Toughened glass with light adjusting effect

Abstract

The utility model provides toughened glass with a light adjusting effect, which relates to the technical field of toughened glass and comprises outer glass and laminated glass, four corners of the outer glass and four corners of the laminated glass are provided with thinning grooves, corner inserts are fixed on the surfaces of the thinning grooves, buffer corners are slidably connected to the surfaces of the corner inserts, one side of each buffer corner is provided with a sliding groove, and the other side of each buffer corner is provided with a sliding groove. The mode of installing the buffer corners is adopted to solve the problems that when the tempered glass deals with the impact on the four corners, certain fragility is still shown, when the four corner areas of the tempered glass suffer from local and concentrated impact force, external force can rapidly penetrate through the outer layer and directly act on the inner layer glass, and due to the fragility of the inner layer glass, the outer layer glass cannot be damaged. Especially, when an impact point is located at a corner of the glass, the impact point has a high stress concentration phenomenon due to a geometrical shape, so that the impact energy is more difficult to disperse effectively, and the risk of damage is increased.

Description

Technical Field

[0001] The utility model relates to the technical field of tempered glass, in particular to a tempered glass with a light adjustment effect. Background Art

[0002] Tempered glass is a special safety glass that is rapidly cooled after being heated by physical or chemical methods to form surface compressive stress, thereby significantly improving the mechanical strength and heat shock resistance of the glass. It is widely used in fields such as construction, furniture, automobiles, and electronic products, and is used to manufacture doors and windows, curtain walls, desktops, automobile windshields, etc. As a safety glass, tempered glass has great development potential in the future market due to its unique performance and wide application fields. With the continuous progress of technology and the increasing market demand, it is expected that tempered glass will continue to maintain a steady growth momentum.

[0003] In the prior art, tempered glass still shows certain vulnerability when dealing with impacts on the four corners. In multi-layer composite tempered glass, although the outer layer of glass has been specially treated and has high hardness and strength, the inner layer of glass, due to less protection, often has not been strengthened at the same level, so its impact resistance is relatively weak. When the four-corner area of the tempered glass is subjected to local and concentrated impact forces, the external force will quickly penetrate the outer layer and directly act on the inner layer of glass. Due to the vulnerability of the inner layer of glass, it is very likely to break before absorbing and dispersing the energy, resulting in the failure of the overall structure. Especially when the impact point is located at the corner of the glass, these parts have a high stress concentration phenomenon due to the geometric shape, making it more difficult to effectively disperse the impact energy, thereby increasing the risk of breakage. In fact, although the tempered glass looks intact on the outside, due to the damage of the internal structure, the whole piece of glass can no longer bear its due structural or protective function and has to be replaced or repaired. Summary of the Utility Model

[0004] The purpose of the utility model is to solve the deficiencies existing in the prior art and propose a tempered glass with a light adjustment effect.

