Heat insulation double-layer hollow glass energy-saving window body

Abstract

The utility model relates to the technical field of window bodies, and discloses a heat insulation and preservation double-layer hollow glass energy-saving window body which comprises an installation frame body and a door frame, the door frame is installed above the installation frame body, the side wall of an inner cavity of the door frame is provided with two symmetrical containing grooves, and heat insulation and preservation glass is installed in the containing grooves. Two symmetrical placing notches are formed in the bottom of the door frame, the two placing notches penetrate through the upper portion of the mounting frame body, and two symmetrical sliding doors are arranged on the front side wall and the rear side wall of the mounting frame body correspondingly; and two symmetrical fixing plates are fixedly mounted in the middle of the inner cavity of the mounting frame body. Due to the fact that the gravity of the balancing weight is limited to be larger than that of the heat insulation glass, when the balancing weight is overturned to a certain degree, the upper portion of the heat insulation glass can abut against the interior of the containing groove formed in the door frame, installation is convenient, and meanwhile the energy-saving effect is achieved when the heat insulation glass is installed. The device is practical and suitable for being widely popularized and used.

Description

Technical Field

[0001] The utility model belongs to the technical field of windows, and in particular relates to a heat-insulating double-layer hollow glass energy-saving window. Background Art

[0002] As one of the important links in the building operation process, the door and window system is not only related to the overall visual effect, but also puts forward deep requirements for the comfort and warmth of the room. The comfort and warmth of the room are reflected in the requirements for the insulation and heat preservation of the doors and windows. In order to achieve the required insulation and heat preservation effect, some doors and windows will be designed as double-layer hollow glass doors and windows, that is, two layers of spaced glass are installed on the window frame to achieve double-layer insulation and heat preservation effects, so that the room can be quickly cooled or heated. In this way, while achieving comfort and warmth, it also achieves the purpose of energy saving and environmental protection.

[0003] However, when installing heat-insulating double-layer hollow glass energy-saving windows, most of them are installed by glass glue. However, when installing, the glass often needs to be clamped in the door frame first, which is often troublesome for novices. In addition, when installing with glass glue, the viscosity of the glass glue is easily affected by external factors, causing the glass to loosen, which is easy to cause safety hazards.

[0004] In view of this, the present utility model is proposed. Utility Model Content

[0005] In order to solve the above technical problems, the basic concept of the technical solution adopted by the utility model is:

[0006] A heat-insulating double-layer hollow glass energy-saving window, comprising an installation frame and a door frame, wherein the door frame is installed above the installation frame, and the inner cavity side walls of the door frame are each provided with two mutually symmetrical placement grooves, and the heat-insulating glass is installed in the placement grooves, and the bottom of the door frame is provided with two mutually symmetrical placement notches, and the two placement notches run through the top of the installation frame, and the front and rear side walls of the installation frame are respectively provided with two mutually symmetrical sliding doors;

[0007] Two symmetrical fixing plates are fixedly installed in the middle of the inner cavity of the installation frame, and a flip mechanism is provided in the inner cavity of the installation frame. A plurality of arc-shaped slots, rectangular slots and snap-in slots that are interconnected are provided above the inner cavity of the installation frame, and a sliding mechanism is provided in the inner cavity of each rectangular slot, and a counterweight block is snap-connected in the inner cavity of each snap-in slot. When installing the thermal insulation glass, the bottom of the thermal insulation glass will be able to move downward from the placement groove opened in the door frame. When moving downward, under the action of gravity, the mounting plate will be able to move downward at one end of the thermal insulation glass with the assistance of the flipping mechanism, and the other end will move upward. The upward moving end of the mounting plate is installed with an arc rod, and the arc rod can enter the arc groove. Therefore, the arc rod can squeeze the movable plate to move with the assistance of the sliding mechanism, so that the other end of the movable plate can squeeze the counterweight block to leave the clamping groove. At this time, the counterweight block will be able to enter the mounting groove opened in the mounting plate, so that the downward moving end of the mounting plate can be turned into an upward movement. Because the counterweight block is greater than the gravity of the thermal insulation glass is limited, when it is flipped to a certain extent, the top of the thermal insulation glass will be able to rest against the placement groove opened in the door frame, making it more convenient to install.

