Toughened glass of industrial equipment window
By combining ladder components with trapezoidal grooves and using interlayered steel wire mesh, the problem of loosening and cracking of tempered glass in industrial equipment windows caused by vibration and impact has been solved, achieving higher stability and safety and extending service life.
Patent Information
- Application Number
- CN202422446874.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-10
- Publication Date
- 2026-01-02
- Estimated Expiration
- 2034-10-10
AI Technical Summary
Existing tempered glass used in industrial equipment windows suffers from interlayer loosening due to vibrations in its multi-layered structure, affecting overall stability and safety. Furthermore, it is prone to shattering upon impact, increasing safety risks.
The design incorporates a combination of ladder-shaped components and trapezoidal grooves, with steel wire mesh embedded in the laminated glass and thickened glass fixed to the surface of the outer glass layer to enhance overall stability and impact resistance.
It improves the stability and safety of tempered glass in vibration environments, reduces the risk of glass breakage and flying shards, and enhances impact resistance and service life.
Smart Images

Figure CN223750418U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to toughened glass technical field especially relates to a kind of toughened glass of industrial equipment window. BACKGROUND
[0002] The application of toughened glass in industrial equipment window mainly includes improving equipment safety, enhancing equipment durability, improving equipment efficiency and the like, and the toughened glass has higher strength and impact resistance, can effectively protect equipment window from the influence of external environment, reduce the risk of equipment damage, and the weather resistance and corrosion resistance of toughened glass make it suitable for equipment window in various harsh environments, extend the service life of equipment.For high temperature, high pressure and other special working conditions, toughened glass can maintain good performance, ensure the stable operation of equipment.
[0003] In the prior art, toughened glass is usually installed on the equipment window, and the existing toughened glass solution is often made by adopting the way of multi-layer glass superposition combination, and the multi-layer structure of the toughened glass will be affected by the inevitable vibration on the window with the continuous operation of the equipment, the relative movement of interlayer glass caused by vibration will cause loosening, and this interlayer loosening phenomenon not only reduces the overall stability of the glass, but also damages the structural integrity, the impact resistance and bearing strength of the toughened glass will be seriously affected, in addition, the interlayer loosening will also form micro cracks on the surface of the glass, if the interlayer loosening problem is not discovered and handled in time, the glass will be broken without obvious external force in extreme cases, which increases the safety risk faced by workers. UTILITY MODEL CONTENT
[0004] The utility model aims at solving the shortcomings in the prior art, and provides a kind of toughened glass of industrial equipment window.
[0005] In order to achieve the above object, the utility model discloses the following technical scheme: A kind of toughened glass of industrial equipment window, including outer glass, the inner wall of the outer glass is equipped with inner groove, the inner wall of the inner groove is equipped with trapezoidal groove in four corners, trapezoidal groove inner wall is slidably connected with ladder piece, the interlayer glass is fixed in the one side of ladder piece, in prior art, equipment window is usually equipped with toughened glass, current toughened glass solution is often made in the way of multilayer glass superposition combination, this multilayer structure's toughened glass, with the continuous operation of equipment, the vibration that cannot avoid will be influenced on the multilayer toughened glass on window, vibration causes interlayer glass to move relatively, causes loosening, this interlayer loosening phenomenon not only reduces the overall stability of glass, also damages its structural integrity, impact resistance and bearing strength of toughened glass can be seriously affected, in addition, interlayer loosening also can form tiny crack on glass surface, if interlayer loosening problem is not discovered and handled in time, then in extreme case, glass can be broken without obvious external force, increase the security risk that staff faces, in view of such problems, the utility model uses the way of installing ladder piece, realizes when staff assembles toughened glass, they will slide interlayer glass ladder piece into the trapezoidal groove of outer glass, this design makes that outer glass and interlayer glass can be closely combined together, form a whole structure, to greatly improve the overall stability after assembly, this unique assembly method shows remarkable advantages when facing the vibration problem that industrial equipment operates commonly, since the precise combination of ladder piece and trapezoidal groove, even in the case of continuous equipment vibration, interlayer glass will not slide or deviate in outer glass, this is particularly important, because any relative movement leads to structural damage, in turn affect the durability and safety of window glass, in addition, this assembly technique also shares part of the pressure of fixed glue, in traditional toughened glass assembly, fixed glue usually bears the overall responsibility of keeping glass layer stable, and through this combination of ladder piece and trapezoidal groove, part of stress is dispersed, thereby reducing the pressure that fixed glue bears, in this way, not only reduce the fatigue damage of fixed glue due to excessive stress, also increase the fixing effect of entire toughened glass structure, prolong its service life, reach the effect of improving yield.