[0005] To achieve the above object, the utility model adopts the following technical solutions: A tempered glass with a light adjusting effect, comprising an outer layer of glass and an interlayer of glass. Cutting grooves are provided at the four corners of both the outer layer of glass and the interlayer of glass. Angle inserts are fixed on the surfaces of the cutting grooves. A buffer angle is slidably connected to the surface of the angle insert. A sliding groove is provided on one side of the buffer angle. In the prior art, when tempered glass encounters impacts on its four corners, it still shows a certain degree of fragility. In multi-layer composite tempered glass, although the outer layer of glass has been specially treated and has relatively high hardness and strength, the inner layer of glass, due to less protection, often has not undergone the same level of strengthening treatment, so its impact resistance is relatively weak. When the four-corner area of the tempered glass is subjected to local and concentrated impact forces, the external force will quickly penetrate the outer layer and directly act on the inner layer of glass. Due to the fragility of the inner layer of glass, it is likely to break before absorbing and dispersing the energy, resulting in the failure of the overall structure. Especially when the impact point is located at the edge or corner of the glass, these parts have a relatively high stress concentration phenomenon due to their geometric shape, making it more difficult for the impact energy to be effectively dispersed, thereby increasing the risk of breakage. In fact, although the tempered glass may look intact on the outside, due to the damage to its internal structure, the entire glass can no longer perform its due structural or protective functions and has to be replaced or repaired. To solve such problems, the utility model adopts the method of installing buffer angles. During the assembly process of the tempered glass, first, a layer of interlayer glass is precisely placed between two layers of outer layer glass. Subsequently, to ensure the firm bonding between the glass layers and improve the overall stability, the staff will install angle inserts at the four corners of the glass. These angle inserts not only provide structural connections but also lay the foundation for the subsequent reinforcement steps. In this process, the use of buffer angles is very crucial. Each buffer angle is precisely inserted into the angle insert, and through the pressure points in its design, it applies uniform pressure to the interlayer glass and the outer layer glass, thereby fixing them in the correct positions. That is, when the glass is impacted and broken, the buffer angle can play a buffering role and reduce the harm to people. The buffer angle has a unique design, and the function of the sliding groove is particularly prominent. This groove can not only be used for injecting adhesive, but its structure can effectively accommodate the glue, ensuring that the glue fully fills the voids during the curing process to achieve the best bonding effect. In addition, the sliding groove is specially designed with an anti-overflow function to prevent the glue from overflowing during the glue injection process, affecting the appearance or causing unnecessary waste. Through such an assembly process, the various components of the tempered glass are not only firmly fixed together, but also through the dual guarantee of the buffer angle and the adhesive, the overall structural stability and safety are greatly enhanced. This elaborate design and careful assembly process ensure that the tempered glass can exert its highest performance in practical applications, especially when subjected to various external forces, it can still maintain a good state and effectively protect the safety of the internal space, achieving the effect of improving the product stability.

[0006] Preferably, a trapezoidal member is fixed to the top of the corner insert. Limiting trapezoidal grooves are provided at both the top and bottom of the sliding groove. The inner wall of the limiting trapezoidal groove is slidably connected to the trapezoidal member. In the prior art, during the assembly of tempered glass, the buffer corner is used to precisely cooperate with the corner insert to ensure the stability and safety of the entire glass structure. However, if the buffer corner is offset during installation into the corner insert due to inconsistent operation or lack of experience of the staff, such inaccurate installation will seriously affect the performance and function of the buffer corner. The angle cannot be correctly inserted into the predetermined position, resulting in its inability to effectively exert the pressure designed. This imbalance of pressure not only reduces the acting force of the buffer corner itself but also affects the tight bonding between the glasses, thereby affecting the stability and safety of the entire glass assembly. If the buffer corner is not correctly installed, the sliding groove inside it cannot be correctly aligned either, which will affect the injection and distribution of the adhesive. If the adhesive cannot be evenly filled into each key part, it will lead to mechanical weaknesses during the curing process of the glue, further reducing the overall stability and safety of the product. To solve such problems, the present utility model adopts the method of installing a trapezoidal member. To solve the problem of inaccurate installation caused by manual operation, an innovative cooperation mechanism of the trapezoidal member and the limiting trapezoidal groove is introduced in the design. The core of this mechanism lies in restricting the degree of freedom of movement of the buffer corner during the installation process in a structured manner, ensuring that it can only be installed along a predetermined path. The trapezoidal member is an element with a specific inclined surface design, which can closely cooperate with the corresponding inclined surface in the limiting trapezoidal groove. When the trapezoidal member is inserted into the limiting trapezoidal groove, this geometric fit ensures that the buffer corner can only move along the direction of the limiting trapezoidal groove during installation. This means that the installation process of the buffer corner is effectively controlled and guided, greatly reducing the installation error caused by human factors. In addition, the design of the limiting trapezoidal groove also provides a clear guiding function, enabling the buffer corner to be installed at the correct position and at the correct angle. This precise trajectory control not only improves the assembly efficiency but also ensures that the installation position is consistent each time, thus achieving a high degree of product standardization and quality control. In this way, the installation of the buffer corner becomes simple and precise, without relying too much on the experience and skills of the staff, reducing the sensitivity to manual operation, improving the overall production reliability and the stability of the product. Finally, this carefully designed cooperation mechanism of the trapezoidal member and the limiting trapezoidal groove ensures that the tempered glass can exhibit continuous and stable performance in applications with high strength and high safety requirements, achieving the effect of improving the finished product rate.