[0008] As a preferred embodiment of the utility model, the flip mechanism includes four rotating rods, bearings are installed at both ends of the four rotating rods, and the bearings are respectively installed on the inner wall of the mounting frame and the fixing plate, and the four rotating rods are fixedly installed with a mounting plate. The installation position and components of the flip mechanism are determined.

[0009] As a preferred embodiment of the utility model, arc-shaped rods are fixedly mounted on the side walls of the four mounting plates, which are opposite to each other in the longitudinal direction, and mounting grooves are opened between the arc-shaped rods and the rotating rods on the four mounting plates, and each mounting groove and the counterweight block are adapted to each other. The installation position and opening position of the arc-shaped rod and the mounting groove are determined.

[0010] As a preferred embodiment of the utility model, the sliding mechanism includes a plurality of slide grooves, each of which is respectively opened on two opposite side walls of the inner cavity of the rectangular groove, and the two slide grooves are symmetrical to each other, and two symmetrical sliders are fixedly installed in the inner cavity of each slide groove, and a moving plate is connected to the slider. The installation position and components of the sliding mechanism are determined.

[0011] As a preferred embodiment of the present invention, inclined grooves are respectively provided at both ends of the four movable plates, and components at both ends of the movable plates are determined.

[0012] As a preferred embodiment of the utility model, ropes are installed above the four counterweights, and the other end of each rope is connected to the inner wall of the rectangular groove, ensuring that the counterweight will not fall when it moves down and can remain on the mounting plate if it does not fall into the mounting groove.

[0013] Compared with the prior art, the utility model has the following beneficial effects:

[0014] When the heat insulating glass is installed, the bottom of the heat insulating glass will be able to move downward from the placement groove opened in the door frame. When moving downward, the mounting plate will be able to move downward at one end of the heat insulating glass under the action of gravity with the assistance of the turning mechanism, and the other end will move upward. The upwardly moving end of the mounting plate is equipped with an arc rod. At this time, the arc rod can enter the arc groove. Therefore, the arc rod can squeeze the movable plate to move with the assistance of the sliding mechanism, so that the other end of the movable plate can squeeze the counterweight block to leave the clamping groove. At this time, the counterweight block can enter the mounting groove opened in the mounting plate, so that the downwardly moving end of the mounting plate can be changed to move upward. Because the counterweight block is greater than the gravity of the heat insulating glass is limited, when it is turned to a certain extent, the top of the heat insulating glass will be able to rest in the placement groove opened in the door frame, making it more convenient to install and having an energy-saving effect when installing the heat insulating glass.

[0015] The specific implementation of the utility model is further described in detail below in conjunction with the accompanying drawings. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In the attached picture:

[0017] Figure 1 It is a schematic diagram of the three-dimensional structure of the utility model;

[0018] Figure 2 This is a side view of the structure of the utility model;

[0019] Figure 3 This is a schematic diagram of the installation frame structure of the utility model;

[0020] Figure 4 This is a schematic diagram of the structure of the installation frame of the utility model in cross-section (I);

[0021] Figure 5 This is a schematic diagram of the structure of the installation frame of the utility model in cross-section (II);

[0022] Figure 6 This is a schematic diagram of the structure of the installation frame of the utility model in cross-section (three);

[0023] Figure 7This is a schematic diagram of the structure of the installation frame of the utility model in cross-section (four);

[0024] Figure 8 It is a schematic diagram of the local structure of the utility model at A;

[0025] Fig. 9 It is a schematic diagram of the local structure of B of the utility model.

[0026] In the figure: 1. Installation frame; 2. Door frame; 3. Heat-insulating glass; 4. Placement groove; 5. Sliding door; 6. Placement notch; 7. Bearing; 8. Turn rod; 9. Installation plate; 10. Fixed plate; 11. Arc notch; 12. Snap-in notch; 13. Arc rod; 14. Installation groove; 15. Rectangular groove; 16. Counterweight; 17. Moving plate; 18. Rope; 19. Slide groove; 20. Slider. DETAILED DESCRIPTION

[0027] In order to make the purpose, technical scheme and advantages of the embodiments of the utility model clearer, the technical scheme in the embodiments will be clearly and completely described below in conjunction with the drawings in the embodiments of the utility model. The following embodiments are used to illustrate the utility model.