[0006] Preferably, the interlayer glass inner wall is provided with an interlayer groove, and the inner wall of the interlayer groove is fixed with a steel wire mesh. In the prior art, when industrial equipment is accidentally damaged, such as mechanical failure or operation error, the tempered glass will be broken into a large number of small fragments under strong impact. The number of these small fragments is large, and the splashing range is wide. Once these fragments enter the eyes of the workers, serious eye injuries will occur. The eye is a very sensitive organ, and even a small foreign body can cause vision loss, even blindness. In addition, eye injuries also prevent workers from continuing to work and require medical treatment, which not only causes physical and mental effects to the workers themselves, but also causes additional economic burden and legal liability to the enterprise. More seriously, such injuries often occur in production accidents, which means that in addition to individual injuries, larger-scale production interruptions also occur, and production equipment needs to be suspended for investigation and repair, which will affect the entire production process and increase the indirect costs of the enterprise. At the same time, the accident itself also needs to be thoroughly investigated to determine the cause and take measures to prevent similar incidents in the future, which is a further investment of time and resources. To solve such problems, the utility model adopts the installation of a steel wire mesh to achieve the purpose of enhancing the overall performance of the glass by pulling the interlayer glass through the steel wire mesh. The steel wire mesh plays a key role in this composite glass structure, and it is embedded in the interlayer glass and tightly combined with the glass layer. When the tempered glass is impacted, the steel wire mesh can effectively disperse the impact force and reduce the glass breaking. Even if the glass breaks in extreme cases, the steel wire mesh can also play a pulling role to prevent large-area crushing and splashing of glass fragments, thereby protecting surrounding workers and equipment from flying glass fragments, significantly improving the safety of the use environment. In addition, the setting of this composite glass not only improves the firmness of the glass, but also increases its impact resistance. The addition of the steel wire mesh enables the entire glass to more evenly disperse the force when subjected to external impact, reducing the direct impact on a single part and improving the overall damage resistance. This enhanced impact resistance is crucial for preventing production accidents, especially in industrial environments where machinery operates frequently and there is a risk of impact, achieving the effect of improving production safety.
[0007] Preferably, the outer layer glass is fixed with thickened glass, the area of the thickened glass is smaller than the area of the outer layer glass, in the prior art, the overall strength of the tempered glass is relatively high, but the impact resistance is not uniformly distributed, specifically, the impact resistance of the center point of the tempered glass is smaller than that of the edge, the reason for this phenomenon can be attributed to the unevenness of material stress distribution and edge effect, in the manufacturing process of the tempered glass, the edge part is usually cooled more, thereby generating stronger compressive stress, which makes the edge part more solid relative to the center, and the center area has relatively low impact resistance due to slower cooling speed and weaker compressive stress, such stress distribution characteristics lead to the fact that the tempered glass is more likely to break when impacted at the center, when operating industrial equipment, the face of the staff is often directly facing the center point of the tempered glass, such a working environment directly facing the tempered glass means that the lower impact resistance of the center point is directly related to the safety of the staff, if the tempered glass is broken by sufficient impact at the center point, the fragments will fly in all directions at a very high speed, and the face of the staff will be directly exposed to the risk of such flying, once the tempered glass fragments fly to the face of the staff, serious injuries will be caused, including scratches, bumps and even more serious eye injuries, such injuries not only threaten the health of the staff, but also cause production accidents and production interruptions, resulting in economic losses to the enterprise, in view of such problems, the utility model adopts the method of installing thickened glass to fix the thickened glass to the surface of the outer layer glass, which can significantly improve the overall durability and impact resistance of the glass, and further improve the safety of the production environment, the thickened glass can provide higher structural strength and better impact absorption capacity due to its increased thickness, when the thickened glass is fixed to the surface of the outer layer glass, it can provide an additional protective layer for the center area, so that even if the center area of the tempered glass is subjected to strong direct impact, the thickened glass can effectively disperse the impact force and reduce the damage to the center area, preventing the flying of glass fragments and protecting the staff from injury, in addition, such design also helps to enhance the thermal stability and durability of the entire window, because the thicker glass layer can better resist temperature changes and physical wear and tear, the stability and safety of such structure are crucial during long-term use, especially in industrial equipment working in high temperature, high pressure or corrosive environment, the scheme of fixing the thickened glass to the surface of the outer layer glass not only makes up for the deficiency of the tempered glass in the center impact resistance, but also provides a safer and more reliable working environment for industrial production, achieving the effect of improving production safety.
