Green, energy-saving and environment-friendly building waterproof and heat-insulating outer wall structure
By combining square channels, square frames, square plates, and round rods, the problem of loose splicing of insulation boards is solved, achieving tight splicing and stable fixing of insulation boards, thus improving the energy-saving effect and construction convenience of buildings.
Patent Information
- Application Number
- CN202520154949.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-01-23
- Publication Date
- 2026-01-02
- Estimated Expiration
- 2035-01-23
AI Technical Summary
Loose splicing of insulation boards in the building's exterior wall structure leads to severe thermal bridging, affecting the building's energy efficiency, and the gaps widen and worsen with temperature changes.
The structure employs a square groove and square frame interlocking mechanism, combined with square plates, blocks, and round rods for positioning, to achieve tight splicing and stable fixing of the insulation boards, reducing thermal bridges and gaps.
It improves the density and stability of the insulation board, reduces heat loss, maintains stable indoor temperature, reduces energy consumption, and enhances construction convenience and overall stability.
Smart Images
Figure CN223753536U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to energy -conserving building technical field, concretely is a kind of green energy -conserving and environment -friendly building waterproof thermal insulation outer wall structure. BACKGROUND
[0002] Under the building development trend of pursuing green energy conservation and environmental protection, waterproof thermal insulation outer wall structure becomes the key link of building energy saving. As the core thermal insulation component of outer wall structure, insulation board plays a pivotal role in maintaining indoor thermal environment stability.
[0003] However, in actual engineering application, the splicing link of insulation board exposes significant problems. Due to the complexity of installation process and the variability of construction site conditions, it is difficult to achieve complete tight splicing between insulation boards. This non-tight splicing condition directly leads to the phenomenon of thermal bridge, which is like a "leak" in the building insulation system. Especially in winter, the warm heat in the room will quickly flow to the outside through the splicing gap, greatly reducing the insulation effect and causing unnecessary increase in building energy consumption.
[0004] In addition, with the use of buildings, the frequent temperature changes brought by the change of seasons inevitably cause thermal expansion and contraction of insulation boards. In this process, the originally non-tight splicing gap is further expanded, and the thermal bridge effect is intensified, seriously hindering the realization of building energy saving goals. UTILITY MODEL CONTENTS
[0005] The utility model aims to provide a kind of green energy conservation and environmental protection building waterproof thermal insulation outer wall structure to solve the problems raised in the above background technology.
[0006] To achieve the above purpose, the utility model provides the following technical scheme:
[0007] A kind of green energy conservation and environmental protection building waterproof thermal insulation outer wall structure, comprising:
[0008] Insulation board mechanism;
[0009] Square groove one is opened in the center position of the one side outer wall of insulation board mechanism;
[0010] Square groove two is opened in the one end position of the other side outer wall of insulation board mechanism;
[0011] Square frame two is fixed in the opposite place of the one side outer wall of insulation board mechanism and square groove two;
[0012] Square frame one is fixed in the opposite place of the other side outer wall of insulation board mechanism and square groove one.
[0013] Further, the insulation board mechanism comprises:
[0014] Square groove three, set up in the thermal insulation plate mechanism one end outer wall near one side position;
[0015] Square groove four, set up in the thermal insulation plate mechanism the other end outer wall and square groove three opposite position, square groove four inside sliding plug has square board two, square groove four inside plug has square board one.
[0016] Preferably, the thermal insulation plate mechanism comprises:
[0017] Square hole, set up in the thermal insulation plate mechanism outer wall in square groove four, square hole inside sliding plug has square, square outer wall and square board two outer wall in one side fixed.
[0018] Preferably, the thermal insulation plate mechanism comprises:
[0019] Threaded hole three, set up in the inner wall of square groove four in the center.
[0020] Preferably, the thermal insulation plate mechanism comprises:
[0021] Limiting seat, fixed in the thermal insulation plate mechanism one end in one side center;
[0022] Arc-shaped groove, set up in the thermal insulation plate mechanism the other end in the limiting seat opposite place.
[0023] Preferably, the thermal insulation plate mechanism comprises:
[0024] Threaded hole one, set up two, respectively set up in the thermal insulation plate mechanism outer wall near one end two sides position;
[0025] Threaded hole two, set up two, respectively set up in the outer wall of square board two in two sides.
[0026] Preferably, the thermal insulation plate mechanism comprises:
[0027] Round hole, set up two, respectively set up in the thermal insulation plate mechanism one end outer wall in two sides;
[0028] Round rod, plug in the round hole inside.