[0007] Preferably, a linear array of limiting grooves is formed on the surface of the laminated glass, and a limiting insert is fixed to the bottom of the outer glass. The surface of the limiting insert is slidably connected to the inner wall of the limiting groove. In the prior art, during the assembly process of tempered glass, ensuring the precise placement of the laminated glass between the outer glasses is a key step in achieving high-quality finished products. This step requires very high operating precision because any slight deviation will lead to subsequent installation problems, thereby affecting the performance and safety of the final product. The positioning of the laminated glass not only needs to ensure the parallelism and correct spacing between it and the outer glasses, but also must ensure that it is completely located at the predetermined position to be correctly aligned with the outer glasses. However, in actual operation, environmental factors in the factory, especially the vibration of equipment, once the position of the laminated glass shifts due to equipment vibration, it will cause multiple problems. First, the bonding area between the laminated glass and the outer glasses is insufficient, affecting the bonding strength and the sealing performance of the overall structure. Second, the position shift also affects the installation of corner inserts and buffer corners because the installation of these components is usually based on the precise relative positions between the glasses. If the buffer corners cannot be correctly installed, then as mentioned above, it will affect the stability and safety of the entire structure. To solve such problems, the present utility model adopts the method of installing limiting inserts, achieving the effect of preventing the sliding between the glasses through the combination of the limiting inserts and the limiting grooves, improving the installation accuracy, and reaching the effect of increasing the finished product rate.

[0008] Preferably, a frosting groove is formed in a matrix on the surface of the outer glass. The frosting groove scatters and deflects light, thereby achieving the light adjustment effect and improving the user experience.

[0009] Preferably, a pressure clamping groove is formed at the top of the outer glass. When installing the tempered glass into the door frame, the frame clamps the glass through the pressure clamping groove, improving the fixing effect.

[0010] Preferably, an anti-slip groove is formed at the edge of the buffer corner, improving the fixing effect.

[0011] Preferably, the included angle of the buffer corner is set as an arc. The arc reduces wear, improves the buffering effect, and increases the service life of the product.

[0012] Beneficial effects:

[0013] 1. In the prior art, tempered glass still shows a certain degree of fragility when dealing with impacts on the four corners. In multi-layer composite tempered glass, although the outer layer of glass has been specially treated to have higher hardness and strength, the inner layer of glass is less protected and often has not undergone the same level of strengthening treatment, so its impact resistance is relatively weak. When the four corners of the tempered glass are subjected to local and concentrated impact forces, the external force will quickly penetrate the outer layer and directly act on the inner layer of glass. Due to the fragility of the inner layer of glass, it will break before absorbing and dispersing energy, resulting in failure of the overall structure, especially when the impact point is located at the corner of the glass. , these parts have a higher stress concentration phenomenon due to their geometric shapes, making it more difficult to effectively disperse the impact energy, thereby increasing the risk of breakage. In fact, the tempered glass looks intact on the outside, but due to the damage to the internal structure, the entire glass can no longer continue to bear its due structural or protective functions and has to be replaced or repaired. In response to such problems, the utility model adopts the method of installing buffer angles to solve them. During the assembly process of tempered glass, the staff will first accurately place a layer of laminated glass between the two outer layers of glass. Then, in order to ensure the firm combination of the glass layers and improve the overall stability, the staff will Corner plugs are installed at the four corners. These corner plugs not only provide structural connections, but also lay the foundation for the next reinforcement steps. In this link, the use of buffer corners is very critical. Each buffer corner is precisely inserted into the corner plug. Through its designed pressure points, uniform pressure is applied to the laminated glass and the outer glass, thereby fixing them in the correct position. That is, when the glass is impacted and broken, the buffer corner can play a buffering role and reduce damage to personnel. The buffer corner is uniquely designed, and the function of sliding into the groove is particularly prominent. This groove can not only be used to inject adhesive, but also its structure can effectively accommodate the glue to ensure that the glue is in the curing process. The gaps are fully filled in the groove to achieve the best bonding effect. In addition, the slide-in groove is specially designed with an anti-overflow function to avoid glue overflow during the injection process, affecting the appearance or causing unnecessary waste. Through such an assembly process, the various components of the tempered glass are not only firmly fixed together, but also through the dual protection of buffer corners and adhesive glue, the stability and safety of the overall structure are greatly enhanced. This meticulous design and careful assembly process ensure that the tempered glass can perform at the highest performance in actual applications, especially under the action of various external forces, it can still maintain a good state, effectively protect the safety of the internal space, and achieve the effect of improving product stability.

