CN216617235U - High-bearing low-cost sliding support for building doors and windows - Google Patents

High-bearing low-cost sliding support for building doors and windows Download PDF

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Publication number
CN216617235U
CN216617235U CN202123087095.XU CN202123087095U CN216617235U CN 216617235 U CN216617235 U CN 216617235U CN 202123087095 U CN202123087095 U CN 202123087095U CN 216617235 U CN216617235 U CN 216617235U
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arm
bearing
force
hinged
sliding support
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CN202123087095.XU
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李祥明
张群
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Shenzhen Guro Building Materials Co ltd
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Shenzhen Guro Building Materials Co ltd
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Abstract

The utility model discloses a high-bearing and low-cost sliding support for building doors and windows in the field of sliding supports for building doors and windows, which comprises a bottom rail, a bearing arm, a force receiving arm and a guide arm, wherein the bottom rail is made of aluminum alloy, a bottom groove is formed in the surface of the bottom rail, a sliding block sliding along the bottom groove is arranged in the bottom groove, the sliding block is hinged to the inner end of the guide arm, the outer end of the guide arm is hinged to one end of the bearing arm, the force receiving arm comprises a first force receiving arm and a second force receiving arm, the other end of the bottom rail is hinged to the first force receiving arm and the second force receiving arm, and the other end of the first force receiving arm and the other end of the second force receiving arm are hinged to the other end of the bearing arm, so that the bearing arm, the first force receiving arm, the bottom rail and the second force receiving arm are sequentially connected to form a four-link structure. The utility model increases the bearing capacity of the sliding support, and reduces the weight of the whole product and the production process difficulty and cost of the product through the design of the aluminum alloy material of the bottom rail.

