Conductive glass

Abstract

The invention relates to the technical field of conductive glass, in particular to conductive glass which comprises a plurality of pieces of substrate glass, a glass block is integrally formed in the middle of one side of each piece of substrate glass, and a tempered glass frame is arranged on one side of each glass block. According to the conductive glass, the fixing mechanisms are arranged on the outer sides of the multiple pieces of substrate glass in a matched mode, and the multiple sets of conductive modules can be limited and fixed through the fixing mechanisms, so that the overall area of the conductive glass is adjusted, the conductive modules can be suitable for different use environments, and then the practicability of the conductive glass is improved; the fixing mechanism is used for protecting the plurality of conductive modules, so that the possibility that the conductive modules are damaged due to collision when the conductive glass is transported and taken is reduced, and when the substrate glass, the glass block, the toughened glass frame, the high-refractive-index optical medium layer, the low-refractive-index optical medium layer or the conductive film is damaged, the conductive modules are not damaged; and through disassembly, damaged parts can be replaced conveniently.

Description

Technical Field

[0001] The present invention relates to the technical field of conductive glass, in particular to conductive glass. Background Art

[0002] Ordinary glass is an insulating material. By coating its surface with a conductive film (ITO film), it can be made conductive, creating conductive glass. Conductive glass is divided into bulk conductive glass and surface conductive glass. Bulk conductive glass contains alkaline oxides, silicon oxide, and titanium oxide. Surface conductive glass is produced by vapor-depositing a thin metal film (such as gold or platinum, less than 10 nanometers thick) onto a transparent glass surface, or spray-coating a conductive metal oxide film (such as tin or indium) onto a heated glass surface. Conductive glass exhibits high mechanical strength and corrosion resistance. It can be used in aircraft windshields, as glass electrodes in devices such as plasma displays, silicon solar cells, and tuning indicator tubes, and has a wide range of applications in metal electrolytic cells and electric heating equipment. However, existing conductive glass is smooth and flat after molding, lacking protective structures. This can easily damage the surface conductive film during handling, installation, and storage, affecting its proper function. Summary of the Invention

[0003] The object of the present invention is to provide conductive glass to solve the problems raised in the above background technology.

[0004] To achieve the above object, the present invention provides the following technical solutions: Conductive glass includes multiple base glasses, a glass block is integrally formed in the middle position of one side of the base glasses, a tempered glass frame is provided on one side of the glass block, and the glass block is slidably plugged into the interior of the tempered glass frame, a conductive film is provided on one side of the tempered glass frame, and a fixing mechanism is provided on the outer sides of the multiple base glasses.

[0005] Furthermore, one side of the tempered glass frame is coated with a high-refractive index optical medium layer, and one side of the high-refractive index optical medium layer is coated with a low-refractive index optical medium layer, and one side of the low-refractive index optical medium layer is bonded and fixed to one side of the conductive film, the material of the high-refractive index optical medium layer is niobium pentoxide, and the material of the low-refractive index optical medium layer is silicon dioxide.

[0006] Furthermore, the fixing mechanism includes a limiting shell one, a limiting shell two, a limiting shell three and a limiting shell four, the interiors of the limiting shell one, the limiting shell two, the limiting shell three and the limiting shell four are respectively in contact with the base glass and the conductive film at corresponding positions, and multiple limiting shells five and multiple connecting rods are arranged between the limiting shell one, the limiting shell two, the limiting shell three and the limiting shell four, one side of the connecting rod is in extrusion contact with the base glass and the tempered glass frame at corresponding positions, and one side of the limiting shell five is in extrusion contact with the base glass and the tempered glass frame at corresponding positions.

[0007] Preferably, a limiting hole 1 is provided at the top of the limiting shell 1, the top of the limiting shell 2 is fixedly connected to the limiting block 1, a limiting hole 2 is provided at the bottom of the limiting shell 3, the bottom of the limiting shell 4 is fixedly connected to the limiting block 2, one end of the connecting rod is fixedly connected to the limiting block 3, and a limiting hole 3 is provided at the other end of the limiting hole 3, the limiting block 1 and the limiting hole 2 are respectively clamped with the limiting block 3 at the corresponding positions, and multiple limiting holes 3 are respectively clamped with the limiting block 1, the limiting block 2 and the limiting block 3 at the corresponding positions.