[0029] Compared with the prior art, the utility model has the advantages that:
[0030] 1. through square frame one and square groove one plug, square groove two and square frame two plug, make two thermal insulation plate mechanism mutual plug, the structure of close adhesion greatly reduces the air convection channel, compared with the traditional splicing mode, there is no gap this "thermal bridge", heat is difficult to dissipate through conduction, convection, cold air is also firmly blocked outside, whether in cold winter to resist outdoor low temperature, or hot summer to block the outside heat invasion, indoor environment can maintain more stable, comfortable temperature, effectively reduce the energy consumption of building, reduce the use frequency and length of heating or refrigeration equipment.
[0031] 2. By setting up square plate two and square groove three plug-in, when the two thermal insulation plate mechanism is vertically spliced, the tightness between them is effectively improved, and gaps are avoided between them, and the square block is provided inside the square hole, which can facilitate personnel to splice operation, when the two thermal insulation plate mechanisms are spliced together, the square block is pulled to drive the square plate two to plug-in, effectively improving the operation convenience.
[0032] 3. The round rod is inserted from the top of the round hole of the thermal insulation plate mechanism, and the round rod slides along the inside of the round hole on the plurality of vertically arranged thermal insulation plate mechanisms, and the entire vertical row of thermal insulation plate mechanisms is fixed and limited, effectively improving the overall stability. BRIEF DESCRIPTION OF DRAWINGS
[0033] Figure 1 is the overall structure schematic diagram of the utility model;
[0034] Figure 2 is the thermal insulation plate mechanism structure schematic diagram in the utility model;
[0035] Figure 3 is the square plate two structure schematic diagram in the utility model;
[0036] Figure 4 is the threaded hole three structure schematic diagram in the utility model;
[0037] Figure 5 is the limiting seat structure schematic diagram in the utility model;
[0038] Figure 6 is the arc-shaped groove structure schematic diagram in the utility model.
[0039] In the drawing: 100, thermal insulation plate mechanism;101, square groove one;102, square groove two;103, square frame one;104, square frame two;105, square groove three;106, round hole;107, threaded hole one;108, square hole;109, square groove four;110, square plate one;111, square plate two;112, square block;113, threaded hole two;120, round rod;130, threaded hole three;131, arc-shaped groove;140, limiting seat. DETAILED DESCRIPTION
[0040] The technical solutions in the embodiments of the utility model will be clearly and completely described below with reference to the drawings in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the utility model.
[0041] Please refer to Figures 1-6The utility model discloses an energy -conserving and environment -friendly building waterproof heat preservation outer wall structure of green, including the heat preservation board mechanism 100, the heat preservation board mechanism 100 includes following several parts: its square groove no. 2 102 is set up in the heat preservation board mechanism 100 the other side outer wall close to one end position department, and square frame no. 2 104 is fixed in the heat preservation board mechanism 100 one side outer wall and square groove no. 2 102 opposite department, its square frame no. 1 103 is fixed in the heat preservation board mechanism 100 the other side outer wall and square groove no. 1 101 opposite department, through square frame no. 1 103 and square groove no. 1 101 plug -in, square groove no. 2 102 and square frame no. 2 104 plug -in, make two heat preservation board mechanism 100 intercalation after, the structure of close adhesion greatly reduces the air convection passage.
[0042] The heat preservation board mechanism 100 includes following several parts: its square groove no. 3 105 is set up in the heat preservation board mechanism 100 one end outer wall close to one side position department, and square groove no. 4 109 is set up in the heat preservation board mechanism 100 the other end outer wall and square groove no. 3 105 opposite position department, in square groove no. 4 109 inside sliding plug -in has square board no. 2 111, and in square groove no. 4 109 inside plug -in has square board no. 1 110, its square hole 108 is set up in the heat preservation board mechanism 100 outer wall is located in square groove no. 4 109, in square hole 108 inside sliding plug -in has square 112, and square 112 outer wall is fixed with square board no. 2 111 outer wall is located in one side department, its screw hole no. 3 130 is set up in the heat preservation board mechanism 100 inner wall is located in the center, and the limit seat 140 is fixed in the heat preservation board mechanism 100 one end and is located in one side center, its arc slot 131 is set up in the heat preservation board mechanism 100 the other end and is located in the limit seat 140 opposite department, its screw hole no. 1 107 is provided with two, is set up in the heat preservation board mechanism 100 outer wall close to one end two sides position department, and screw hole no. 2 113 is provided with two, is set up in square board no. 2 111 outer wall and is located in two sides department, through setting up square board no. 2 111 and square groove no. 3 105 plug -in, when carrying out vertical splicing to two heat preservation board mechanism 100, effectively improve the compactness between.
[0043] The heat preservation board mechanism 100 includes following several parts: its round hole 106 is provided with two, is set up in the heat preservation board mechanism 100 one end outer wall and is located in two sides department, and round rod 120 is inserted in the round hole 106 inside, through round rod 120 from the top heat preservation board mechanism 100's round hole 106 place insertion, and round rod 120 will follow along multiple vertical rows of parallel heat preservation board mechanism 100 on the round hole 106 inside sliding, carries out the limit fixed to whole vertical row's heat preservation board mechanism 100, effectively improved the stability of whole.
