CN118564173A - A production method of a built-in sunshade hollow glass product and a built-in sunshade product - Google Patents

Abstract

The present invention discloses a production method of a built-in sunshade hollow glass product and a built-in sunshade product, and relates to the technical field of built-in sunshade products. The production method of the built-in sunshade hollow glass product comprises the following steps: interconnecting a main body connecting frame and a spacer frame, fixing the sunshade main body assembly in the main body connecting frame to form a first whole, and completing the glass closing operation; the main body connecting frame is provided with a snap-fitting convex edge, and the spacer frame is provided with an insertion groove, and the snap-fitting convex edge is inserted into the insertion groove to connect the first whole with the spacer frame; the spacer frame is formed by a bending process and/or a cutting process and/or a stamping process, or a plurality of spacers are connected to each other by connecting corner blocks to form the spacer frame. The built-in sunshade product is manufactured using the production method of the built-in sunshade hollow glass product as described above. The use of the present invention can simplify the production process, facilitate processing, and improve product quality.

Description

A production method of a built-in sunshade hollow glass product and a built-in sunshade product

Technical Field

The invention relates to the technical field of built-in sunshade products, and in particular to a production method of a built-in sunshade hollow glass product and a built-in sunshade product.

Background Art

Built-in sunshade hollow glass products such as built-in sunshade hollow glass doors and windows are a common home decoration product. The hollow built-in sunshade hollow glass is a new type of built-in sunshade hollow glass in which the sunshade body is installed in the hollow glass cavity. While being able to achieve full light transmission, semi-transmission or light shielding, it also achieves good waterproof, dustproof and sound insulation effects. The built-in sunshade hollow glass doors and windows are usually provided with a hollow cavity filled with inert gas. In order to keep the gas dry, it is necessary to place a molecular sieve for moisture absorption in the partition strips of the hollow built-in sunshade hollow glass doors and windows. The existing hollow built-in sunshade hollow glass doors and windows are provided with a frame portion connected to the sunshade body and an integrally fixed partition strip portion, wherein the frame portion and the partition strip portion are an integrally formed structure, and the molecular sieve is arranged in the partition strip portion. Before the glass is combined, the sunshade body needs to be connected to the frame portion.

This structure first requires processing of air holes on the inner side of the partition bar. Processing inner holes in an integrated structure requires a complex process, and it is not easy to fill the partition bar with molecular sieves. In addition, the frame part needs to be sprayed with paint, and the integrated setting allows the partition bar to be colored at the same time. After coloring, after subsequent gluing, the paint or powder surface of the partition bar has poor adhesion to the glue, which can easily lead to sealing problems. The surface of the partition bar is also easily scratched during transportation, affecting the appearance. In addition, after the sunshade body is installed, the partition bar is glued, which can easily dirty the sunshade body. Therefore, the production process of existing built-in sunshade hollow glass products is relatively complicated, not easy to process, and easily affects product quality. The structure of existing built-in sunshade hollow glass products is relatively complicated and not convenient for production and installation.

Summary of the invention

The technical problem to be solved by the present invention is to provide a built-in sunshade hollow glass, which can simplify the production process, facilitate processing, and improve product quality.

On the one hand, in order to solve the above technical problems, the present invention provides a method for producing a built-in sunshade insulating glass product, comprising the following steps:

Connect the main connecting frame and the spacer frame to each other.

Before the main body connection frame and the spacer frame are connected to each other, the sunshade main body assembly is fixed in the main body connection frame to form a first whole; or

After the main body connection frame and the spacer frame are connected to each other, the sunshade main body assembly is fixed in the main body connection frame; or

The operation of fixing the sunshade main body assembly in the main body connecting frame to form a first whole is completed simultaneously with the operation of connecting the main body connecting frame and the spacer frame to each other;

Complete the glass closing operation.

As an improvement of the above solution, the step of connecting the main body connecting frame and the spacer frame to each other includes:

The side portion of the main body connecting frame is connected to the side portion of the spacer frame.

As an improvement of the above solution, the step of connecting the main body connecting frame and the spacer frame to each other further includes:

The main body connecting frame is provided with a buckling convex edge, and the spacer frame is provided with an inserting groove, and the buckling convex edge is inserted into the inserting groove to connect the main body connecting frame with the spacer frame.

As an improvement of the above solution, the glass bonding operation includes the following steps:

A first adhesive is applied to the side of the spacer frame, and after the spacer frame is attached to the first glass, the main connecting frame or the first integral body is connected to the spacer frame.

As an improvement of the above solution, the glass bonding operation further includes the following steps:

After the first whole and the spacer frame are connected to form a second whole, a first adhesive is applied to a side of the second whole opposite to the first glass, and then a second glass is attached to a side of the second whole opposite to the first glass.

As an improvement of the above solution, the glass bonding operation further includes the following steps:

The first whole and the spacer frame are connected to form a second whole, and then the first adhesive is applied to both sides of the second whole, and then the first glass and the second glass are attached to both sides of the second whole.