[0028] like Figures 1 to 9As shown, a heat-insulating double-layer hollow glass energy-saving window body comprises an installation frame 1 and a door frame 2, the door frame 2 is installed on the top of the installation frame 1, the inner cavity side walls of the door frame 2 are provided with two mutually symmetrical placement grooves 4, and the placement grooves 4 are provided with heat-insulating glass 3, the bottom of the door frame 2 is provided with two mutually symmetrical placement slots 6, the two placement slots 6 pass through the top of the installation frame 1, and the front and rear side walls of the installation frame 1 are respectively provided with two mutually symmetrical sliding doors 5; two mutually symmetrical fixing plates 10 are fixedly installed in the middle of the inner cavity of the installation frame 1, the inner cavity of the installation frame 1 is provided with a flip mechanism, a plurality of mutually interpenetrating arc slots 11, rectangular slots 15 and snap-in slots 12 are provided on the top of the inner cavity of the installation frame 1, each rectangular slot 15 is provided with a sliding mechanism, and each snap-in slot 12 is provided with a counterweight block 16 snap-connected in the inner cavity. When installing the heat-insulating glass 3, the bottom of the heat-insulating glass 3 will be able to move downward from the placement slot 6 opened in the door frame 2. When moving downward, under the action of gravity, the mounting plate 9 will be able to move downward at one end of the heat-insulating glass 3 with the assistance of the flipping mechanism, and the other end will move upward. The end of the mounting plate 9 that moves upward is installed with an arc rod 13. At this time, the arc rod 13 can enter the arc slot 11. Therefore, at this time, the arc rod 13 will be able to squeeze the movable plate 17 to move with the assistance of the sliding mechanism, so that the other end of the movable plate 17 can squeeze the counterweight block 16 to leave the clamping slot 12. At this time, the counterweight block 16 will be able to enter the mounting groove 14 opened on the mounting plate 9, so that the end of the mounting plate 9 that moves downward can be changed to move upward. Because the counterweight block 16 is greater than the gravity of the heat-insulating glass 3 is limited, when it is flipped to a certain extent, the top of the heat-insulating glass 3 will be able to rest against the placement slot 4 opened in the door frame 2, making it more convenient to install.

[0029] In a specific embodiment, the flip mechanism includes four rotating rods 8, bearings 7 are respectively installed at both ends of the four rotating rods 8, and the bearings 7 are respectively installed on the inner wall of the mounting frame 1 and the fixing plate 10, and the mounting plates 9 are fixedly installed on the four rotating rods 8. In this setting, the installation position and components of the flip mechanism are determined.

[0030] Furthermore, the four mounting plates 9 are fixedly mounted with arc rods 13 on the side walls opposite to each other in the longitudinal direction, and the four mounting plates 9 are provided with mounting grooves 14 between the arc rods 13 and the rotating rods 8, and each mounting groove 14 is mutually adapted with the counterweight 16. In this configuration, the mounting position and the opening position of the arc rods 13 and the mounting grooves 14 are determined.

[0031] Furthermore, the sliding mechanism includes a plurality of slide grooves 19, each of which is respectively opened on two opposite side walls of the inner cavity of the rectangular groove 15, and the two slide grooves 19 are symmetrical to each other, and two symmetrical sliders 20 are fixedly installed in the inner cavity of each slide groove 19, and the sliders 20 are connected to the moving plate 17. In this setting, the installation position and components of the sliding mechanism are determined.

[0032] Furthermore, inclined grooves are respectively provided at both ends of the four movable plates 17. In this configuration, components at both ends of the movable plates 17 are determined.

[0033] Further, ropes 18 are installed above the four counterweights 16, and the other end of each rope 18 is connected to the inner wall of the rectangular groove 15. In this arrangement, it is ensured that the counterweight 16 will not fall when it does not fall into the mounting groove 14 when it moves downward, and can still be located on the mounting plate 9.

