular arc groove (68) which is in contact with the second circular arc wall (67) is provided at the bottom of the inclined roof wall (63). The second circular arc groove (68) is rotatable relative to the second circular arc wall (67). The second circular arc groove (68) and the second circular arc wall (67) are fixed on the installation profile (5) through fasteners.

3. The assembled structure of a pitched roof house according to claim 2, characterized in that, The roof module (6) further comprises two triangular roof panels (69). The two triangular roof panels (69) are arranged at both ends of the inclined roof wall (63). Installation profiles (5) are provided at the bottom of the triangular roof panels (69). The installation profiles (5) and the frame profiles (3) at the top of the wall module (1) are fixed through fasteners. The two side edges of the triangular roof panel (69) are clamped on the inner wall of the inclined roof wall (63).

4. The assembled structure of a pitched roof house according to claim 3, characterized in that, The inclined roof wall (63) includes a bottom plate (610), a support composite plate, and a power generation composite glass. The bottom plate (610) is clamped on the keel frame (64) or the triangular roof plate (69), or the bottom plate (610) is fixed to the triangular roof plate (69) by screws. The support composite plate is arranged between the bottom plate (610) and the power generation composite glass. The top of the support composite plate is detachably arranged on the cross beam (61), and the bottom is detachably arranged on the wall module (1). The power generation composite glass is installed on the support composite plate through a connecting piece.

5. A herringbone house assembly structure according to claim 4, characterized in that, The support composite plate includes a plurality of support plates (611). The power generation composite glass includes a plurality of power generation glasses (612). The connecting piece includes a transverse splicing profile (613). Two parallel clamping strips (615) protruding outwards are arranged on the four sides of the support plate (611). A clamping groove one (616) for the clamping strip (615) to be inserted into is formed on the side surface of the transverse splicing profile (613). Two first limiting grooves (617) are formed on both sides of the top surface of the transverse splicing profile (613), and a support rod one (618) protruding upwards is arranged in the middle of the top surface. A first sealing strip (619) is defined in the first limiting groove (617). Sealing grooves (620) are formed on both sides of the support rod one (618). The transverse edge of the power generation glass (612) is inserted into the sealing groove (620), and the first sealing strip (619) abuts against the lower surface of the power generation glass (612).

6. The assembled structure of a pitched roof house according to claim 4, characterized in that, The support composite plate includes a plurality of support plates (611). Two parallel clamping strips (615) protruding outwards are arranged on the four sides of the support plate (611). The power generation composite glass includes a plurality of power generation glasses (612). The connecting piece includes a longitudinal splicing profile (614). The longitudinal splicing profile (614) includes a splicing piece A (621) and a splicing piece B (622). Clamping grooves one (616) for the clamping strip (615) to be inserted into are formed on both side surfaces of the splicing piece A (621). Two second limiting grooves (623) are formed on both sides of the top surface of the splicing piece A (621). A second sealing strip (624) is defined in the second limiting groove (623). A fixing rod (625) is arranged in the middle of the top surface of the splicing piece A (621). Third limiting grooves (626) are formed on both sides of the bottom surface of the splicing piece B (622). A third sealing strip (627) is defined in the third limiting groove (626). The longitudinal edge of the power generation glass (612) is squeezed between the second sealing strip (624) and the third sealing strip (627). The fixing rod (625) extends out of the gap between adjacent power generation glasses (612). The splicing piece B (622) and the fixing rod (625) are fixed together through fasteners.

7. A herringbone house assembly structure according to claim 4, characterized in that The top of the support composite plate is provided with a first connecting profile (634). The top surface of the first connecting profile (634) is mounted on the cross beam (61). A second clamping groove (635) for the edge of the support composite plate to be clamped into is formed in its bottom surface. A fourth limiting groove (636) is formed in one side surface of the first connecting profile (634). A fourth sealing strip (637) is defined in the fourth limiting groove (636). The lower surface of the power generation composite glass abuts against the fourth sealing strip (637). A fifth limiting groove (638) is formed in the cross beam (61). A fifth sealing strip (639) is defined in the fifth limiting groove (638). The fifth sealing strip (639) abuts against the upper surface of the power generation composite glass. The bottom of the support composite plate is provided with a second connecting profile (640). A second clamping groove (635) for the edge of the support composite plate to be clamped into is formed in the top surface of the second connecting profile (640). The bottom surface of the second connecting profile (640) is fixed on the mounting profile (5) through fasteners. A sixth limiting groove (641) is formed in one side surface of the second connecting profile (640) and an inserting groove (642) is arranged at the side end. The bottom of the power generation composite glass is inserted into the inserting groove (642). A sixth sealing strip (643) is defined in the sixth limiting groove (641). The sixth sealing strip (643) abuts against the lower surface of the power generation composite glass.

8. A herringbone house assembly structure according to claim 1, characterized in that, The floor module (4) includes a floor frame (41), a plurality of transverse support columns (42), longitudinal support columns (43), floor units (44) and support blocks (45). The transverse support columns (42) are uniformly fixed on the transverse direction of the floor frame (41) through angle codes (2). The longitudinal support columns (43) are uniformly fixed between the floor frame (41) and the transverse support columns (42) through angle codes (2). The floor units (44) are laid on the transverse support columns (42) and the longitudinal support columns (43). The support blocks (45) are fixed on the bottom of the floor frame (41) through angle codes (2).

9. The assembled structure of a pitched roof house according to claim 1, wherein The wall module (1) includes support arms (11), wall units (12) and door and window units (13). There are four support arms (11), which are fixed at the four corners of the floor module (4) through angle codes (2). The wall units (12) and the door and window units (13) are installed between adjacent support arms (11). Removable frame profiles (3) are arranged around the wall units (12). Mounting grooves B (14) are arranged at the connection positions of the support arms (11) and the wall units (12). The mounting grooves B (14) and the fixing grooves (31) on the frame profiles (3) are fixed through fasteners.

10. A herringbone house assembly structure according to claim 2, characterized in that, The cross beam (61) includes a disassembly and assembly part (6101) and an adjustment part (62). The disassembly and assembly part (6101) includes a fixed baffle (61011) and a shielding baffle (61012). The shielding baffle (61012) is detachably covered on the fixed baffle (61011). The adjustment part (62) includes a second support rod (644) and an adjustment body (645). The second support rod (644) is defined under the fixed baffle (61011), and the adjustment body (645) is arranged under the second support rod (644). The first circular arc wall (65) is arranged on both sides of the adjustment body (645).

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