[0008] Preferably, the surface of the thickened glass is fixed with a reinforcing rib to improve the strength of the thickened glass and improve production safety.
[0009] Preferably, the outer layer glass top is fixed with a side triangle, one side of which is fixed with the thickened glass side, improving the mounting and fixing effect of the assembly.
[0010] Preferably, one end of the side triangle is fixed with an angle square pad, the bottom of which is fixed with the top of the outer layer glass, and the angle square pad assists the mounting and fixing of the side triangle, improving the yield.
[0011] Preferably, the top of the angle square pad is fixed with a right-angle ladder pad, the side of which is fixed with the side of the side triangle, improving the connection stability between the assemblies and improving the fixing effect.
[0012] Beneficial effects:
[0013] 1. In the prior art, tempered glass is usually installed on the window of the equipment, and the existing tempered glass solution is usually made by stacking multiple layers of glass. The multiple-layer tempered glass is inevitably affected by vibration during continuous operation of the equipment. The vibration causes relative movement between the interlayer glasses, causing loosening. This interlayer loosening not only reduces the overall stability of the glass, but also damages the structural integrity. The impact resistance and bearing strength of the tempered glass are severely affected. In addition, interlayer loosening can also form micro cracks on the surface of the glass. If the interlayer loosening problem is not discovered and handled in time, the glass may break without obvious external force in extreme cases, increasing the safety risk faced by workers. To solve this problem, the utility model adopts the installation of ladder pieces, which enables workers to slide the interlayer glass ladder piece into the trapezoidal groove of the outer layer glass when they assemble the tempered glass. This design enables the outer layer glass and the interlayer glass to be tightly combined together to form a whole structure, thereby greatly improving the overall stability after assembly. This unique assembly method has shown significant advantages in the face of common vibration problems in industrial equipment operation. Because of the precise combination of the ladder piece and the trapezoidal groove, even in the case of continuous vibration of the equipment, the interlayer glass will not slide or deviate in the outer layer glass. This is particularly important because any relative movement will cause structural damage, thereby affecting the durability and safety of the window glass. In addition, this assembly technique also shares part of the pressure of the fixing glue. In traditional tempered glass assembly, the fixing glue usually bears the entire responsibility of keeping the glass layers stable. Through this combination of ladder pieces and trapezoidal grooves, part of the stress is dispersed, thereby reducing the pressure on the fixing glue. This not only reduces the fatigue damage of the fixing glue due to excessive stress, but also increases the fixing effect of the entire tempered glass structure, prolongs its service life, and achieves the effect of improving the yield.
[0014] 2、In the prior art, when industrial equipment has an accident, such as mechanical failure or operation error, the tempered glass will be broken into a large number of small fragments under strong impact, the number of small fragments is large, and the flying range is wide, once these fragments enter the eyes of the workers, it will cause serious eye injury, the eye is a very sensitive organ, even a small foreign body will cause vision impairment, even blindness, in addition, eye injury also causes workers to be unable to continue work, and need medical treatment, which not only causes physical and mental impact to the workers themselves, but also brings additional economic burden and legal responsibility to the enterprise, more seriously, such injury often occurs in production accidents, which means that in addition to individual injury, it also causes larger-scale production interruption, the production equipment needs to be suspended for investigation and repair, which will affect the entire production process, increase the indirect cost of the enterprise, at the same time, the accident itself also needs to be thoroughly investigated to determine the cause and take measures to prevent similar events from happening in the future, which is a further investment of time and resources, in view of such problems, the utility model adopts the way of installing steel wire mesh to solve the problem, realizes the connection of the interlayer glass through the steel wire mesh, so as to enhance the overall performance of the glass, the steel wire mesh plays a key role in this composite glass structure, it is embedded in the interlayer glass and tightly combined with the glass layer, when the tempered glass is impacted, the steel wire mesh can effectively disperse the impact force and reduce the glass breaking, even if the glass breaks in extreme conditions, the steel wire mesh can also play a connecting role to prevent large-area crushing and flying of glass fragments, so as to protect the surrounding workers and equipment from being injured by flying glass fragments, and significantly improve the safety of the use environment, in addition, the setting of such composite glass not only improves the firmness of the glass, but also increases its impact resistance, the addition of steel wire mesh enables the whole glass to disperse the force more evenly when bearing external impact, reduces the direct impact on a single part, and improves the overall damage resistance, such enhanced impact resistance is crucial to prevent production accidents, especially in industrial environments where mechanical operation is frequent and there is a risk of impact, to improve production safety.