[0008] Preferably, a positioning hole 1 is provided at the bottom of the limiting shell 1, a positioning hole 2 is provided at the bottom of the limiting shell 2, a positioning block 1 is fixedly connected to the top of the limiting shell 3, a positioning block 2 is fixedly connected to the top of the limiting shell 4, a positioning block 3 is fixedly connected to the top of the limiting shell 5, and a positioning hole 3 is provided at the bottom of the limiting shell 5, the positioning hole 1 and the positioning hole 2 are respectively clamped with the positioning block 3 at the corresponding positions, and multiple positioning holes 3 are respectively clamped with the positioning block 1, positioning block 2 and positioning block 3 at the corresponding positions.

[0009] Preferably, both sides of the limiting shell 1, limiting shell 2, limiting shell 3 and limiting shell 4 are bonded and fixed with rubber pad 1, and both sides of the limiting shell 5 are bonded and fixed with rubber pad 2.

[0010] Preferably, rubber pad three is bonded and fixed to both sides of the connecting rod, the thickness of rubber pad three is the same as that of rubber pad one, and the thickness of rubber pad one is the same as that of rubber pad two.

[0011] Compared with the prior art, the present invention has the following beneficial effects: By providing a fixing mechanism on the outer side of multiple base glasses, and utilizing the fixing mechanism to positionally fix multiple groups of conductive modules, the overall area of the conductive glass can be adjusted, making the conductive modules suitable for different usage environments, thereby improving the practicality of the conductive glass. The fixing mechanism can also protect the multiple conductive modules, reducing the possibility of damage to the conductive glass due to bumps during transportation and handling. When the base glasses, glass blocks, tempered glass frames, high-refractive-index optical medium layers, low-refractive-index optical medium layers, or conductive films are damaged, they can be disassembled to facilitate replacement of the damaged components, thus avoiding waste of resources. By arranging a tempered glass frame on one side of the glass block and slidingly plugging an appropriate number of glass blocks into the corresponding number of tempered glass frames, the base glass, glass blocks, tempered glass frames and conductive films are assembled together, and the base glass, glass blocks, tempered glass frames, high-refractive index optical medium layer, low-refractive index optical medium layer and conductive film are combined into a small conductive module. The assembled conductive module is convenient for installing and using luminous characters, and the combination of the high-refractive index optical medium layer and the low-refractive index optical medium layer can achieve an anti-reflection effect, thereby improving the light transmittance of the conductive module when in use. BRIEF DESCRIPTION OF THE DRAWINGS

[0012] Figure 1 It is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the positional relationship between the glass block and the tempered glass frame in the present invention; Figure 3 yes Figure 2 A partial enlarged view of the middle part; Figure 4 It is a structural schematic diagram of the fixing mechanism in the present invention; Figure 5 This is a schematic structural diagram of a limiting shell in the present invention; Figure 6 This is a schematic diagram of the second structure of the limiting shell in the present invention; Figure 7 It is a schematic diagram of the three structures of the limiting shell in the present invention; Figure 8 Schematic diagram of the fourth structure of the limiting shell in the present invention; Figure 9 It is a schematic diagram of the structure of the limiting shell 5 in the present invention.

[0013] In the figure: 100, base glass; 110, glass block; 120, tempered glass frame; 130, high refractive index optical medium layer; 140, low refractive index optical medium layer; 150, conductive film; 200, fixing mechanism; 210, limiting shell one; 211, limiting hole one; 212, positioning hole one; 220, limiting shell two; 221, limiting block one; 222, positioning hole two; 230, limiting shell three; 231, positioning block one; 232, limiting hole two; 240, limiting shell four; 241, positioning block two; 242, limiting block two; 250, rubber pad one; 260, limiting shell five; 261, positioning block three; 262, positioning hole three; 270, rubber pad two; 280, connecting rod; 281, limiting block three; 282, limiting hole three; 290, rubber pad three. DETAILED DESCRIPTION