As an improvement to the above scheme, the following steps are also included:

The spacer frame is formed by a bending process and/or a cutting process and/or a punching process; or

The partition bar frame is formed by connecting a plurality of partition bars to each other through connecting corner blocks;

The absorbent member is placed in the spacer or the spacer frame.

As an improvement to the above scheme, the following steps are also included:

The main body connecting frame includes a single connecting profile, and the sunshade main body assembly is fixed in the connecting profile to form the first integral body; or

The main body connecting frame includes two or more connecting profiles, the connecting profiles are connected to each other, and the sunshade main body assembly is fixed in the connecting profiles to form the first whole.

As an improvement to the above scheme, the following steps are also included:

After the glazing operation is completed, a second adhesive is applied to the edge of the formed built-in sunshade insulating glass product.

On the other hand, in order to solve the above-mentioned technical problems, the present invention also discloses a built-in sunshade product, which is manufactured using the production method of the built-in sunshade hollow glass product as described above, and includes a main connecting frame, a partition frame and a sunshade main body assembly, wherein the sunshade main body assembly includes a sunshade main body curtain, and the sunshade main body curtain is connected to the main connecting frame.

The spacer frame is provided with an installation space, and the main body connecting frame can be inserted into the installation space;

The main body connecting frame comprises a connecting profile, and the connecting profile is connected to the sunshade main body curtain.

As an improvement of the above solution, a plug-in slot is provided on one side of the partition bar frame, the slot opening of the plug-in slot faces the outside of the partition bar, and a snap-fitting convex edge is provided on the side of the main connecting frame, and the snap-fitting convex edge can be inserted into the plug-in slot.

As an improvement of the above solution, the spacer frame is made by a bending process and/or a cutting process and/or a stamping process; or

The partition bar frame includes a partition bar and a connecting corner block, the connecting corner block is provided with two connecting ends, a through storage hole is provided in the partition bar, two adjacent partition bars are connected by the connecting corner block, and the connecting end can be inserted into the storage hole from the end of the partition bar.

As an improvement of the above solution, an anti-slip mechanism is provided on the connecting end, and the anti-slip mechanism is arranged between the connecting end and the receiving hole to prevent the connecting end from slipping out of the receiving hole.

As an improvement of the above solution, the anti-detachment mechanism includes an anti-detachment device, and the anti-detachment device is arranged between the surface of the connection end and the inner wall of the storage hole; and/or

The anti-drop mechanism comprises an elastic structure, which is arranged on the connecting end and protrudes from the side wall of the connecting end, and the end of the elastic structure can abut against the inner wall of the receiving hole.

As an improvement of the above-mentioned solution, a limit plate is provided on the bottom side of the plug-in slot, and an inward-concave limit slot is provided on the edge of the limit plate close to the snap-fitting convex edge, and an outward-convex positioning block is provided below the snap-fitting convex edge, and the position of the positioning block corresponds to the position of the limit slot, and the positioning block can be inserted into the limit slot.

As an improvement of the above-mentioned scheme, the limit groove includes a limit intersection line and a first limit slope and a second limit slope respectively arranged on both sides of the limit intersection line, the first limit slope and the second limit slope are respectively inclined toward both sides from the limit intersection line, and the limit intersection line is inclined upward from the side close to the snap-fitting protrusion to the side away from the snap-fitting protrusion.

The positioning block includes a positioning intersection line and a first positioning bevel and a second positioning bevel respectively arranged on both sides of the positioning intersection line. The first positioning bevel and the second positioning bevel are respectively inclined toward both sides from the positioning intersection line. The positioning intersection line is inclined downward from a side close to the limiting groove to a side away from the limiting groove, and the positioning intersection line can abut against the limiting intersection line.

As an improvement of the above scheme, the partition bar includes a plug-in side and a back side that are arranged oppositely, the plug-in groove is arranged on the plug-in side, an upper limit bar and a lower limit bar are arranged in the plug-in groove, and the buckling flange can be inserted between the upper limit bar and the lower limit bar.

As an improvement of the above solution, the main body connecting frame is made of aluminum alloy and/or stainless steel and/or plastic and/or wood material.

As an improvement of the above solution, the spacer frame is made of aluminum alloy and/or stainless steel and/or plastic and/or wood material.

The implementation of the present invention has the following beneficial effects:

The production method of the built-in sunshade hollow glass product of the present invention is to set the main body connection frame and the spacer frame separately. Before or when the glass is combined, the sunshade main body assembly is fixed in the main body connection frame. The main body connection frame can form a whole with the spacer frame. Therefore, the main body connection frame and the spacer frame can be processed separately. The main body connection frame and the spacer frame can be set with a simple structure. At the same time, it is also relatively simple to process the air holes of the spacer frame separately. The main body connection frame can be sprayed with color separately, and the surface of the spacer frame can be separately provided with an oxide layer to avoid surface scratches, and to avoid the paint or powder surface affecting the adhesive sealing of the spacer frame. Before installing the sunshade main body assembly or the first whole, the spacer frame can be glued first, so that the sunshade main body assembly will not be dirty. At the same time, a breathable gap can be formed between the separated spacer frame and the main body connection frame, which is more convenient for the hygroscopic component to absorb the moisture of the hollow glass. Therefore, the production method of the built-in sunshade hollow glass product of the present invention simplifies the production process, facilitates processing, and can improve product quality.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG1 is a schematic diagram of the disassembled structure of a built-in sunshade insulating glass product of the present invention;