[0015] 3、In the prior art, the overall strength of tempered glass is relatively high, but its impact resistance is not uniformly distributed. Specifically, the impact resistance of the center point of the tempered glass is smaller than that of the edge. The reason for this phenomenon can be attributed to the unevenness of material stress distribution and edge effect. In the manufacturing process of tempered glass, the edge part is usually subjected to more cooling, thereby generating stronger compressive stress, which makes the edge part more solid relative to the center. The center region has relatively low impact resistance due to slower cooling speed, thereby forming weaker compressive stress. Such stress distribution characteristics lead to the fact that the tempered glass is more likely to break when subjected to a center impact. When operating industrial equipment, the face of the staff is often directly facing the center point of the tempered glass. Such a working environment directly facing the tempered glass means that the lower impact resistance of the center point is directly related to the safety of the staff. If the tempered glass is broken due to a strong impact on the center point, the fragments will fly at a very high speed in all directions, and the face of the staff will be directly exposed to the risk of such flying. Once the tempered glass fragments fly to the face of the staff, serious injuries will be caused, including scratches, bumps and even more serious eye injuries. Such injuries not only threaten the health of the staff, but also cause production accidents, leading to production interruption and economic losses to the enterprise. In view of such problems, the utility model adopts the method of installing thickened glass to fix the thickened glass to the surface of the outer glass. This method can significantly improve the overall durability and impact resistance of the glass, thereby improving the safety of the production environment. The thickened glass can provide higher structural strength and better impact absorption capacity due to its increased thickness. When the thickened glass is fixed to the surface of the outer glass, it can provide an additional protective layer for the center region. In this way, even if the center region of the tempered glass is subjected to a strong direct impact, the thickened glass can effectively disperse the impact force, reduce the damage to the center region, and prevent the flying of glass fragments, thereby protecting the staff from injury. In addition, this design also helps to enhance the thermal stability and durability of the entire viewing window, because the thicker glass layer can better resist temperature changes and physical wear. The stability and safety of this structure are crucial during long-term use, especially in industrial equipment working in high-temperature, high-pressure or corrosive environments. The scheme of fixing the thickened glass to the surface of the outer glass not only makes up for the deficiency of the tempered glass in terms of center impact resistance, but also provides a safer and more reliable working environment for industrial production, thereby achieving the effect of improving production safety. BRIEF DESCRIPTION OF DRAWINGS
[0016] Figure 1 is a schematic view of the utility model;
[0017] Figure 2 is a schematic view of the utility model right-angle ladder pad;
[0018] Figure 3 It is the three-dimensional structure schematic view of trapezoidal groove of the utility model;
[0019] Figure 4 It is the three-dimensional structure schematic view of the utility model;
[0020] Figure 5 It is the three-dimensional structure schematic view of interlayer groove of the utility model;
[0021] Figure 6 It is the sectional view of steel wire mesh of the utility model.
[0022] Legend:
[0023] 1, outer glass; 101, inner groove; 102, trapezoidal groove; 2, thickened glass; 201, reinforcing rib; 3, ladder piece; 301, laminated glass; 302, interlayer groove; 303, steel wire mesh; 4, side triangle; 401, angle square pad; 402, right-angle ladder pad. DETAILED DESCRIPTION
[0024] In order to make the technical means, creation features, purposes and effects realized by the utility model easy to understand, the following further describes the utility model by combining with specific embodiments and drawings, but the following embodiments are only preferred embodiments of the utility model, and not all. Based on the embodiments in the embodiments, other embodiments obtained by those skilled in the art without creative labor belong to the protection scope of the utility model.