[0014] The following will clearly and completely describe the technical solutions in the embodiments of the present invention in conjunction with the accompanying drawings. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0015] See also Figure 1-9 As shown, the conductive glass comprises a plurality of base glasses 100, a glass block 110 is integrally formed at the middle position of one side of the base glass 100, a tempered glass frame 120 is provided on one side of the glass block 110, and the glass block 110 is slidably plugged into the interior of the tempered glass frame 120, a conductive film 150 is provided on one side of the tempered glass frame 120, and a fixing mechanism 200 is provided on the outer side of the plurality of base glasses 100. When in use, the base glass 100 and the glass block 110 are slidably plugged into the interior of the tempered glass frame 120, thereby completing the bonding of the base glass 100 and the glass block 110. The glass block 110, the tempered glass frame 120, and the conductive film 150 are assembled and assembled. The assembled base glass 100, the glass block 110, the tempered glass frame 120, and the conductive film 150 are used to facilitate the installation and use of the luminous characters. The fixing mechanism 200 can then be used to limit and fix multiple groups of the assembled base glass 100, the glass block 110, the tempered glass frame 120, and the conductive film 150, thereby adjusting the overall area of the conductive glass. This makes the conductive module suitable for different usage environments, thereby improving the practicality of the conductive glass.

[0016] One side of the tempered glass frame 120 is coated with a high-refractive-index optical medium layer 130, and one side of the high-refractive-index optical medium layer 130 is coated with a low-refractive-index optical medium layer 140, and one side of the low-refractive-index optical medium layer 140 is bonded and fixed to one side of the conductive film 150. The material of the high-refractive-index optical medium layer 130 is niobium pentoxide, and the material of the low-refractive-index optical medium layer 140 is silicon dioxide. The combination of the high-refractive-index optical medium layer 130 and the low-refractive-index optical medium layer 140 can achieve an anti-reflection effect, thereby improving the light transmittance of the conductive module when in use.

[0017] The fixing mechanism 200 includes a limiting shell 1 210, a limiting shell 2 220, a limiting shell 3 230 and a limiting shell 4 240. The interiors of the limiting shell 1 210, the limiting shell 2 220, the limiting shell 3 230 and the limiting shell 4 240 are respectively in contact with the base glass 100 and the conductive film 150 at corresponding positions. A plurality of limiting shells 5 260 and a plurality of connecting rods 280 are arranged between the limiting shell 1 210, the limiting shell 2 220, the limiting shell 3 230 and the limiting shell 4 240. One side of the connecting rod 280 is in press contact with the base glass 100 and the tempered glass frame 120 at corresponding positions. One side of the limiting shell 5 260 is in press contact with the base glass 100 and the tempered glass frame 120 at corresponding positions. The top of the limiting shell 1 210 is provided with a limiting The top of the limiting shell 220 is fixedly connected to the limiting block 1 221, the bottom of the limiting shell 3 230 is provided with a limiting hole 232, the bottom of the limiting shell 4 240 is fixedly connected to the limiting block 2 242, one end of the connecting rod 280 is fixedly connected to the limiting block 3 281, and the other end of the limiting hole 3 282 is provided with a limiting hole 3 282, the limiting block 1 221 and the limiting hole 2 232 are respectively connected with the limiting block 3 281 at the corresponding position, and multiple limiting holes 3 282 are respectively connected with the limiting block 1 221, the limiting block 2 242 and the limiting block 3 281 at the corresponding position, the bottom of the limiting shell 1 210 is provided with a positioning hole 1 212, the bottom of the limiting shell 2 220 is provided with a positioning hole 222, the top of the limiting shell 3 230 The top of the limiting shell 240 is fixedly connected with the positioning block 241, the top of the limiting shell 5 260 is fixedly connected with the positioning block 3 261, and the bottom of the limiting shell 5 260 is provided with a positioning hole 3 262, the positioning hole 1 212 and the positioning hole 2 222 are respectively connected with the positioning block 3 261 at the corresponding position, and the plurality of positioning holes 3 262 are respectively connected with the positioning block 1 231, the positioning block 2 241 and the positioning block 3 261 at the corresponding position. The limiting shell 1 210, the limiting shell 2 220, the limiting shell 3 230 and the limiting shell 4 240 are all bonded with a rubber pad 1 250, the limiting shell 5 260 is bonded with a rubber pad 2 270 on both sides, and the connecting rod 280 is bonded with a rubber pad 2 Pad three 290, the thickness of rubber pad three 290 is the same as that of rubber pad one 250, and the thickness of rubber pad one 250 is the same as that of rubber pad two 270. By placing the limiting shell one 210, limiting shell two 220, limiting shell three 230 and limiting shell four 240 at appropriate positions, and by plugging an appropriate number of connecting rods 280 end to end in sequence, so that the length of multiple connecting rods 280 after splicing is corresponding to the distance between the limiting shell one 210 and the limiting shell two 220, and by plugging the corresponding limiting block three 281 into the limiting hole one 211, and plugging the limiting block one 221 into the limiting hole three 282 at the corresponding position, the assembly of the limiting shell one 210, the limiting shell two 220 and the multiple connecting rods 280 is completed.The same method is used to assemble the limiting shell three 230, limiting shell four 240, and multiple connecting rods 280 together. By assembling an appropriate number of limiting shells five 260 together, and plugging the top positioning block three 261 into the positioning hole one 212, and plugging the positioning block one 231 into the positioning hole three 262 on the bottom limiting shell five 260, the limiting shell one 210, limiting shell three 230, and multiple limiting shells five 260 are assembled together. The same method is then used to assemble the limiting shell two 220, limiting shell four 240, and multiple limiting shells five 260 together, thereby completing the splicing and assembly of the fixing mechanism 200. The assembled fixing mechanism 200 is used to fix the multiple spliced conductive modules, thereby completing the assembly of the conductive glass. The rubber pad one 250, rubber pad two 270, and rubber pad three 290 are used to provide shock absorption treatment for the conductive glass during transportation, thereby improving the protection effect of the conductive modules.

