Embedded flat pressing energy-saving door and window structure with outer wall waterproof structure

Abstract

The invention discloses an embedded flat pressing energy-saving door and window structure with an outer wall waterproof structure, and relates to the technical field of door and window structures, the embedded flat pressing energy-saving door and window structure comprises an indoor module I, an outdoor module I is arranged at the bottom of the indoor module I, an indoor module II is arranged on one side of the indoor module I, and an outdoor module II is arranged at the bottom of the indoor module II; the first connecting piece, the second connecting piece and the third connecting piece are tightly connected through the driving mechanism, the stabilizing effect on the window frame is enhanced, and the connecting effect between the first module and the second module is tighter; the first connecting piece, the second connecting piece and the third connecting piece are in transition fit with the first module and the second module, the gap can cause deviation of relative positions after the first module and the second module are installed, the driving mechanism can retract into the gap between the first module and the second module, position deviation is reduced, calibration of the installation positions of the first module and the second module is achieved, and the installation positions of the first module and the second module are closer to standard installation positions.

Description

Technical Field

[0001] This invention relates to the field of door and window structure technology, specifically to an energy-saving door and window structure with an embedded flat pressure and external wall waterproofing structure. Background Technology

[0002] Window frames are designed with a complex multi-cavity structure to meet various key performance requirements (such as compressive strength and thermal insulation). This complex structure is difficult to mold as a single piece during production, so filler is needed to connect the window frames into a whole. The transition between the filler and the window frame results in a certain gap, causing discrepancies between the molded window frame and its actual dimensions. Figure 7 As shown: When connector one is assembled into the interior modules one and two, a dimensional deviation of ∆L1 in the vertical direction and ∆L2 in the horizontal direction will be generated between the interior modules one and two. ∆L2 can be offset by pressure after the glass is installed in the horizontal direction. The length of ∆L1 can be effectively reduced by improving the dimensional accuracy of the workpiece casting. However, as multiple connectors are assembled into the interior modules one and two, the error of ∆L1 will gradually increase with the increase of filler material.

[0003] Based on this, the present invention designs an energy-saving door and window structure with an embedded flat pressure and external wall waterproofing structure to solve the problem of the gradually increasing gap affecting dimensional accuracy when assembling the above-mentioned multiple connectors with the window frame. Summary of the Invention

[0004] The purpose of this invention is to provide an energy-saving door and window structure with an embedded flat pressure and external wall waterproofing structure to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, the present invention provides the following technical solution: an energy-saving door and window structure with an embedded flat-pressure waterproof exterior wall structure, comprising an indoor module one, an outdoor module one at the bottom of the indoor module one, an indoor module two on one side of the indoor module one, and an outdoor module two at the bottom of the indoor module two. The indoor module one, outdoor module one, outdoor module two, and indoor module two are all embedded and connected by thermal insulation strips. A waterproof groove is provided at the bottom of the outdoor module two, and a double cavity is fixedly connected to the bottom of the outdoor module two. Fastening and limiting components are provided inside the indoor module one and indoor module two, including: Connector 1 is installed inside indoor module 1 and indoor module 2; Connector 3 is installed inside outdoor module 1 and outdoor module 2; Connector 2 is disposed inside the two heat insulation strips. Two sets of horizontally symmetrically distributed convex shafts are slidably connected inside connector 2. Each set of convex shafts is fixedly connected to a sliding plate. The sliding plate is slidably disposed inside connector 2. The fastening and limiting assembly also includes a driving mechanism. The driving mechanism is used to push the sliding plate to slide so that the two convex shafts on both sides are respectively connected to connector 1 and connector 3.

[0006] As a further embodiment of the present invention, the driving mechanism includes a threaded rod, the two ends of which slide through two sliding plates respectively, and both ends of the threaded rod are respectively helically sleeved with threaded sleeves. A slot is provided on the convex shaft, and telescopic plates for docking with the slot are respectively fixedly connected inside the first connector and the third connector.

[0007] As a further embodiment of the present invention, the heat insulation strip has an internal cavity.

[0008] As a further embodiment of the present invention, an installation groove is provided on one side wall of the indoor module.

[0009] As a further embodiment of the present invention, both indoor module one and indoor module two are fixedly connected to mounting groove two for docking with connector one on opposite sides.

[0010] As a further embodiment of the present invention, each of the two heat insulation strips is fixedly connected to a mounting groove three for docking with the connector two on its opposite sides.