FIG2 is a schematic diagram of a partially split structure of a built-in sunshade insulating glass product of the present invention from a first viewing angle;

FIG3 is a schematic diagram of a partially disassembled structure of a built-in sunshade insulating glass product of the present invention from a second viewing angle;

FIG4 is a schematic structural diagram of a second overall structure of the present invention;

5 is a schematic cross-sectional view of the anti-slip mechanism of the present invention;

FIG6 is a schematic cross-sectional view of the connecting corner block of the present invention;

7 is a schematic structural diagram of the limiting groove of the present invention;

FIG8 is a schematic structural diagram of a positioning block of the present invention;

FIG. 9 is a schematic flow diagram of the production method of the present invention.

DETAILED DESCRIPTION

In order to make the purpose, technical solution and advantages of the present invention clearer, the present invention will be further described in detail below with reference to the accompanying drawings. It is hereby stated that the directional terms such as up, down, left, right, front, back, inside, outside, etc. that appear or will appear in the text of the present invention are only based on the accompanying drawings of the present invention, and are not specific limitations of the present invention.

1 and 9 , an embodiment of the present invention discloses a method for producing a built-in sunshade insulating glass product, comprising the following steps:

S01, connecting the main body connecting frame 1 and the spacer frame 2 to each other;

S02, before the main body connecting frame 1 and the partition frame 2 are connected to each other, the sunshade main body assembly 3 is fixed in the main body connecting frame 1 to form a first whole 4; or after the main body connecting frame 1 and the partition frame 2 are connected to each other, the sunshade main body assembly 3 is fixed in the main body connecting frame 1; or the operation of fixing the sunshade main body assembly 3 in the main body connecting frame 1 to form a first whole 4 and the operation of connecting the main body connecting frame 1 and the partition frame 2 are completed simultaneously.

S03, completing the glass closing operation.

The built-in sunshade hollow glass products include built-in sunshade hollow glass, built-in sunshade hollow glass doors, and built-in sunshade hollow glass windows. The hollow glass of the built-in sunshade hollow glass products forms a sandwich, which has good heat insulation and noise reduction performance. The main body connecting frame 1 is used to connect the sunshade main body component 3. The main body connecting frame 1 forms a connecting transition structure between the sunshade main body component 3 and the spacer frame 2. The spacer frame 2 is provided with a hygroscopic component that can absorb water vapor in the built-in sunshade hollow glass product. The hygroscopic component can be a material that absorbs moisture, such as molecular sieve, silica gel, activated carbon, etc.

The main body connecting frame 1 can be connected with the sunshade main body assembly 3. The sunshade main body assembly 3 can only have a sunshade body such as a blind, or it can also include a sunshade body and related mechanisms such as a pull rope mechanism and a lifting mechanism to control the flipping and lifting of the sunshade body. In the above process, the order of assembling the sunshade main body assembly 3 and the main body connecting frame 1 is not limited. It can be before the main body connecting frame 1 and the partition frame 2 are connected to each other, or after the main body connecting frame 1 and the partition frame 2 are connected to each other. By reasonably setting the assembly position, it can also be carried out at the same time as the process of connecting the main body connecting frame 1 and the partition frame 2. That is, in different embodiments, the node where the sunshade main body assembly 3 and the main body connecting frame 1 are installed can be arranged at the same time as the connection between the main body connecting frame 1 and the partition frame 2, or it can be arranged before or after the connection between the main body connecting frame 1 and the partition frame 2.

The sunshade main body component 3 is fixed in the main body connecting frame 1 to form a first integral body 4, and the main body connecting frame 1 and the partition frame 2 are separately arranged, so that the main body connecting frame 1 and the partition frame 2 can be separately processed, so that the air holes in the partition frame 2 are easy to process and can be oxidized separately. When the main body connecting frame 1 is sprayed with color, it will not affect the surface of the partition frame 2, and the paint or powder surface will not affect the adhesive sealing of the partition frame 2. At the same time, since the partition frame 2 and the sunshade main body component 3 can be separated, the glue on the partition frame 2 will not dirty the sunshade main body component 3 when gluing. At the same time, a breathable gap can be formed between the separated partition frame 2 and the main body connecting frame 1, which makes it more convenient for the hygroscopic component to absorb moisture in the hollow glass.

The operation of combining the glasses can be performed simultaneously with the operation of connecting the main connecting frame 1 and the spacer frame 2 and/or the operation of fixing the sunshade main body assembly 3 in the main connecting frame 1 to form a first whole 4.