[0014] 2. In the prior art, during the assembly of tempered glass, buffer corners are used to precisely cooperate with corner inserts to ensure the stability and safety of the entire glass structure. However, if the buffer corners are offset when being installed onto the corner inserts due to inconsistent operation or insufficient experience of the staff, such inaccurate installation will seriously affect the performance and function of the buffer corners. The angles cannot be correctly inserted into the predetermined positions, resulting in their inability to effectively exert the designed pressure. This imbalance of pressure not only reduces the acting force of the buffer corners themselves but also affects the tight bonding between the glasses, thereby affecting the stability and safety of the entire glass assembly. If the buffer corners are not correctly installed, the sliding grooves inside them cannot be correctly aligned either, which will affect the injection and distribution of the adhesive. If the adhesive cannot be evenly filled into each key part, it will lead to mechanical weaknesses during the curing process of the glue, further reducing the overall stability and safety of the product. To address such problems, the present utility model solves them by installing trapezoidal parts. To solve the problem of inaccurate installation caused by human operation, an innovative cooperation mechanism of trapezoidal parts and limiting ladder grooves is introduced in the design. The core of this mechanism lies in restricting the movement freedom of the buffer corners during the installation process in a structured manner, ensuring that they can only be installed along a predetermined path. The trapezoidal part is an element with a specific inclined surface design, which can closely cooperate with the corresponding inclined surface in the limiting ladder groove. When the trapezoidal part is inserted into the limiting ladder groove, this geometric fit ensures that the buffer corners can only move along the direction of the limiting ladder groove during installation. This means that the installation process of the buffer corners is effectively controlled and guided, greatly reducing the installation errors caused by human factors. In addition, the design of the limiting ladder groove also provides a clear guiding effect, enabling the buffer corners to be installed at the correct position and at the correct angle. This precise trajectory control not only improves the assembly efficiency but also ensures that the installation position is consistent each time, thus achieving a high degree of product standardization and quality control. In this way, the installation of the buffer corners becomes simple and precise, without relying too much on the experience and skills of the staff, reducing the sensitivity to manual operation, and improving the overall production reliability and product stability. Finally, this carefully designed cooperation mechanism of trapezoidal parts and limiting ladder grooves ensures that the tempered glass can exhibit continuous and stable performance in applications with high strength and high safety requirements, achieving the effect of improving the finished product rate.

[0015] 3. In the prior art, during the assembly of tempered glass, ensuring the precise placement of the laminated glass between the outer glasses is a crucial step in achieving high-quality finished products. This step requires very high operating precision because any slight deviation will lead to subsequent installation problems, thereby affecting the performance and safety of the final product. The positioning of the laminated glass not only needs to ensure the parallelism and correct spacing between it and the outer glass but also must ensure that it is completely located at the predetermined position for correct alignment with the outer glass. However, in actual operation, environmental factors in the factory, especially the vibration of equipment, once the position of the laminated glass shifts due to equipment vibration, it will cause multiple problems. First, the bonding area between the laminated glass and the outer glass is insufficient, affecting the bonding strength and the sealing of the overall structure. Second, the position deviation also affects the installation of corner inserts and buffer corners because the installation of these components is usually based on the precise relative positions between the glasses. If the buffer corners cannot be installed correctly, then as mentioned above, it will affect the stability and safety of the entire structure. To address such problems, the present utility model solves them by installing limit inserts, achieving the combination of the limit inserts and limit grooves to prevent the sliding between the glasses, improving the installation accuracy, and achieving the effect of increasing the finished product rate. Description of the Drawings

[0016] Figure 1 Schematic three-dimensional structure diagram of the present utility model;

[0017] Figure 2 Schematic three-dimensional structure diagram of the buffer corner of the present utility model;

[0018] Figure 3 Schematic three-dimensional structure diagram of the trapezoidal part of the present utility model;

[0019] Figure 4 Schematic three-dimensional structure diagram of the limit ladder groove of the present utility model.