[0011] As a further embodiment of the present invention, one end of the indoor module 2 is fixedly connected to a slot.

[0012] As a further embodiment of the present invention, a gasket is provided on both the sliding plate and the threaded sleeve, and the threaded rod passes through the gasket and is helically connected to the threaded sleeve.

[0013] As a further embodiment of the present invention, the outdoor module 2 and the indoor module 2 are both provided with a docking groove for connecting with the wall.

[0014] Compared with the prior art, the beneficial effects of the present invention are: The outdoor module features a double-cavity design on the inner side of both ends, whereas existing technologies use a single-cavity structure, thus improving the profile's sealing and insulation. Waterproof grooves are installed on the outer sides of both ends of the outdoor module (wall mounting side), with PA66 waterproof strips embedded within, enhancing the waterproofing at the wall mounting point. The indoor module features slots on the inner sides of both ends, enabling an embedded overlapping structure between modules, which, compared to the planar structures of existing technologies, effectively improves the profile's sealing and insulation. The cavities between the insulation strips are filled with water-based polyurethane material, further enhancing the overall insulation of the profile.

[0015] The drive mechanism ensures a tight connection between connector 1, connector 2, and connector 3, enhancing the stability of the window frame and making the connection between module 1 and module 2 more secure. Connectors 1, 2, and 3 all use transition fits with modules 1 and 2. Gaps in these fits can cause deviations in the relative positions of modules 1 and 2 after installation. The drive mechanism can reduce the gaps between modules 1 and 2, minimizing positional deviations and calibrating the installation positions of modules 1 and 2 to bring them closer to the standard installation position. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 for Figure 1 Front structural diagram; Figure 3 This is a schematic diagram of the fastening and limiting component structure; Figure 4 for Figure 3 Front structural diagram; Figure 5 Schematic diagram of the exploded structure of connecting frame 3 and sliding plate; Figure 6 Schematic diagram of the assembly structure for the fastening and limiting components; Figure 7 Schematic diagram showing the positional deviation caused by the mating of the module and the connector. Figure 8 This is a schematic diagram showing the connection between the indoor module and the outdoor module via a connector.

[0017] The attached diagram lists the components represented by each number as follows: 1. Indoor Module 1; 2. Outdoor Module 1; 3. Outdoor Module 2; 4. Indoor Module 2; 5. Mounting Slot 1; 6. Thermal Insulation Strip; 7. Inner Cavity; 8. Double Cavity; 9. Waterproof Slot; 10. Slot; 11. Mounting Slot 2; 12. Mounting Slot 3; 13. Connector 1; 14. Connector 2; 15. Connector 3; 16. Telescopic Plate; 17. Convex Shaft; 18. Threaded Rod; 19. Groove; 20. Sliding Plate; 21. Threaded Sleeve. Detailed Implementation

[0018] Please see Figure 1-8This invention provides a technical solution: an energy-saving door and window structure with an embedded flat-pressure waterproof exterior wall structure, comprising an indoor module 1, an outdoor module 2 at the bottom of the indoor module 1, an indoor module 4 on one side of the indoor module 1, and an outdoor module 3 at the bottom of the indoor module 4. The indoor module 1, outdoor module 2, outdoor module 3, and indoor module 4 are all embedded and connected by thermal insulation strips 6. The bottom of the outdoor module 3 has a waterproof groove 9 with a PA66 waterproof strip inside, which improves the waterproofness of the profile and the wall installation. The bottom of the outdoor module 3 is fixedly connected to a double cavity 8, which improves the sealing and heat insulation of the profile compared to the single wall commonly used in the prior art. The indoor module 1 and indoor module 4 are provided with fastening and limiting components, including: Connector 13 is installed inside indoor module 1 and indoor module 2; Connector 315 is installed inside outdoor module 12 and outdoor module 23; Connector 2 14 is disposed inside the two heat insulation strips 6. Two sets of horizontally symmetrically distributed convex shafts 17 are slidably connected inside connector 2 14. Each set of convex shafts 17 is fixedly connected to a sliding plate 20. The sliding plate 20 is slidably disposed inside connector 2 14. The fastening and limiting assembly also includes a driving mechanism. The driving mechanism is used to push the sliding plate 20 to slide so that the two convex shafts 17 on both sides are respectively connected to connector 1 13 and connector 3 15. See Figure 1 , Figure 3 , Figure 5 and Figure 6 First, install connector 2 14 inside the two thermal insulation strips 6. Then, install connector 1 13 inside indoor module 1 and indoor module 2 4, and connector 3 15 inside outdoor module 1 and outdoor module 2 3. This will tightly connect module 1 and module 2. The convex shafts 17 at the upper and lower ends of connector 2 14 are further connected and fixed to connector 1 13 and connector 3 15 respectively through a drive mechanism. The purpose of this is: First, the drive mechanism tightly connects connector 13, connector 2 14 and connector 3 15, enhancing the stability of the window frame and making the connection between module 1 and module 2 tighter. Secondly, connector 13, connector 2 14 and connector 3 15 all use transition fit with modules 1 and 2. The gap will cause the relative position of modules 1 and 2 to deviate after installation. The drive mechanism can reduce the gap between modules 1 and 2, reduce the position deviation, and realize the calibration of the installation position of modules 1 and 2, so that it is closer to the standard installation position.