[0018] Working principle: When in use, by sliding and plugging an appropriate number of glass blocks 110 into the corresponding number of tempered glass frames 120, the base glass 100, glass blocks 110, tempered glass frames 120 and conductive film 150 are assembled together, and the base glass 100, glass blocks 110, tempered glass frames 120, high refractive index optical medium layer 130, low refractive index optical medium layer 140 and conductive film 150 are combined into a small conductive module. The assembled conductive module is convenient for the installation and use of luminous characters, and the high refractive index optical medium layer 140 is used to make the luminous characters more attractive. The optical layer 130 and the low refractive index optical medium layer 140 cooperate to achieve the effect of anti-reflection, improve the light transmittance of the conductive module when in use, and by placing the conductive modules together, and then by placing the limiting shell 1 210, the limiting shell 2 220, the limiting shell 3 230 and the limiting shell 4 240 at appropriate positions, and by plugging an appropriate number of connecting rods 280 end to end in sequence, so that the length of the multiple connecting rods 280 after the splicing is completed corresponds to the distance between the limiting shell 1 210 and the limiting shell 2 220, and by plugging the corresponding limiting block 3 281 into the limiting hole 1 211 Then, the limiting block 1 221 is plugged into the limiting hole 3 282 at the corresponding position, and the limiting shell 1 210, the limiting shell 2 20 and the multiple connecting rods 280 are assembled. The limiting shell 3 230, the limiting shell 4 240 and the multiple connecting rods 280 are assembled together in the same way, and an appropriate number of limiting shells 5 260 are assembled together, and the top positioning block 3 261 is plugged into the positioning hole 1 212, and the positioning block 1 231 is plugged into the positioning hole 3 262 on the bottom limiting shell 5 260, so as to align the limiting shell 1 210, the limiting shell 3 230 and the multiple limiting shells. The shell five 260 is assembled together, and then the limiting shell two 220, the limiting shell four 240 and multiple limiting shell five 260 are assembled together using the same method, thereby completing the splicing and assembly of the fixing mechanism 200, and using the assembled fixing mechanism 200 to fix multiple spliced conductive modules, thereby completing the assembly of the conductive glass. By assembling an appropriate number of conductive modules, the conductive glass can adjust the overall area according to the length of the luminous characters installed thereon, so that the conductive module can be suitable for different usage environments, thereby improving the practicality of the conductive glass.

[0019] It will be apparent to those skilled in the art that the present invention is not limited to the details of the exemplary embodiments described above and that the invention can be embodied in other specific forms without departing from the spirit or essential characteristics of the invention. Therefore, the embodiments should be considered in all respects as illustrative and non-restrictive, and the scope of the invention is defined by the appended claims, not the foregoing description, and all variations within the meaning and range of equivalents of the claims are intended to be included therein. Any reference sign in a claim should not be construed as limiting the claim to which it relates.