[0020] Legend:

[0021] 1. Outer glass; 101. Laminated glass; 102. Thinning groove; 103. Corner insert; 104. Buffer corner; 105. Sliding groove; 106. Anti-slip groove; 2. Trapezoidal part; 201. Limit ladder groove; 3. Limit groove; 301. Limit insert; 4. Frosted groove; 401. Pressure clip groove. Detailed Embodiment

[0022] In order to make the technical means, creative features, achieved purposes and effects realized by the present utility model easy to understand, the following further elaborates the present utility model in conjunction with specific embodiments and the attached drawings. However, the following embodiments are only the preferred embodiments of the present utility model and not all of them. Based on the embodiments in the implementation manners, other embodiments obtained by those skilled in the art without creative efforts all fall within the protection scope of the present utility model.

[0023] The following describes the specific embodiments of the present utility model in conjunction with the attached drawings. Specific embodiments:

[0025] Refer to Figures 1-4, a tempered glass with light adjustment effect, comprising an outer layer of glass 1 and a laminated glass 101, wherein four corners of the outer layer of glass 1 and four corners of the laminated glass 101 are provided with thinning grooves 102, a corner plug 103 is fixed on the surface of the thinning groove 102, a buffer corner 104 is slidably connected on the surface of the corner plug 103, and a sliding groove 105 is provided on one side of the buffer corner 104. When the tempered glass is subjected to impact at the four corners, it still shows a certain fragility. In the multi-layer composite tempered glass, although the outer layer of glass 1 has been specially treated and has a higher hardness and strength, the inner layer of glass is less protected and often has not undergone the same level of strengthening treatment, so its impact resistance is relatively weak. When the four corners of the tempered glass are subjected to local and concentrated impact When the impact force is strong, the external force will quickly penetrate the outer layer and directly act on the inner glass. Due to the fragility of the inner glass, it will break before absorbing and dispersing the energy, resulting in failure of the overall structure, especially when the impact point is located at the corners of the glass. These parts have a higher stress concentration due to their geometric shape, making it more difficult to effectively disperse the impact energy, thereby increasing the risk of breakage. In fact, the tempered glass looks intact on the outside, but due to the damage to the internal structure, the entire piece of glass can no longer continue to bear its due structural or protective functions and has to be replaced or repaired. The solution is to install a buffer corner 104 to achieve the following: During the assembly process of the tempered glass, the staff will first accurately place a layer of laminated glass 101 between the two outer The corner plugs 103 are installed between the layers of glass 1. Then, in order to ensure a firm bond between the glass layers and improve the overall stability, the staff will install corner plugs 103 at the four corners of the glass. These corner plugs 103 not only provide structural connections, but also lay the foundation for the subsequent reinforcement steps. In this link, the use of buffer corners 104 is very critical. Each buffer corner 104 is precisely inserted into the corner plug 103. Through its designed pressure points, uniform pressure is applied to the laminated glass 101 and the outer glass 1, thereby fixing them in the correct position. That is, when the glass is impacted and broken, the buffer corner 104 can play a buffering role to reduce damage to personnel. The buffer corner 104 is uniquely designed, and the function of the sliding groove 105 is particularly prominent. This groove can not only be used to inject adhesive, but its structure can effectively accommodate glue, ensuring that the glue fully fills the gap during the curing process to achieve the best bonding effect. In addition, the sliding groove 105 is also specially designed with an anti-overflow function to avoid glue overflow during the injection process, affecting the appearance or causing unnecessary waste. Through such an assembly process, the various components of the tempered glass are not only firmly fixed together, but also greatly enhanced The stability and safety of the overall structure are greatly enhanced through the dual protection of the buffer corner 104 and the adhesive. This meticulous design and careful assembly process ensure that the tempered glass can perform at the highest performance in actual applications, especially when subjected to various external forces, it can still maintain a good state and effectively protect the safety of the internal space.To achieve the effect of improving product stability. The surface matrix of the outer layer of glass 1 is provided with matte grooves 4, which scatter light through the matte grooves 4, deflect the light, thereby achieving the light adjustment effect and improving the user experience. The top of the outer layer of glass 1 is provided with a pressure clamping groove 401. When installing the door frame with tempered glass, the frame clamps the glass through the pressure clamping groove 401 to improve the fixing effect. The edge of the buffer angle 104 is provided with an anti-slip groove 106 to improve the fixing effect. The included angle of the buffer angle 104 is set as an arc, and the arc reduces wear, improves the buffering effect, and extends the service life of the product.