The beneficial effects of the production method of the built-in sunshade insulating glass product of the present invention are as follows:

By separately setting the main connecting frame 1 and the partition frame 2, the sunshade main body assembly 3 is fixed in the main connecting frame 1 before or when the glass is closed, and the main connecting frame 1 can form a whole with the partition frame 2. Therefore, the main connecting frame 1 and the partition frame 2 can be processed separately, and the main connecting frame 1 and the partition frame 2 can be set with a simple structure. At the same time, it is also relatively simple to process the air holes of the partition frame 2 separately. The main connecting frame 1 can be sprayed with color separately, and the surface of the partition frame 2 can be separately provided with an oxide layer to avoid surface scratches, and to avoid the paint or powder surface affecting the adhesive sealing of the partition frame 2. Before installing the sunshade main body assembly 3 or the first whole 4, the partition frame 2 can be glued first, so that the sunshade main body assembly 3 will not be dirty. At the same time, a breathable gap can be formed between the separated partition frame 2 and the main connecting frame 1, which makes it more convenient for the hygroscopic component to absorb moisture from the hollow glass. Therefore, the production method of the built-in sunshade hollow glass product of the present invention simplifies the production process, facilitates processing, and can improve product quality.

The step of connecting the main connecting frame 1 and the spacer frame 2 to each other includes:

The side of the main connecting frame 1 is connected to the side of the spacer frame 2 .

The separate main body connecting frame 1 or the main body connecting frame 1 in the first whole 4 is connected to the strip frame 2 by connecting the sides. The side of the main body connecting frame 1 can be the outer side of the frame body or the inner side of the frame body, and the side of the strip frame 2 can be the inner side or the outer side.

Specifically, referring to FIG. 2 , the step of connecting the main connecting frame 1 and the spacer frame 2 to each other includes:

The main body connection frame 1 is provided with a buckling convex edge, and the spacer frame 2 is provided with an insertion groove, and the buckling convex edge is inserted into the insertion groove to connect the main body connection frame 1 with the spacer frame 2.

By utilizing the snap-fitting protrusion and the plug-in groove, the main connecting frame 1 and the partition frame 2 can be connected together. During installation, no matter whether the main connecting frame 1 has been connected to form the first integral body 4, it is only necessary to insert the main connecting frame 1 from the side of the partition frame 2, or to insert the partition frame 2 from the side of the main connecting frame 1 to complete the connection. The plug-in groove can constitute a limiting and guiding structure for the snap-fitting protrusion, which can facilitate the insertion of the snap-fitting protrusion, and thus the connection process is simple and convenient.

The glass bonding operation comprises the following steps:

The first adhesive is applied to the side of the spacer frame 2, and after the spacer frame 2 is attached to the first glass, the main connecting frame 1 or the first integral body 4 is connected to the spacer frame 2. The material of the first adhesive is not limited, and generally butyl adhesive can be used, which has strong adhesion and can effectively prevent water vapor penetration.

There are two steps in the operation of combining glasses, and the two steps are to paste the first glass and the second glass respectively. When pasting the first glass, the following implementation scheme can be adopted: first paste the first glass to one side of the spacer frame 2. If the main connecting frame 1 has not formed the first whole 4 with the sunshade main body component 3 at this time, after pasting the first glass, the main connecting frame 1 and the spacer frame 2 are connected to each other, and then the sunshade main body component 3 is installed in the main connecting frame 1 to form the first whole 4; if the main connecting frame 1 has formed the first whole 4 with the sunshade main body component 3 at this time, then the first whole 4 is connected to the spacer frame 2.

Referring to FIG. 4 , after the connection of the first glass is completed, the glass bonding operation further includes the following steps:

After the first whole 4 and the spacer frame 2 are connected to form a second whole 5, a first adhesive is applied to the side of the second whole 5 opposite to the first glass, and then a second glass is attached to the side of the second whole 5 opposite to the first glass.

Regardless of the order of pasting the first glass, the main connecting frame 1 and the sunshade main assembly 3 forming the first whole 4, and the main connecting frame 1 and the partition frame 2 being connected to each other, the pasting of the second glass needs to be carried out after the first whole 4 and the partition frame 2 are connected to each other to form the second whole 5.

In addition, the glass bonding operation further comprises the following steps:

The first whole 4 and the spacer frame 2 are connected to each other to form a second whole 5, and then the first adhesive is applied to both sides of the second whole 5, and then the first glass and the second glass are attached to both sides of the second whole 5 respectively.

Different from the other embodiments mentioned above in which the first glass is pasted first, in this step, the first whole 4 and the spacer frame 2 are first connected to each other to form a second whole 5, and then the first glass and the second glass are pasted on both sides of the second whole 5 respectively.

Therefore, there is no obvious sequence limitation among the glass closing operation, the operation of forming the first integral body 4 with the main connecting frame 1 and the sunshade main body assembly 3, and the operation of connecting the main connecting frame 1 and the spacer frame 2 to each other.