[0019] As a further embodiment of the present invention, the driving mechanism includes a threaded rod 18, with both ends of the threaded rod 18 sliding through two sliding plates 20 respectively, and both ends of the threaded rod 18 are respectively helically sleeved with threaded sleeves 21. The convex shaft 17 is provided with a slot 19, and the connecting member 13 and the connecting member 3 are respectively fixedly connected with telescopic plates 16 for docking with the slot 19. See Figures 3-5 After connector 13, connector 24, and connector 315 are installed into modules 1 and 2 respectively, the sliding plates 20 on both sides are pushed to slide up and down respectively, so that the convex shafts 17 on both sides are inserted into connector 13 and connector 315 respectively, and are connected to the telescopic plates 16 inside connector 13 and connector 315 respectively through the slots 19. Then, the threaded sleeves 21 on the upper and lower sides are turned, so that the sliding plates 20 on both sides slide synchronously into connector 24. Due to the limiting relationship between the slots 19 and the telescopic plates 16, the convex shafts 17 are synchronously stretched to slide into connector 24 as the sliding plates 20 slide (e.g., ...). Figure 8 As shown in the figure, this reduces the gap between modules one and two, decreases the length of ∆L1, and calibrates the installation position while securing modules one and two.

[0020] As a further embodiment of the present invention, the heat insulation strip 6 has an inner cavity 7, which is filled with water-based polyurethane material to improve the overall heat insulation of the profile.

[0021] As a further embodiment of the present invention, an installation groove 5 is provided on the side wall of the indoor module 1, the installation groove 5 is used to install glass and screens, and the inclined plate on one side of the outdoor module 2 is used to seal and support.

[0022] As a further embodiment of the present invention, the indoor module 1 and the indoor module 2 are respectively fixedly connected to the opposite sides of the mounting groove 2 11 for docking with the connector 13. When installing the connector 13, the two ends of the connector 13 are docked with the mounting groove 2 11 inside the indoor module 1 and the indoor module 2 4 respectively, so that the indoor module 1 and the indoor module 2 4 can be fixed by the connector 13.

[0023] As a further embodiment of the present invention, each of the two heat insulation strips 6 is fixedly connected to an installation groove 3 12 for docking with the connector 2 14. Similarly, the connector 1 13 is installed, and the two heat insulation strips 6 are fixedly connected by docking the connector 2 14 with the installation groove 3 12.

[0024] As a further embodiment of the present invention, one end of the second indoor module 4 is fixedly connected to a slot 10. The slot 10 is filled with a filling material to further fix the first indoor module 1 and the second indoor module 4. The slot 10 realizes the embedded overlapping structure between the modules, which effectively improves the sealing and heat insulation of the profile compared with the planar structure of the prior art.

[0025] As a further embodiment of the present invention, a gasket is provided on both the sliding plate 20 and the threaded sleeve 21. The threaded rod 18 passes through the gasket and is spirally connected to the threaded sleeve 21. The gasket reduces wear between the threaded sleeve 21 and the sliding plate 20 and prevents the threaded sleeve 21 from becoming loose, which would lead to an unstable connection.

[0026] As a further embodiment of the present invention, the outdoor module 2 3 and the indoor module 2 4 are both provided with a docking groove for connecting with the wall. The docking groove fixes the position of the outdoor module 2 3 and the indoor module 2 4 after they are connected with the wall, preventing slippage. When the module 2 is fixed to the wall with bolts, the position of the module 2 does not shift.