Description

High-bearing low-cost sliding support for building doors and windows
Technical Field
The utility model relates to the field of sliding supports for building doors and windows, in particular to a high-bearing and low-cost sliding support for building doors and windows.
Background
The sliding support is a connecting rod type movable connecting device which is used for connecting a building door window and a door window frame and enables the door window to be opened and closed. As shown in fig. 1 and 2, the conventional sliding support structure includes a support arm fixedly connected to the door/window, a sliding groove fixedly connected to the door/window frame, a guide arm and a force receiving arm disposed between the support arm and the sliding groove, wherein one end of the force receiving arm is hinged to an end of the support arm, the other end of the force receiving arm is hinged to a sliding block on the sliding groove, the sliding block slides on the sliding groove and has a damping effect and a positioning function, one end of the guide arm is hinged to a middle portion of the support arm, the other end of the guide arm is hinged to the sliding groove, the middle portion of the guide arm is further hinged to an auxiliary arm (for assisting the sliding support to open and close), and the other end of the auxiliary arm is hinged to the sliding block.
In the structure of the sliding support, the bearing arm is connected with only one stressed arm, and the stressed arm moves back and forth along with the sliding of the sliding block, so that the bearing capacity of the stressed arm is limited; in addition, in order to bear the force bearing arm, the sliding groove is made of stainless steel, and the stainless steel needs to be subjected to punch forming in the production process, so that the processing cost of the product is increased.
The above-mentioned drawbacks are worth improving.
Disclosure of Invention
In order to overcome the defects of the prior art, the utility model provides the high-bearing and low-cost sliding support for the building door and window, the bearing capacity of the sliding support is increased through the two stress arms, the weight born by the sliding support is further increased through the sliding of the guide arms and the hinging of the stress arms, in addition, the weight of the whole product is reduced through the design of the aluminum alloy material of the bottom rail, and the difficulty and the cost of the production process of the product are reduced.
The technical scheme of the utility model is as follows:
the utility model provides a high bearing, low-cost building door and window are with sliding support, include with building door and window frame fixed connection's end rail, with building door and window fixed connection's trailing arm, locate the end rail with atress arm, guiding arm between the trailing arm, its characterized in that:
the bottom rail is made of aluminum alloy;
the surface of the bottom rail is provided with a bottom groove, a sliding block sliding along the bottom groove is arranged in the bottom groove, the sliding block is hinged with the inner end of the guide arm, and the outer end of the guide arm is hinged with one end of the bearing arm;
the stress arm comprises a first stress arm and a second stress arm, the other end of the bottom rail is hinged to the first stress arm and the second stress arm, the other end of the first stress arm and the other end of the second stress arm are hinged to the other end of the bearing arm, and therefore the bearing arm, the first stress arm, the bottom rail and the second stress arm are sequentially connected to form a four-link structure.
The utility model according to the scheme is characterized in that the cross section of the bottom groove is in a concave shape, the cross section of the sliding block is in an I shape, and a bottom cross beam of the sliding block is sleeved in the bottom groove.
Furthermore, the bottom groove extends from one end of the bottom rail to the other end, and one end of the second force bearing arm is hinged to the bottom groove.
The utility model according to the scheme is characterized in that a reinforcing wall is further arranged on the upper side of the bottom rail, and one end of the first force receiving arm is hinged to the reinforcing wall.
The utility model according to the above aspect is characterized in that the length of the first force-receiving arm is smaller than the length of the second force-receiving arm, and the length of the second force-receiving arm is smaller than the length of the guide arm.
Furthermore, the hinged position of the second force-receiving arm and the bottom rail is located between the hinged position of the first force-receiving arm and the bottom rail and the slider, and the hinged position of the second force-receiving arm and the bearing arm is located between the hinged position of the first force-receiving arm and the bearing arm and the hinged position of the guide arm and the bearing arm.
The sliding support for the building door and window is characterized in that a protruding limiting angle is arranged on the outer side of the first force receiving arm, so that when the sliding support for the building door and window is closed, the limiting angle is abutted against a limiting edge of the bottom rail, and an acute included angle is formed between an edge line of the limiting angle and a connecting line of two hinged positions of the first force receiving arm.
The utility model according to the scheme is characterized in that the supporting arm is provided with a clamping block for fixing the side edge of the door window.
Furthermore, the lower end of the clamping block is connected with the bearing arm through a support column.
Furthermore, the supporting column is coaxial with the hinging position of the first force bearing arm on the supporting arm.
According to the scheme, the bottom rail is made of the aluminum alloy, so that the weight of the whole sliding support can be reduced, and the processing difficulty and the processing cost of the bottom rail are reduced; in addition, the utility model can increase the bearing capacity of the whole sliding support by simultaneously bearing the load through the two stressed arms, and changes the sliding mode of the traditional stressed arm into the sliding mode of the guide arm, so that the end part of the stressed arm can not translate along with the sliding of the guide arm, thereby further increasing the bearing capacity of the product.