[0026] A trapezoidal part 2 is fixed to the top of the corner plug 103. Limiting ladder grooves 201 are provided at both the top and bottom of the sliding groove 105. The inner wall of the limiting ladder groove 201 is slidably connected to the trapezoidal part 2. During the assembly of the tempered glass, the buffer corner 104 is used to precisely cooperate with the corner plug 103 to ensure the stability and safety of the entire glass structure. However, if the buffer corner 104 is offset when installed onto the corner plug 103 due to inconsistent operation or lack of experience of the staff, then this inaccurate installation will seriously affect the performance and function of the buffer corner 104. The angle cannot be correctly inserted into the predetermined position, resulting in its inability to effectively apply the designed pressure. This imbalance of pressure not only reduces the acting force of the buffer corner 104 itself but also affects the tight bonding between the glasses, thereby affecting the stability and safety of the entire glass assembly. If the buffer corner 104 is not correctly installed, the sliding groove 105 inside it cannot be correctly aligned either, which will affect the injection and distribution of the adhesive. If the adhesive cannot be evenly filled into each key part, it will lead to mechanical weaknesses during the curing process of the glue, further reducing the overall stability and safety of the product. The problem is solved by adopting the method of installing the trapezoidal part 2. To solve the problem of inaccurate installation caused by human operation, an innovative cooperation mechanism between the trapezoidal part 2 and the limiting ladder groove 201 is introduced in the design. The core of this mechanism lies in restricting the degree of freedom of movement of the buffer corner 104 during the installation process in a structured manner, ensuring that it can only be installed along a predetermined path. The trapezoidal part 2 is an element with a specific inclined surface design, and it can closely cooperate with the corresponding inclined surface in the limiting ladder groove 201. When the trapezoidal part 2 is inserted into the limiting ladder groove 201, this geometric fit ensures that the buffer corner 104 can only move along the direction of the limiting ladder groove 201 during installation. This means that the installation process of the buffer corner 104 is effectively controlled and guided, greatly reducing the installation error caused by human factors. In addition, the design of the limiting ladder groove 201 also provides a clear guiding effect, enabling the buffer corner 104 to be installed at the correct position and at the correct angle. This precise trajectory control not only improves the assembly efficiency but also ensures that the installation position is consistent each time, thus achieving a high degree of product standardization and quality control. In this way, the installation of the buffer corner 104 becomes simple and precise, without relying too much on the experience and skills of the staff, reducing the sensitivity to manual operation, and improving the overall production reliability and product stability. Finally, this carefully designed cooperation mechanism between the trapezoidal part 2 and the limiting ladder groove 201 ensures that the tempered glass can exhibit continuous and stable performance in applications with high strength and high safety requirements, achieving the effect of improving the finished product rate.The surface of the laminated glass 101 is linearly arrayed with limited-position grooves 3, and a limited-position insert 301 is fixed at the bottom of the outer layer of glass 1. The surface of the limited-position insert 301 is slidably connected to the inner wall of the limited-position groove 3. During the assembly process of the tempered glass, ensuring the precise placement of the laminated glass 101 between the outer layers of glass 1 is a key step in achieving a high-quality finished product. This step requires very high operating precision because any slight deviation will lead to subsequent installation problems, thereby affecting the performance and safety of the final product. The positioning of the laminated glass 101 not only needs to ensure the parallelism and correct spacing between it and the outer layer of glass 1, but also must ensure that it is completely located at the predetermined position so as to be correctly aligned with the outer layer of glass 1. However, in actual operation, environmental factors in the factory, especially the vibration of the equipment. Once the position of the laminated glass 101 is offset due to the equipment vibration, multiple problems will occur. First, the bonding area between the laminated glass 101 and the outer layer of glass 1 is insufficient, affecting the bonding strength and the sealing performance of the overall structure. Second, the position offset also affects the installation of the corner inserts 103 and the buffer corners 104 because the installation of these components is usually based on the precise relative positions between the glasses. If the buffer corner 104 cannot be correctly installed, then as before, it will affect the stability and safety of the entire structure. The problem is solved by adopting the method of installing the limited-position insert 301, achieving the combination of the limited-position insert 301 and the limited-position groove 3 to prevent the sliding between the glasses, improving the installation accuracy, and achieving the effect of increasing the yield rate.