Among them, in all the above embodiments, the strip frame 2 can be made by bending and/or cutting and/or stamping, that is, by a combination of one or more processes of bending, cutting and stamping, or can be formed by connecting multiple strips 21 to each other through connecting corner blocks 22, and the hygroscopic component can be placed before or after the strip frame 2 is formed. If the strip frame 2 is formed by bending and/or cutting and/or stamping, the hygroscopic component is placed in the strip frame 2. If the strip frame 2 is formed by connecting multiple strips 21 to each other through connecting corner blocks 22, the hygroscopic component is placed in the strip frame 2, or after the strip frame 2 is connected to form, the hygroscopic component is placed in the strip frame 2. The hygroscopic component can be a material that absorbs moisture, such as molecular sieve, silica gel, activated carbon, etc.

In addition, referring to Figure 1, the main connecting frame 1 includes a single connecting profile 11, and the sunshade main body component 3 is fixed in the connecting profile 11 to form the first whole 4; or the main connecting frame 1 includes two or more connecting profiles 11, the connecting profiles 11 are interconnected, and the sunshade main body component 3 is fixed in the connecting profile 11 to form the first whole 4.

The main body connection frame 1 can be composed of a single connection profile 11, so that the sunshade main body component 3 is fixed in the single connection profile 11 to form the first whole 4. The main body connection frame 1 can be composed of two or more connection profiles 11, and the connection profiles 11 are connected to each other. The sunshade main body component 3 can be fixed on one of the connection profiles 11 or connected to multiple connection profiles 11 at the same time to form the first whole 4.

After the glass bonding operation is completed, after the first glass and the second glass are both pasted, a second adhesive is applied to the edge of the formed built-in sunshade insulating glass product, and the second adhesive can further seal the edge of the formed built-in sunshade insulating glass product. The second adhesive can be a single-component adhesive or a two-component adhesive, and commonly used materials can be silicone structural sealant, polysulfide sealant, etc.

Referring to Fig. 1, Fig. 2 and Fig. 3, the present invention also discloses a built-in sunshade product manufactured by the production method of the built-in sunshade hollow glass product, comprising a main body connecting frame 1, a spacer frame 2 and a sunshade main body assembly 3, wherein the sunshade main body assembly 3 comprises a sunshade main body curtain 31, and the sunshade main body curtain 31 is connected to the main body connecting frame 1. An installation space 27 is provided in the spacer frame 2, and during installation, the main body connecting frame 1 can be inserted into the installation space 27, and the installation can be made more convenient by plugging and mounting, and the main body connecting frame 1 comprises a connecting profile 11, and the connecting profile 11 is connected to the sunshade main body curtain 31.

The built-in sunshade products include built-in sunshade hollow glass, built-in sunshade hollow glass doors, and built-in sunshade hollow glass windows. The hollow glass of the built-in sunshade hollow glass products forms an interlayer, which has good heat insulation and noise reduction performance. The main body connecting frame 1 is used to connect the sunshade main body component 3. The main body connecting frame 1 forms a connecting transition structure between the sunshade main body component 3 and the partition frame 2. The partition frame 2 is provided with moisture absorbing parts such as molecular sieves, which can absorb moisture in the built-in sunshade hollow glass products. The main body connecting frame 1 can be connected to the sunshade main body component 3. The sunshade main body component 3 can only have a sunshade main body such as blinds, or it can also include a sunshade main body and related mechanisms for controlling the sunshade main body to flip and lift, such as a pull rope mechanism and a lifting mechanism.

The beneficial effects of the built-in sunshade product of the present invention are as follows:

The built-in sunshade product of the embodiment of the present invention is provided with a main body connecting frame 1, a spacer frame 2 and a sunshade main body assembly 3. The spacer frame 2 is separately arranged from the main body connecting frame 1. During processing, the spacer frame 2 and the main body connecting frame 1 can be processed separately. After being separately arranged, the spacer frame 2 and the main body connecting frame 1 have simple structures and can be sprayed with paint separately without affecting the subsequent gluing operation. Molecular sieves can also be filled separately. In addition, the spacer frame 2 and the main body connecting frame 1 can easily form a breathable gap, which is more convenient for the hygroscopic component to absorb moisture from the hollow glass. During installation, it is only necessary to insert the main body connecting frame 1 and the spacer frame 2 into each other. Therefore, the built-in sunshade hollow glass of the present invention can make the structure of the spacer frame 2 and the main body connecting frame 1 simple, and is easy to process and install.

Referring to Fig. 2, a plug-in groove 212 is further provided on one side of the partition bar 21, and a snap-fitting convex edge 111 is provided on the side of the main connecting frame 1. During installation, the snap-fitting convex edge 111 only needs to be inserted into the plug-in groove 212 during the process of closing the glass, so that the connection between the main connecting frame 1 and the partition bar 21 can be achieved, and the installation is simple.