Drawings
FIG. 1 is a schematic view of a conventional slide brace in a fully open state;
FIG. 2 is a schematic view of a prior art slide brace in a fully closed position;
FIG. 3 is a schematic structural diagram of the fully opened state of the present invention;
FIG. 4 is a schematic view of another perspective of the fully open state of the present invention;
FIG. 5 is a schematic structural view of a semi-open state of the present invention;
fig. 6 is a schematic structural view of the fully closed state of the present invention.
In the figures, the various reference numbers are:
1-a chute; 2-a support arm; 3-a guide arm; 4-force bearing arm; 5-an auxiliary arm; 6-a slide block; 7-wrap angle;
10-bottom rail; 11-a bottom groove; 12-a reinforcing wall; 20-a support arm; 30-a guide arm; 40-a first force-receiving arm; 41-limiting angle; 50-a second force-receiving arm; 60-a slide block; 70-a clamping block; 71-support column.
Detailed Description
The utility model is further described with reference to the following figures and embodiments:
as shown in fig. 1 and 2, the conventional sliding support for building doors and windows includes a sliding chute 1, a bearing arm 2, a force-receiving arm 4, a guide arm 3 and an auxiliary arm 5, wherein the sliding chute 1 is a connecting rod fixedly mounted on a door and window frame, the bearing arm 2 is a connecting rod fixed on the door and window, and the force-receiving arm 4, the guide arm 3 and the auxiliary arm 5 are located between the sliding chute 1 and the bearing arm 2, and are used for supporting the doors and windows and realizing the opening and closing functions.
In the structure, the force receiving arm 4 is a short connecting rod which connects the sliding chute 1 and the bearing arm 2, one end of the short connecting rod is hinged with the end part of the bearing arm 2, the other end of the short connecting rod is hinged with a sliding block 6 on the sliding chute 1, and the sliding block 6 can slide left and right along the sliding chute 1; the guide arm 3 is a long connecting rod which connects the sliding chute 1 and the bearing arm 2, one end of the guide arm is hinged with the middle part of the bearing arm 2, and the other end of the guide arm is arranged on the sliding chute 1 and is hinged with the sliding chute 1; the auxiliary arm 5 is a connecting rod (opening and closing of an auxiliary sliding support structure) with an auxiliary function and connecting the guide arm 3 with the sliding block 6, one end of the auxiliary arm is hinged with the middle part of the guide arm 3, and the other end of the auxiliary arm is hinged with the sliding block 6. The slide 6 is a fitting that slides along the chute 1 with a damping effect and a positioning function. In the structure, the slide block 6, the stress arm 4, the bearing arm 2, the guide arm 3 and the auxiliary arm 5 form a five-link transmission component.
In addition, the riveting holes at the two hinged positions on the force receiving arm 4 are designed concentrically (namely, the connecting line of the two riveting holes is in the same direction with the axial direction of the force receiving arm), so that in order to avoid over rotation when the sliding support is closed, the wrap angle 7 needs to be arranged at the end part of the sliding chute 1, and the processing cost of the product installation wrap angle 7 is increased.
When the sliding support realizes the supporting effect, most of the weight of the door and window is borne on the stress arm 4 because only one stress arm 4 is provided, and the stress arm 4 slides along with the sliding block 6 in the opening and closing processes of the door and window, so that the bearing capacity of the sliding support structure is very low.
As shown in fig. 3 to 6, in order to enhance the bearing capacity of the sliding support for building doors and windows and reduce the production and processing costs of the sliding support, the utility model provides a high-bearing and low-cost sliding support for building doors and windows, which comprises a bottom rail 10 fixedly connected with a building door and window frame, a bearing arm 20 fixedly connected with a building door and window, a stress arm arranged between the bottom rail 10 and the bearing arm 20, and a guide arm 30. The bottom rail 10 is used for providing a supporting base of the whole sliding support structure, the supporting arm 20 is used for providing a base for fixing the door and window, the guide arm 30 is used for providing guidance for opening and closing the door and window, and the stress arm is used for bearing the door and window.
The bottom rail 10 of the present invention is made of aluminum alloy. In the traditional sliding support structure, the sliding chute is made of stainless steel, and needs to be formed in a punching mode in the machining process, so that the raw material cost is high, and the machining cost and the machining difficulty are high; the aluminum alloy material of the utility model not only reduces the weight of the whole sliding support structure and the cost of raw materials, but also can be formed by extrusion, and has smaller processing difficulty and lower processing cost. In addition, other alloy components can be added into the aluminum alloy material to increase the yield strength and hardness of the sliding support structure, but the cost is lower than that of the traditional stainless steel material, the processing difficulty is lower than that of the stainless steel, and the aluminum alloy components added into the aluminum alloy material and the corresponding proportion are not specifically limited in the application and can be properly adjusted according to specific needs.
The surface of the bottom rail 10 is provided with a bottom groove 11, and the bottom groove 11 provides a sliding track for the building door and window. Specifically, a slider 60 sliding along the bottom groove is arranged in the bottom groove 11, and the slider 60 has a damping effect and a positioning function (the opening angle of the sliding support structure can be adjusted). The slider 60 is hinged to the inner end of the guide arm 30 and the outer end of the guide arm 30 is hinged to one end of the support arm 20. In the process that the sliding block 60 slides along the bottom groove 11, the guide arm 30 is sequentially driven to be gradually opened or closed, and then the supporting arm 20 and the building door and window are driven to be opened or closed. In the sliding support structure of the traditional building door and window, the end part of the inner side of the guide arm is fixed, the outer side of the guide arm is used for opening or closing the door and window, and the window and window have a smaller range after being completely opened, while the guide arm 30 in the utility model is used as a movable part and can move along with the position when being opened at an angle, so that the window and window has a larger range after being opened.