[0027] The working principle of the present utility model: During the assembly process of the tempered glass, the staff will first precisely place a layer of laminated glass 101 between two outer layers of glass 1. Subsequently, in order to ensure the firm bonding between the glass layers and improve the overall stability, the staff will install corner inserts 103 at the four corners of the glass. These corner inserts 103 not only provide structural connections but also lay the foundation for the subsequent reinforcement steps. In this link, the use of the buffer corner 104 is very crucial. Each buffer corner 104 is precisely inserted into the corner insert 103, and through the pressure points in its design, a uniform pressure is exerted on the laminated glass 101 and the outer layer of glass 1, thereby fixing them in the correct positions. That is, when the glass is impacted and broken, the buffer corner 104 can play a buffering role and reduce the harm to personnel. The buffer corner 104 has a unique design, and the function of the sliding groove 105 is particularly prominent. This groove can not only be used to inject adhesive, but its structure can effectively accommodate the glue, ensuring that the glue fully fills the voids during the curing process. When the trapezoidal part 2 is inserted into the limited-position trapezoidal groove 201, this geometric fit ensures that the buffer corner 104 can only move along the direction of the limited-position trapezoidal groove 201 during installation, which means that the installation process of the buffer corner 104 is effectively controlled and guided, greatly reducing the installation errors caused by human factors.

[0028] In the present utility model, unless otherwise clearly stipulated and defined, the first feature being "above" or "below" the second feature may include direct contact between the first and second features, or may include the situation where the first and second features are not in direct contact but in contact through additional features therebetween. Moreover, the first feature being "above", "over" and "on top of" the second feature includes that the first feature is directly above and obliquely above the second feature, or merely indicates that the horizontal height of the first feature is higher than that of the second feature. The first feature being "under", "beneath" and "underneath" the second feature includes that the first feature is directly below and obliquely below the second feature, or merely indicates that the horizontal height of the first feature is less than that of the second feature.

[0029] The foregoing has shown and described the basic principles, main features and advantages of the present utility model. Those skilled in the art should understand that the present utility model is not limited by the above embodiments. The above embodiments and the descriptions in the specification are only preferred examples of the present utility model and are not used to limit the present utility model. Without departing from the spirit and scope of the present utility model, the present utility model will have various changes and improvements, and all these changes and improvements fall within the scope of the present utility model claimed. The scope of protection claimed by the present utility model is defined by the appended claims and their equivalents.

Claims

1. A tempered glass with light regulation effect, comprising an outer layer of glass (1) and a laminated glass (101), characterized in that: The four corners of the outer glass (1) and the four corners of the laminated glass (101) are provided with thinning grooves (102), a corner plug-in (103) is fixed on the surface of the thinning groove (102), a buffer corner (104) is slidably connected to the surface of the corner plug-in (103), and a sliding groove (105) is provided on one side of the buffer corner (104).

2. The tempered glass with light regulation effect according to claim 1, characterized in that: A trapezoidal member (2) is fixed on the top of the corner plug (103), and a limiting ladder groove (201) is provided on the top and bottom of the sliding slot (105), and the inner wall of the limiting ladder groove (201) is slidably connected with the trapezoidal member (2).

3. The tempered glass with light regulation effect according to claim 1, characterized in that: The surface of the laminated glass (101) is provided with a linear array of limit embedding grooves (3); the bottom of the outer glass (1) is fixed with a limit embedding piece (301); the surface of the limit embedding piece (301) is slidably connected to the inner wall of the limit embedding groove (3).

4. The tempered glass with light regulation effect according to claim 1, characterized in that: The surface matrix of the outer layer of glass (1) is provided with frosted grooves (4).

5. The tempered glass with light regulation effect according to claim 1, characterized in that: A pressure clamping groove (401) is provided on the top of the outer layer of glass (1).

6. The tempered glass with light regulation effect according to claim 1, characterized in that: An anti-slip groove (106) is provided on the edge of the buffer corner (104).

7. The tempered glass with light regulation effect according to claim 1, characterized in that: The buffer angle (104) is set as an arc at the included angle.

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