Referring to Fig. 3, the partition bar frame 2 is made by a bending process and/or a cutting process and/or a stamping process or is formed by connecting a plurality of partition bars 21 to each other through connecting corner blocks 22. The connecting corner blocks 22 are provided with two connecting ends 221, and a through receiving hole 211 is provided in the partition bar 21. Two adjacent partition bars 21 are connected by the connecting corner blocks 22, and the connecting ends 221 can be inserted into the receiving hole 211 from the ends of the partition bars 21, so that four partition bars 21 on the upper, lower, left and right sides form a frame. After being separately arranged, the partition bars 21 can be processed with air holes separately, and there is no structural obstruction of the connecting profile 11, so that the processing of the air holes is simpler, and the connecting profile 11 can be sprayed separately, and the spraying will not affect the partition bars 21, thereby not affecting the adhesion between the partition bars 21 and the adhesive, and can also avoid affecting the appearance of the partition bars 21 during transportation.

Referring to Fig. 5, an anti-slip mechanism 28 is provided on the connection end 221, and the anti-slip mechanism 28 is arranged between the connection end 221 and the receiving hole 211, and is used to prevent the connection end 221 from slipping out of the receiving hole 211. In one embodiment, the anti-slip mechanism 28 includes an anti-slip glue, and the anti-slip glue is arranged between the surface of the connection end 221 and the inner wall of the receiving hole 211. A butyl adhesive or other adhesive is applied to the connection end 221 as the anti-slip glue, and after the connection end 221 is inserted into the receiving hole 211, the anti-slip glue can prevent the connection end 221 from slipping out of the receiving hole 211. In one embodiment, the anti-slip mechanism 28 includes an elastic structure 281, which is arranged on the connecting end 221 and protrudes from the side wall of the connecting end 221. After the connecting end 221 is inserted into the receiving hole 211, the end of the elastic structure 281 can abut against the inner wall of the receiving hole 211, thereby greatly increasing the friction between the connecting end 221 and the receiving hole 211, thereby achieving an anti-slip effect. The elastic structure 281 can be an elastic thin sheet or thin rod structure. The above two embodiments can be implemented in combination.

Further, referring to FIG6, in order to better achieve the anti-slip effect, an anti-slip hole 23 is provided on the connecting end 221, and the anti-slip hole 23 runs through the connecting end 221. The setting direction of the anti-slip hole 23 is perpendicular to the length direction of the partition bar 21. The anti-slip hole 23 is provided with a first abutting surface 231 and a second abutting surface 232 that are oppositely arranged. The first abutting surface 231 is located on a side close to the partition bar 21, and the second abutting surface 232 is located on a side away from the partition bar 21. The first abutting surface 231 is a plane, and the middle part of the second abutting surface 232 protrudes toward the direction where the first abutting surface 231 is located and forms an arc surface. The first abutting surface An elastic rod 24 is provided between 231 and the second abutting surface 232, and the end of the elastic rod 24 protrudes from the side wall of the connecting end 221. The elastic rod 24 abuts against the first abutting surface 231 in the original state. After the connecting end 221 is inserted into the receiving hole 211, the elastic rod 24 bends and abuts against the second abutting surface 232. The end of the elastic rod 24 can abut against the side wall of the receiving hole 211. The elastic rod 24 is bent into the arc shape of the second abutting surface 232, which can hinder the movement of the connecting end 221, thereby preventing the connecting end 221 from escaping from the receiving hole 211, thereby achieving stable connection.

Referring to Figures 7 and 8, in order to further improve the convenience and stability of the connection between the partition frame 2 and the main body connecting frame 1, a limiting plate 25 is provided on the bottom side of the plug-in slot 212, and an edge of the limiting plate 25 on the side close to the buckling convex edge 111 is provided with a concave limiting slot 26, and the limiting slot 26 includes a limiting intersection line 261 and a first limiting inclined surface 262 and a second limiting inclined surface 263 respectively arranged on both sides of the limiting intersection line 261, and the first limiting inclined surface 262 and the second limiting inclined surface 263 are inclinedly arranged. Specifically, the first limiting inclined surface 262 and the second limiting inclined surface 263 are respectively inclined from the limiting intersection line 261. The first limiting slope 262 and the second limiting slope 263 are inclined toward both sides, specifically, upwardly inclined, and are connected to the limiting intersection line 261. Since the first limiting slope 262 and the second limiting slope 263 are inclined upwardly from the limiting intersection line 261, the limiting intersection line 261 is located at the bottom of the first limiting slope 262 and the second limiting slope 263, that is, located at a lower position between the first limiting slope 262 and the second limiting slope 263, and the limiting intersection line 261 is inclined upwardly from the side close to the snap-fitting convex edge 111 to the side away from the snap-fitting convex edge 111. A protruding positioning block 12 is provided below the buckling convex edge 111, and the position of the positioning block 12 corresponds to the position of the limiting groove 26. The positioning block 12 can be inserted along the limiting groove 26. The positioning block 12 includes a positioning intersection line 121 and a first positioning inclined surface 122 and a second positioning inclined surface 123 respectively provided on both sides of the positioning intersection line 121. The first positioning inclined surface 122 and the second positioning inclined surface 123 are connected to the positioning intersection line 121. The first positioning inclined surface 122 The second positioning bevel 123 is inclined toward both sides respectively from the positioning intersection line 121, the inclination directions of the first positioning bevel 122 and the second positioning bevel 123 respectively correspond to the inclination directions of the first limiting bevel 262 and the second limiting bevel 263, the positioning intersection line 121 is inclined downward from the side close to the limiting groove 26 to the side away from the limiting groove 26, and the inclination direction of the positioning intersection line 121 corresponds to the inclination direction of the limiting intersection line 261.