[0034] The implementation principle of a heat-insulating double-layer hollow glass energy-saving window of the present embodiment is as follows: first, by installing the heat-insulating glass 3 in the installation frame 1, during installation, the bottom of the heat-insulating glass 3 will be able to move downward from the placement slot 6 opened in the door frame 2, and when moving downward, it will be able to allow the installation plate 9 to move downward at one end of the heat-insulating glass 3 under the action of gravity with the assistance of the flip mechanism, and the other end to move upward, and the upward moving end of the installation plate 9 is installed with an arc rod 13, at this time the arc rod 13 can enter the arc slot 11, so at this time the arc rod 13 will be able to squeeze the moving plate 17 to move with the assistance of the sliding mechanism, so that The other end of the movable plate 17 squeezes the counterweight 16 to leave the snap-in slot 12. At this time, the counterweight 16 will be able to enter the mounting slot 14 opened on the mounting plate 9 (the gravity of the counterweight 16 is greater than the gravity of the thermal insulation glass 3). Therefore, the end of the mounting plate 9 that moves downward can be changed to move upward. Because the gravity of the counterweight 16 is greater than the thermal insulation glass 3 is limited, when it is flipped to a certain extent, the top of the thermal insulation glass 3 will be able to rest in the placement slot 4 opened on the door frame 2, making it more convenient during installation. And through the setting of the sliding door 5, the staff can open the sliding door 5 and take out the counterweight 16, so it is easy to disassemble the thermal insulation glass 3.

Claims

1. A heat-insulating double-layer hollow glass energy-saving window, comprising a mounting frame (1) and a door frame (2), characterized in that: A door frame (2) is installed above the installation frame (1), and the inner cavity side walls of the door frame (2) are provided with two mutually symmetrical placement grooves (4), and the placement grooves (4) are provided with heat-insulating glass (3). The bottom of the door frame (2) is provided with two mutually symmetrical placement notches (6), and the two placement notches (6) penetrate the top of the installation frame (1). The front and rear side walls of the installation frame (1) are respectively provided with two mutually symmetrical sliding doors (5); Two mutually symmetrical fixing plates (10) are fixedly installed in the middle of the inner cavity of the installation frame (1); the inner cavity of the installation frame (1) is provided with a flip mechanism; a plurality of mutually interpenetrating arc-shaped slots (11), rectangular slots (15) and snap-on slots (12) are provided above the inner cavity of the installation frame (1); a sliding mechanism is provided in the inner cavity of each rectangular slot (15); and a counterweight block (16) is snap-connected in the inner cavity of each snap-on slot (12).

2. The heat-insulating double-layer hollow glass energy-saving window according to claim 1, characterized in that: The turning mechanism comprises four rotating rods (8), both ends of the four rotating rods (8) are respectively installed with bearings (7), and the bearings (7) are respectively installed on the inner wall of the installation frame (1) and the fixed plate (10), and the four rotating rods (8) are all fixedly installed with a mounting plate (9).

3. The heat-insulating double-layer hollow glass energy-saving window according to claim 2, characterized in that: The four mounting plates (9) are fixedly mounted with arc-shaped rods (13) on two longitudinally opposite side walls, and the four mounting plates (9) are provided with mounting grooves (14) between the arc-shaped rods (13) and the rotating rods (8), and each mounting groove (14) and the counterweight block (16) are mutually adapted.

4. The heat-insulating double-layer hollow glass energy-saving window according to claim 1, characterized in that: The sliding mechanism comprises a plurality of slide grooves (19), each of which is respectively arranged on two opposite side walls of the inner cavity of the rectangular groove (15), and the two slide grooves (19) are symmetrical to each other. Two symmetrical sliding blocks (20) are fixedly installed in the inner cavity of each slide groove (19), and a movable plate (17) is connected to the sliding block (20).

5. The heat-insulating double-layer hollow glass energy-saving window according to claim 4, characterized in that: Both ends of the four movable plates (17) are respectively provided with inclined grooves.

6. The heat-insulating double-layer hollow glass energy-saving window according to claim 1, characterized in that: Ropes (18) are installed above the four counterweight blocks (16), and the other end of each rope (18) is connected to the inner wall of the rectangular groove (15).

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