[0044] Specifically, during operation, firstly, the square frame 103 fixedly connected to one side of one insulation board mechanism 100 is inserted into the inner wall of the square groove 101 opened on one side of the other insulation board mechanism 100. The square frame 104 on the other insulation board mechanism 100 is then inserted into the corresponding square groove 102, ensuring the two insulation board mechanisms 100 fit tightly together without gaps. This horizontal splicing operation is completed sequentially. Then, the limiting seat 140 of one insulation board mechanism 100 is inserted into the arc-shaped groove 131 opened at the bottom of the other insulation board mechanism 100. Finally, screws are passed through the threaded hole 130 to secure the two insulation board mechanisms 100 together. With the wall fixed in place, the operator presses down on block 112 and moves it downwards, causing block 2 111 to move downwards and connect with the square groove 3 105 of another insulation board mechanism 100. After that, block 110 is inserted along square groove 4 109 to limit block 2 111. The vertical splicing operation is completed in sequence. Screws are passed through threaded holes 107 and 213 to fix block 2 111 in its current position, completing the splicing into a whole. After the splicing is completed, the operator inserts round rod 120 into round hole 106 from the top insulation board mechanism 100, so that round rod 120 passes through the entire vertical row of insulation board mechanisms 100 to limit it, completing the installation work.
[0045] Example 1
[0046] like Figure 2 As shown, in this embodiment, the insulation board mechanism 100 includes the following parts: a square groove 101 is opened on one side of the outer wall of the insulation board mechanism 100 near the center position, and a square groove 2 102 is opened on the other side of the outer wall of the insulation board mechanism 100 near one end position; a square frame 2 104 is fixed on one side of the outer wall of the insulation board mechanism 100 opposite to the square groove 2 102; and a square frame 103 is fixed on the other side of the outer wall of the insulation board mechanism 100 opposite to the square groove 101.
[0047] In the embodiment, first, the square frame one 103 fixedly connected to one side of the insulation board mechanism 100 is inserted into the inner wall of the square groove one 101 opened on the other side of the insulation board mechanism 100, and the square frame two 104 on the other insulation board mechanism 100 is inserted into the corresponding square groove two 102, so that the two insulation board mechanisms 100 can be tightly attached together without gaps. Through the insertion of the square frame one 103 and the square groove one 101, and the insertion of the square groove two 102 and the square frame two 104, after the two insulation board mechanisms 100 are inserted into each other, the tightly attached structure greatly reduces the air convection channel. Compared with the traditional splicing method, there is no gap, a "thermal bridge", which makes it difficult for heat to dissipate through conduction and convection. Cold air is also firmly blocked outside. Whether in cold winter to resist low outdoor temperature or in hot summer to block external hot air, the indoor environment can maintain a more stable and comfortable temperature, effectively reducing the energy consumption of the building and reducing the use frequency and duration of heating or cooling equipment. At the same time, the stress can be evenly distributed through the insertion part, making the entire insulation wall or roof system more firm and less likely to loosen, shift or even fall off.
[0048] As shown in Figures 2-6 In the embodiment, the insulation board mechanism 100 includes the following parts: the square groove three 105 is opened on the outer wall of one end of the insulation board mechanism 100 near one side, and the square groove four 109 is opened on the outer wall of the other end of the insulation board mechanism 100 opposite to the square groove three 105. The square plate two 111 is slidably inserted into the square groove four 109, and the square plate one 110 is inserted into the square groove four 109. The square hole 108 is opened on the outer wall of the insulation board mechanism 100 at the outlet of the square groove four 109, and the square block 112 is slidably inserted into the square hole 108. The outer wall of the square block 112 is fixed to the outer wall of the square plate two 111 on one side. The threaded hole three 130 is opened on the inner wall of the square groove four 109 at the center, and the limiting seat 140 is fixed to one end of the insulation board mechanism 100 at the center on one side. The arc-shaped groove 131 is opened on the other end of the insulation board mechanism 100 opposite to the limiting seat 140.