As shown in fig. 3, in the present embodiment, the cross section of the bottom groove 11 is in a concave shape, the cross section of the slider 60 is in an i shape, and a bottom cross beam of the slider 60 is sleeved inside the bottom groove 11, so that the slider 60 cannot fall off from the bottom groove 11, and the sliding is more convenient. Preferably, the bottom slot 11 extends from one end of the bottom rail 10 to the other end, so that the slider 60 is easier to install during assembly.
In addition, the stress arm in the utility model comprises a first stress arm 40 and a second stress arm 50, the other end of the bottom rail 10 is hinged with the first stress arm 40 and the second stress arm 50, and the other end of the first stress arm 40 and the other end of the second stress arm 50 are hinged with the other end of the bearing arm 20, so that the bearing arm 20, the first stress arm 40, the bottom rail 10 and the second stress arm 50 are sequentially connected to form a four-bar linkage structure. The first force-bearing arm 40 and the second force-bearing arm 50 simultaneously support the support arm 20, and compared with a traditional sliding support structure with one force-bearing arm, the bearing capacity of the sliding support structure is larger; meanwhile, the inner sides of the first force receiving arm 40 and the second force receiving arm 50 are hinged to the bottom rail 10, and the positions of the first force receiving arm 40 and the second force receiving arm 50 cannot move along with the opening and closing of the door and window, so that the bearing capacity of the two force receiving arms is further improved.
The length of the first force-receiving arm 40 is less than the length of the second force-receiving arm 50, and the length of the second force-receiving arm 50 is less than the length of the guide arm 30. The hinged position of the second force-bearing arm 50 and the bottom rail 10 is positioned between the hinged position of the first force-bearing arm 40 and the bottom rail 10 and the sliding block 60, and the hinged position of the second force-bearing arm 50 and the supporting arm 20 is positioned between the hinged position of the first force-bearing arm 40 and the supporting arm 20 and the hinged position of the guide arm 30 and the supporting arm 20. When the sliding support for the building door and window is in a fully opened state, the first force receiving arm 40 and the bearing arm 20 (the door and window) form an angle similar to a straight line, the second force receiving arm 50 and the door and window form a small triangular support, and the guide arm 30 and the door and window form a large triangular support.
As shown in fig. 1 and 2, in the conventional sliding support structure for building doors and windows, the supporting arm 2 and the force-bearing arm 4 are both regular long strips. In order to avoid the phenomenon that the bearing arm 2 is out of position when closed, the end part of the sliding groove 1 is additionally provided with a wrap angle 7, so that the bearing arm 2 falls into the wrap angle 7 after being closed. In the utility model, the convex limiting angle 41 is arranged on the outer side of the first force receiving arm 40, so that when the sliding support for the building door and window is closed, the limiting angle 41 is abutted against the limiting edge of the bottom rail 10, an acute included angle is formed between the edge line of the limiting angle 41 and the connecting line of two hinged positions of the first force receiving arm 40, at the moment, the door and window is closed, but because the limiting angle 41 is abutted against the limiting edge in preference to the bearing arm 20 in the closing process, the bearing arm 20 cannot form an 'offside' state when the sliding support is completely closed, the structure omits the wrap angle design of the traditional sliding support, the processing cost of a product is saved, and the product structure is more stable.
In order to match with the limit design, in the utility model, relative to the hinged position of the second force receiving arm 50 and the bottom rail 10, the hinged position of the first force receiving arm 40 and the bottom rail 10 is closer to the limit edge of the bottom rail 10, so that when the sliding support for the building door and window is in a completely closed state, the bearing arm 20, the second force receiving arm 50 and the guide arm 30 are all positioned on the same straight line, and an acute angle is formed between the connecting line of the two hinged positions of the first force receiving arm 40 and the bearing arm 20.
Specifically, one end of the second force-receiving arm 50 is hinged to the bottom groove 11, the upper side of the bottom rail 10 is provided with a reinforcing wall 12, and one end of the first force-receiving arm 40 is hinged to the reinforcing wall 12.
Preferably, the support arm 20 is provided with a clamping block 70 for fixing the side of the door window, and the building door window is further fixed by the clamping block 70. In this embodiment, the lower end of the clamping block 70 is connected to the supporting arm 20 through the supporting column 71, and the supporting column 71 is coaxial with the hinge position of the first force receiving arm 40 on the supporting arm 20, so as to further ensure the structural stability of the supporting arm 20.
It will be understood that modifications and variations can be made by persons skilled in the art in light of the above teachings and all such modifications and variations are intended to be included within the scope of the utility model as defined in the appended claims.
The utility model is described above with reference to the accompanying drawings, which are illustrative, and it is obvious that the implementation of the utility model is not limited in the above manner, and it is within the scope of the utility model to adopt various modifications of the inventive method concept and technical solution, or to apply the inventive concept and technical solution to other fields without modification.