During connection, the main connecting frame 1 composed of the connecting profile 11 is inserted into the partition frame 2 composed of the partition 21, and the main connecting frame 1 is continuously pressed so that the first positioning bevel 122 abuts against the first limiting bevel 262 and/or the second positioning bevel 123 abuts against the second limiting bevel 263 to form a positioning guiding effect. Under the inclined guiding effect of the first limiting bevel 262 and/or the second limiting bevel 263, the positioning intersection line 121 can abut against the limiting intersection line 261, and then the limiting intersection line 261 can guide the positioning intersection line 121 to move. If the insertion position of the connecting profile 11 on the upper side is too high, the insertion position of the connecting profile 11 on the lower side is also too high, and the first positioning bevel 122 of the connecting profile 11 on the left and right sides will abut against the first limiting bevel 262 to form a positioning guide, so that the limiting intersection line 261 on the lower side can guide the positioning intersection line 121 to move obliquely to the lower position, thereby moving the entire main connecting frame 1 downward. If the insertion position of the connecting profile 11 on the upper side is too low, the insertion position of the connecting profile 11 on the lower side is also too low, and the second positioning bevel 123 of the connecting profile 11 on the left and right sides will abut against the second limiting bevel 263 to form a positioning guide, so that the limiting intersection line 261 on the upper side can guide the positioning intersection line 121 to move obliquely to the upper position, thereby moving the entire main connecting frame 1 upward, and the position adjustment of the left connecting profile 11 and the right connecting profile 11 is similar. By using the limiting groove 26 and the positioning block 12, the main body connecting frame 1 and the spacer frame 2 can be quickly positioned during installation, and the main body connecting frame 1 can be automatically guided to quickly move to the centering position, thereby achieving a fast and accurate installation effect.

Further, referring to FIG. 7 , the partition bar 21 includes a plug-in side 213 and a back side 214 that are arranged opposite to each other, the plug-in slot 212 is arranged on the plug-in side 213, and an upper limit bar 215 and a lower limit bar 216 are arranged in the plug-in slot 212. After the limit slot 26 guides the insertion of the main connecting frame 1, the buckling convex edge 111 can be inserted between the upper limit bar 215 and the lower limit bar 216, and the upper limit bar 215 and the lower limit bar 216 limit the buckling convex edge 111 to prevent the main connecting frame 1 from continuing to move, thereby achieving a quick fixation effect. The main connecting frame 1 is made of aluminum alloy and/or stainless steel and/or plastic and/or wood, and the partition bar frame 2 is made of aluminum alloy and/or stainless steel and/or plastic and/or wood.

The above are preferred embodiments of the present invention. It should be pointed out that, for ordinary technicians in this technical field, several improvements and modifications can be made without departing from the principles of the present invention. These improvements and modifications are also considered to be within the scope of protection of the present invention.

Claims (19)

1. The production method of the built-in sunshade hollow glass product is characterized by comprising the following steps of:

The main body connecting frame is connected with the parting bead frame;

Before the main body connecting frame and the parting bead frame are connected with each other, the sunshade main body component is fixed in the main body connecting frame to form a first whole; or alternatively

After the main body connecting frame and the parting bead frame are connected with each other, the sunshade main body component is fixed in the main body connecting frame; or alternatively

The operation of fixing the sunshade main body component in the main body connecting frame to form a first whole is completed simultaneously with the operation of connecting the main body connecting frame and the parting bead frame;

And (5) finishing the glass combination operation.

2. The method of producing a built-in sunshade hollow glass product according to claim 1, wherein the step of interconnecting the body frame with the spacer frame comprises:

the side part of the main body connecting frame is connected with the side part of the parting bead frame.

3. The method of producing a built-in sun-shading hollow glass product according to claim 1, wherein the step of interconnecting the body connecting frame and the division bar frame further comprises:

The main body connecting frame is provided with a buckling convex edge, the parting bead frame is provided with a splicing groove, and the buckling convex edge is inserted into the splicing groove so that the main body connecting frame is connected with the parting bead frame.

4. The method of producing a built-in sunshade hollow glass product according to claim 1, wherein said finishing glass-closing operation comprises the steps of:

And coating a first adhesive on the side part of the parting bead frame, attaching the parting bead frame to the first glass, and then connecting the main body connecting frame or the first whole with the parting bead frame.

5. The method of producing a built-in sunshade hollow glass product according to claim 4, wherein said finishing glass-closing operation further comprises the steps of:

After the first whole and the parting bead frame are connected with each other to form a second whole, a first adhesive is coated on the side, opposite to the first glass, of the second whole, and then the second glass is attached to the side, opposite to the first glass, of the second whole.