[0049] In practice, the limiting seat 140 of one insulation board mechanism 100 is inserted into the arc-shaped groove 131 at the bottom of the other insulation board mechanism 100. A screw is then passed through the threaded hole 130 to secure the two insulation board mechanisms 100 together to the wall. The operator presses down on block 112, moving block 111 downwards until it engages with the square groove 105 of the other insulation board mechanism 100. After this, block 110 is inserted along square groove 109 to hold block 111 in place. This vertical splicing operation is completed sequentially. The square plate 111 and the square groove 105 are interlocked, which effectively improves the tightness between the two insulation board mechanisms 100 when they are vertically spliced, and avoids gaps. The square block 112 is provided to slide inside the square hole 108, which facilitates the splicing operation. After the two insulation board mechanisms 100 are spliced together, the square block 112 is pulled to drive the square plate 111 to be interlocked, which effectively improves the convenience of operation. In addition, the square plate 110 and the square groove 109 are interlocked, which can not only limit the square plate 111, but also fill the gaps in the square groove 109, thereby improving the overall insulation performance.
[0050] Example 2
[0051] like Figure 2 As shown, in this embodiment, the insulation board mechanism 100 includes the following parts: it has two round holes 106, which are respectively opened on the outer wall of one end of the insulation board mechanism 100 at both sides, and the round rod 120 is inserted into the round hole 106.
[0052] In practice, after the splicing is completed, personnel insert a round rod 120 into the round hole 106 from the top insulation board mechanism 100, so that the round rod 120 passes through the entire vertical row of insulation board mechanisms 100, limiting and fixing them, thus completing the installation work. By inserting the round rod 120 into the round hole 106 of the top insulation board mechanism 100, the round rod 120 will slide along the round holes 106 on the multiple vertically arranged insulation board mechanisms 100, limiting and fixing the entire vertical row of insulation board mechanisms 100, effectively improving the overall stability.
[0053] It will be apparent to those skilled in the art that this invention is not limited to the details of the exemplary embodiments described above, and that it can be implemented in other specific forms without departing from the spirit or essential characteristics of this invention. Therefore, the embodiments should be considered illustrative and non-limiting in all respects, and the scope of this invention is defined by the appended claims rather than the foregoing description. Thus, it is intended that all variations falling within the meaning and scope of equivalents of the claims be included within this invention. No reference numerals in the claims should be construed as limiting the scope of the claims.
[0054] Furthermore, it should be understood that although the specification is described in terms of embodiments, not every embodiment includes every feature or implementation described herein. The specification can include implicit combinations of explicitly mentioned features and / or implicit combinations of implicitly mentioned features. Such combinations are also expressly included within the scope of the specification and an embodiment.
Claims
1. A green energy-saving environment-friendly building waterproof thermal insulation outer wall structure, characterized in that, Include: Insulation board mechanism (100); Square groove one (101), set up in the insulation board mechanism (100) one side outer wall near the center position; Square groove two (102), set up in the insulation board mechanism (100) the other side outer wall near one end position; Square frame two (104), fixed to the insulation board mechanism (100) one side outer wall and square groove two (102) opposite place; Square frame one (103), fixed to the insulation board mechanism (100) the other side outer wall and square groove one (101) opposite place.
2. The green energy-saving and environment-friendly building waterproof and thermal insulation outer wall structure according to claim 1, characterized in that, The insulation board mechanism (100) includes: Square groove three (105), set up in the insulation board mechanism (100) one end outer wall near one side position; Square groove four (109), set up in the insulation board mechanism (100) the other end outer wall and square groove three (105) opposite position, square groove four (109) inside sliding plug has square board two (111), square groove four (109) inside plug has square board one (110).
3. The green, energy-saving, environment-friendly building waterproof and thermal insulation outer wall structure according to claim 2, characterized in that, The insulation board mechanism (100) includes: Square hole (108), set up in the insulation board mechanism (100) outer wall in square groove four (109) in the process, square hole (108) inside sliding plug has square (112), square (112) outer wall and square board two (111) outer wall in one side fixed.
4. The green, energy-saving, environment-friendly building waterproof and thermal insulation outer wall structure according to claim 3, characterized in that, The insulation board mechanism (100) includes: Screw hole three (130), set up in the square groove four (109) inner wall in the center.
5. The green, energy-saving, environment-friendly building waterproof and thermal insulation outer wall structure according to claim 4, characterized in that, The insulation board mechanism (100) includes: Limit seat (140), fixed to the insulation board mechanism (100) one end in one side center; Arc slot (131), set up in the insulation board mechanism (100) the other end in limit seat (140) opposite place.
6. The green, energy-saving, environment-friendly building waterproof and thermal insulation outer wall structure according to claim 5, characterized in that, The insulation board mechanism (100) includes: Screw hole one (107), provided with two, respectively set up in the insulation board mechanism (100) outer wall near one end two sides position; Screw hole two (113), provided with two, respectively set up in the square board two (111) outer wall in two sides.
7. The green, energy-saving, environment-friendly building waterproof and thermal insulation outer wall structure according to claim 6, characterized in that, The insulation board mechanism (100) includes: Round hole (106), provided with two, respectively set up in the insulation board mechanism (100) one end outer wall in two sides; Round rod (120), plug in the round hole (106) inside.