[0020] In addition, it should be understood that although this specification is described in terms of implementation methods, not every implementation method contains only one independent technical solution. This narrative method of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment can also be appropriately combined to form other implementation methods that can be understood by those skilled in the art.

Claims

1. Conductive glass, comprising a plurality of substrate glasses (100), characterized in that A glass block (110) is integrally formed at a middle position on one side of the base glass (100), a tempered glass frame (120) is provided on one side of the glass block (110), and the glass block (110) is slidably plugged into the interior of the tempered glass frame (120), a conductive film (150) is provided on one side of the tempered glass frame (120), and a fixing mechanism (200) is provided on the outer sides of the plurality of base glasses (100).

2. The conductive glass according to claim 1, wherein One side of the tempered glass frame (120) is coated with a high-refractive index optical medium layer (130), and one side of the high-refractive index optical medium layer (130) is coated with a low-refractive index optical medium layer (140), and one side of the low-refractive index optical medium layer (140) is bonded and fixed to one side of the conductive film (150), wherein the material of the high-refractive index optical medium layer (130) is niobium pentoxide, and the material of the low-refractive index optical medium layer (140) is silicon dioxide.

3. The conductive glass according to claim 1, wherein The fixing mechanism (200) includes a limiting shell 1 (210), a limiting shell 2 (220), a limiting shell 3 (230) and a limiting shell 4 (240), wherein the interiors of the limiting shell 1 (210), the limiting shell 2 (220), the limiting shell 3 (230) and the limiting shell 4 (240) are in contact with the base glass (100) and the conductive film (150) at corresponding positions, respectively; a plurality of limiting shells 5 (260) and a plurality of connecting rods (280) are provided between the limiting shell 1 (210), the limiting shell 2 (220), the limiting shell 3 (230) and the limiting shell 4 (240); one side of the connecting rod (280) is in press contact with the base glass (100) and the tempered glass frame (120) at corresponding positions, and one side of the limiting shell 5 (260) is in press contact with the base glass (100) and the tempered glass frame (120) at corresponding positions.

4. The conductive glass according to claim 3, wherein: The top of the limiting shell 1 (210) is provided with a limiting hole 1 (211), the top of the limiting shell 2 (220) is fixedly connected to the limiting block 1 (221), the bottom of the limiting shell 3 (230) is provided with a limiting hole 2 (232), the bottom of the limiting shell 4 (240) is fixedly connected to the limiting block 2 (242), one end of the connecting rod (280) is fixedly connected to the limiting block 3 (281), and the other end of the limiting hole 3 (282) is provided with a limiting hole 3 (282), the limiting block 1 (221) and the limiting hole 2 (232) are respectively connected to the limiting block 3 (281) at the corresponding position, and a plurality of limiting holes 3 (282) are respectively connected to the limiting block 1 (221), the limiting block 2 (242) and the limiting block 3 (281) at the corresponding position.

5. The conductive glass according to claim 3, characterized in that The bottom of the limiting shell 1 (210) is provided with a positioning hole 1 (212), the bottom of the limiting shell 2 (220) is provided with a positioning hole 2 (222), the top of the limiting shell 3 (230) is fixedly connected with a positioning block 1 (231), the top of the limiting shell 4 (240) is fixedly connected with a positioning block 2 (241), the top of the limiting shell 5 (260) is fixedly connected with a positioning block 3 (261), and the bottom of the limiting shell 5 (260) is provided with a positioning hole 3 (262), the positioning hole 1 (212) and the positioning hole 2 (222) are respectively engaged with the positioning block 3 (261) at the corresponding positions, and a plurality of positioning holes 3 (262) are respectively engaged with the positioning block 1 (231), the positioning block 2 (241) and the positioning block 3 (261) at the corresponding positions.

6. The conductive glass according to claim 3, wherein: The two sides of the limiting shell 1 (210), the limiting shell 2 (220), the limiting shell 3 (230) and the limiting shell 4 (240) are all bonded and fixed with a rubber pad 1 (250), and the two sides of the limiting shell 5 (260) are all bonded and fixed with a rubber pad 2 (270).

7. The conductive glass according to claim 3, characterized in that Rubber pad three (290) is bonded and fixed to both sides of the connecting rod (280), and the thickness of the rubber pad three (290) is the same as the thickness of the rubber pad one (250), and the thickness of the rubber pad one (250) is the same as the thickness of the rubber pad two (270).

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