Claims (10)

1. The utility model provides a high bearing, low-cost building door and window are with sliding support, include with building door and window frame fixed connection's end rail, with building door and window fixed connection's trailing arm, locate the end rail with atress arm, guiding arm between the trailing arm, its characterized in that:
the bottom rail is made of aluminum alloy;
the surface of the bottom rail is provided with a bottom groove, a sliding block sliding along the bottom groove is arranged in the bottom groove, the sliding block is hinged with the inner end of the guide arm, and the outer end of the guide arm is hinged with one end of the bearing arm;
the stress arm comprises a first stress arm and a second stress arm, the other end of the bottom rail is hinged to the first stress arm and the second stress arm, the other end of the first stress arm and the other end of the second stress arm are hinged to the other end of the bearing arm, and therefore the bearing arm, the first stress arm, the bottom rail and the second stress arm are sequentially connected to form a four-link structure.
2. The high load-bearing, low cost sliding support for building doors and windows according to claim 1 wherein the cross section of the bottom groove is of a concave shape, the cross section of the sliding block is of an i-shape, and the bottom cross beam of the sliding block is sleeved inside the bottom groove.
3. The high load-bearing, low cost sliding support for building doors and windows according to claim 2 wherein the bottom channel extends from one end of the bottom rail to the other end and one end of the second force-receiving arm is hinged to the bottom channel.
4. The high load-bearing, low cost sliding support for building doors and windows of claim 1 wherein a reinforcing wall is further provided on the upper side of the bottom rail, one end of the first stressed arm being hinged to the reinforcing wall.
5. The high load-bearing, low cost sliding support for building doors and windows of claim 1 wherein the length of the first force-receiving arm is less than the length of the second force-receiving arm, and the length of the second force-receiving arm is less than the length of the guide arm.
6. The high-load-bearing low-cost sliding support for building doors and windows according to claim 5, wherein the hinge joint of the second force-receiving arm and the bottom rail is located between the hinge joint of the first force-receiving arm and the bottom rail and the sliding block, and the hinge joint of the second force-receiving arm and the bearing arm is located between the hinge joint of the first force-receiving arm and the bearing arm and the hinge joint of the guide arm and the bearing arm.
7. The high-load-bearing low-cost sliding support for building doors and windows according to claim 1, wherein a convex limiting angle is arranged on the outer side of the first force-bearing arm, so that when the sliding support for building doors and windows is closed, the limiting angle is abutted against a limiting edge of the bottom rail, and an edge line of the limiting angle forms an acute included angle with a connecting line of two hinged positions of the first force-bearing arm.
8. The high load bearing, low cost sliding support for building doors and windows of claim 1 wherein the support arms are provided with clamping blocks for securing the sides of the doors and windows.
9. The high load bearing, low cost sliding support for building doors and windows of claim 8 wherein the lower end of the clamping block is connected to the support arm by a support post.
10. The high load bearing, low cost sliding support for building doors and windows according to claim 9 wherein the support post is coaxial with the articulation of the first load bearing arm on the support arm.
CN202123087095.XU 2021-12-09 2021-12-09 High-bearing low-cost sliding support for building doors and windows Active CN216617235U (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN202123087095.XU CN216617235U (en) 2021-12-09 2021-12-09 High-bearing low-cost sliding support for building doors and windows

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN202123087095.XU CN216617235U (en) 2021-12-09 2021-12-09 High-bearing low-cost sliding support for building doors and windows

Publications (1)

Publication Number Publication Date
CN216617235U true CN216617235U (en) 2022-05-27

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ID=81700822

Family Applications (1)

Application Number Title Priority Date Filing Date
CN202123087095.XU Active CN216617235U (en) 2021-12-09 2021-12-09 High-bearing low-cost sliding support for building doors and windows

Country Status (1)

Country Link
CN (1) CN216617235U (en)

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