[0027] Working principle: First, install connector 2 14 inside the two thermal insulation strips 6. Then, install connector 1 13 inside indoor module 1 and indoor module 2 4. Install connector 3 15 inside outdoor module 1 and outdoor module 2 3. This will tightly connect module 1 and module 2. Push the sliding plates 20 on both sides to slide up and down respectively, so that the convex shafts 17 on both sides are inserted into the connector 13 and connector 3 15 respectively, and are connected to the telescopic plates 16 inside the connector 13 and connector 3 15 respectively through the slots 19. Then, tighten the threaded sleeves 21 on the upper and lower sides, so that the sliding plates 20 on both sides slide synchronously into the connector 2 14. Due to the limiting relationship between the slots 19 and the telescopic plates 16, the convex shafts 17 are stretched synchronously to slide into the connector 13 and connector 3 15 towards the connector 2 14 when the sliding plates 20 slide, thereby narrowing the gap between modules 1 and 2, and calibrating their installation position while fastening modules 1 and 2. After modules one and two are connected as a whole, install it in the reserved position. Install it by connecting the groove on module two to the wall, and then fix it to the wall with expanding foam and bolts.

Claims

1. An energy-saving door and window structure with embedded flat pressure and external wall waterproofing, comprising an indoor module one (1), an outdoor module one (2) at the bottom of the indoor module one (1), an indoor module two (4) on one side of the indoor module one (1), and an outdoor module two (3) at the bottom of the indoor module two (4), wherein the indoor module one (1), the outdoor module one (2), the outdoor module two (3), and the indoor module two (4) are all embedded and connected by thermal insulation strips (6), characterized in that: The bottom of the outdoor module 2 (3) is provided with a waterproof groove (9), and the bottom of the outdoor module 2 (3) is fixedly connected with a double cavity (8). The interior of the indoor module 1 (1) and the interior module 2 (4) are provided with fastening and limiting components, including: Connector 1 (13) is installed inside indoor module 1 (1) and indoor module 2 (4); Connector 3 (15) is installed inside outdoor module 1 (2) and outdoor module 2 (3); Connector 2 (14) is located inside the two heat insulation strips (6). Two sets of horizontally symmetrically distributed convex shafts (17) are slidably connected inside connector 2 (14). Each set of convex shafts (17) is fixedly connected to a sliding plate (20). The sliding plate (20) is slidably located inside connector 2 (14). The fastening and limiting assembly also includes a driving mechanism. The driving mechanism is used to push the sliding plate (20) to slide so that the two convex shafts (17) on both sides are respectively connected to connector 1 (13) and connector 3 (15).

2. The energy-saving door and window structure with embedded flat pressure and external wall waterproofing structure according to claim 1, characterized in that: The driving mechanism includes a threaded rod (18), with both ends of the threaded rod (18) sliding through two sliding plates (20). Both ends of the threaded rod (18) are respectively screwed with threaded sleeves (21). A slot (19) is provided on the convex shaft (17). The first connector (13) and the third connector (15) are respectively fixedly connected with telescopic plates (16) for docking with the slot (19).

3. The energy-saving door and window structure with embedded flat pressure and external wall waterproofing as described in claim 1, characterized in that: The heat insulation strip (6) has an inner cavity (7) inside.

4. The energy-saving door and window structure with embedded flat pressure and external wall waterproofing structure according to claim 1, characterized in that: The indoor module 1 (1) has an installation groove 1 (5) on its side wall.

5. The energy-saving door and window structure with embedded flat pressure and external wall waterproofing structure according to claim 1, characterized in that: The indoor module 1 (1) and indoor module 2 (4) are respectively fixedly connected to the opposite sides of the mounting groove 2 (11) for docking with the connector 1 (13).

6. The energy-saving door and window structure with embedded flat pressure and external wall waterproofing structure according to claim 1, characterized in that: Each of the two heat insulation strips (6) has a mounting groove (12) fixedly connected to the opposite side for docking with the connector (14).

7. The energy-saving door and window structure with embedded flat pressure and external wall waterproofing as described in claim 1, characterized in that: One end of the indoor module 2 (4) is fixedly connected to a slot (10).

8. The energy-saving door and window structure with embedded flat pressure and external wall waterproofing structure according to claim 2, characterized in that: The sliding plate (20) and the threaded sleeve (21) are each provided with a gasket, and the threaded rod (18) passes through the gasket and is helically connected to the threaded sleeve (21).

9. The energy-saving door and window structure with embedded flat pressure and external wall waterproofing structure according to claim 1, characterized in that: Both the outdoor module 2 (3) and the indoor module 2 (4) are provided with a docking groove for connecting with the wall.

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