6. The method of producing a built-in sunshade hollow glass product according to claim 1, wherein said finishing glass-closing operation further comprises the steps of:

The first whole and the parting bead frame are connected with each other to form a second whole, then first adhesive is coated on two sides of the second whole respectively, and then first glass and second glass are attached to two sides of the second whole respectively.

7. The method for producing a built-in sunshade hollow glass product according to claim 1, further comprising the steps of:

forming the parting bead frame through a bending process and/or a cutting process and/or a stamping process; or alternatively

Connecting a plurality of parting strips with each other through connecting angle blocks to form the parting strip frame;

and a moisture absorption piece is arranged in the parting bead or the parting bead frame.

8. The method for producing a built-in sunshade hollow glass product according to claim 1, further comprising the steps of:

the main body connecting frame comprises a single connecting section bar, and the sunshade main body component is fixed in the connecting section bar to form the first whole; or alternatively

The main body connecting frame comprises two or more connecting sectional materials, the connecting sectional materials are connected with each other, and the sun-shading main body component is fixed in the connecting sectional materials to form a first whole.

9. The method for producing a built-in sunshade hollow glass product according to claim 1, further comprising the steps of:

And after the glass combining operation is finished, coating a second adhesive on the edge of the formed built-in sunshade hollow glass product.

10. A built-in sun-shading product manufactured using the method of manufacturing a built-in sun-shading hollow glass product according to any one of claims 1 to 9, comprising a body connection frame, a division bar frame and a sun-shading body assembly comprising a sun-shading body curtain connected to the body connection frame;

a mounting space is formed in the parting bead frame, and the main body connecting frame can be inserted into the mounting space;

the main body connecting frame comprises a connecting section bar, and the connecting section bar is connected with the sun-shading main body curtain.

11. The built-in sun shade product according to claim 10, wherein one side of the division bar frame is provided with a plugging groove, a notch of the plugging groove faces to the outer side of the division bar, and a buckling convex edge is arranged on the side part of the main body connecting frame and can be inserted into the plugging groove.

12. The built-in sun protection product according to claim 10, characterized in that said spacer frame is made by a bending process and/or a cutting process and/or a stamping process; or alternatively

The parting bead frame comprises parting beads and connecting angle blocks, wherein the connecting angle blocks are provided with two connecting ends, a through containing hole is formed in each parting bead, two adjacent parting beads are connected through the connecting angle blocks, and the connecting ends can be inserted into the containing holes from the end parts of the parting beads.

13. The built-in sun-shading product according to claim 12, wherein an anti-falling mechanism is provided on the connection end, and the anti-falling mechanism is provided between the connection end and the receiving hole for preventing the connection end from falling out of the receiving hole.

14. The built-in sun shade product of claim 13, wherein the anti-backup mechanism comprises an anti-backup disposed between the connection end surface and the inner wall of the receiving hole; and/or

The anti-disengaging mechanism comprises an elastic structure, the elastic structure is arranged on the connecting end and protrudes out of the side wall of the connecting end, and the end part of the elastic structure can be abutted to the inner wall of the containing hole.

15. The built-in sun-shading product according to claim 11, wherein a limiting plate is arranged at the bottom side of the inserting groove, an inward concave limiting groove is arranged at the edge of one side, close to the buckling convex edge, of the limiting plate, an outward convex positioning block is arranged below the buckling convex edge, the position of the positioning block corresponds to that of the limiting groove, and the positioning block can be inserted into the limiting groove.

16. The built-in sun-shading product according to claim 15, wherein the limit groove comprises a limit intersection line, a first limit inclined plane and a second limit inclined plane which are respectively arranged at two sides of the limit intersection line, the first limit inclined plane and the second limit inclined plane are respectively inclined towards two sides from the limit intersection line, and the limit intersection line is inclined upwards from one side close to the buckling convex edge to one side far away from the buckling convex edge;

the locating piece includes location intersection line and locates respectively first location inclined plane and the second location inclined plane of location intersection line both sides, first location inclined plane with the second location inclined plane is followed the location intersection line is set up towards both sides slope respectively, the location intersection line is from being close to one side of spacing groove is kept away from one side of spacing groove is inclined downwards, the location intersection line can the butt in on the spacing intersection line.

17. The built-in sun shade product of claim 11, wherein the parting bead comprises a plugging side and a back side which are oppositely arranged, the plugging groove is arranged on the plugging side, an upper limit bead and a lower limit bead are arranged in the plugging groove, and the buckling convex edge can be inserted between the upper limit bead and the lower limit bead.

18. Built-in sun protection product according to claim 10, characterized in that said body connection frame is made of aluminium alloy and/or stainless steel and/or plastic and/or wood material.

19. The built-in sun protection product according to claim 10, characterized in that said spacer frame is made of aluminium alloy and/or stainless steel and/or plastic and/or wood material.