[0025] The specific embodiments of the utility model are described below by combining with the drawings. Specific embodiments:
[0027] Reference Figures 1-6The utility model provides an industrial equipment window toughened glass, including outer glass 1, the inner wall of outer glass 1 is provided with inner side groove 101, the inner wall four corners of inner side groove 101 are provided with trapezoidal groove 102, trapezoidal groove 102 inner wall is connected with ladder piece 3 slidingly, ladder piece 3 one side is fixed with interlayer glass 301, equipment window usually installs toughened glass, current toughened glass solution often adopts the way of multilayer glass superposition combination and is made, and the multilayer structure toughened glass, with the continuous operation of equipment, the vibration of inevitable influence on the multilayer toughened glass on the window, vibration leads to the relative movement of interlayer glass, causes loose, and this interlayer loose phenomenon not only reduces the overall stability of glass, also damages its structural integrity, and the impact resistance and bearing strength of toughened glass are seriously influenced, in addition, interlayer loose also can form microcrack on the glass surface, if the interlayer loose problem is not discovered and handled in time, then under extreme conditions, glass can break down without obvious external force, increase the security risk that the staff faces, adopt the way of installation ladder piece 3 solution, realize when staff assembles toughened glass, they will slide into the trapezoidal groove 102 of outer glass 1 with the ladder piece 3 of interlayer glass 301, and this design makes outer glass 1 and interlayer glass 301 can be closely combined together and form a whole structure, thereby greatly improve the overall stability after assembly, this unique assembly method shows the remarkable advantage when facing the vibration problem that industrial equipment operates commonly, because the precise combination of ladder piece 3 and trapezoidal groove 102, even under the condition of continuous vibration of equipment, interlayer glass 301 also will not slide or deviate in outer glass 1, this is particularly important, because any relative movement leads to structural damage, and then influence the durability and safety of window glass, in addition, this assembly technique also shares part of the pressure of fixed glue, in traditional toughened glass assembly, fixed glue usually bears the overall responsibility of keeping glass layer stable, and through this combination of ladder piece 3 and trapezoidal groove 102, part of stress is dispersed, thereby reducing the pressure that fixed glue bears, like this, not only reduce the fatigue damage of fixed glue due to excessive stress, also increase the fixing effect of entire toughened glass structure, prolong its service life, reach the effect of improving yield.The inner wall of the laminated glass 301 is provided with an interlayer groove 302, and the inner wall of the interlayer groove 302 is fixed with a steel wire mesh 303. When an accident occurs in industrial equipment, such as mechanical failure or operation error, the tempered glass will be broken into a large number of small fragments due to strong impact. The number of these small fragments is large, and the splashing range is wide. Once these fragments enter the eyes of the workers, it will cause serious eye injury. The eye is a very sensitive organ, even a small foreign body can cause vision loss, even blindness. In addition, eye injury also causes workers to be unable to continue working and need medical treatment, which not only causes physical and mental impact to the workers themselves, but also brings additional economic burden and legal responsibility to the enterprise. More seriously, such injuries often occur in production accidents, which means that in addition to individual injuries, it also leads to larger-scale production interruption, and production equipment needs to be suspended for investigation and repair, which will affect the entire production process and increase the indirect cost of the enterprise. At the same time, the accident itself also needs to be thoroughly investigated to determine the cause and take measures to prevent similar events from happening in the future, which is a further investment of time and resources. The installation of the steel wire mesh 303 solves the problem by connecting the laminated glass 301 through the steel wire mesh 303 to achieve the purpose of enhancing the overall performance of the glass. The steel wire mesh 303 plays a key role in this composite glass structure, it is embedded in the laminated glass 301 and tightly combined with the glass layer. When the tempered glass is impacted, the steel wire mesh 303 can effectively disperse the impact force and reduce the glass breaking situation. Even if the glass breaks in extreme circumstances, the steel wire mesh 303 can also play a connecting role to prevent large-area crushing and splashing of glass fragments, thereby protecting surrounding workers and equipment from flying glass fragments, significantly improving the safety of the use environment. In addition, the setting of this composite glass not only improves the firmness of the glass, but also increases its impact resistance. The addition of the steel wire mesh 303 makes the whole glass more evenly disperse the force when subjected to external impact, reducing the direct impact on a single part and improving the overall anti-damage performance. This enhanced impact resistance is crucial for preventing production accidents, especially in industrial environments where machinery operates frequently and there is a risk of impact, achieving the effect of improving production safety.
[0028] The outer glass 1 is fixed with a thickened glass 2 on the top. The area of the thickened glass 2 is smaller than that of the outer glass 1, and the overall strength of the tempered glass is relatively high, but its impact resistance is not uniformly distributed. Specifically, the impact resistance of the center of the tempered glass is smaller than that of the edge. The reason for this phenomenon can be attributed to the unevenness of material stress distribution and the edge effect. During the manufacturing process of the tempered glass, the edge part usually receives more cooling, resulting in stronger compressive stress, which makes the edge part more solid relative to the center. However, the center area has a relatively low impact resistance due to the slower cooling speed, which forms a weaker compressive stress. This stress distribution feature leads to the fact that the tempered glass is more likely to break when impacted at the center. When operating industrial equipment, workers often face the center of the tempered glass. This working environment directly facing the tempered glass means that the lower impact resistance of the center point is directly related to the safety of the workers. If the tempered glass breaks at the center point due to sufficient impact, the fragments will fly in all directions at a very high speed, and the workers' faces will be directly exposed to this risk. Once the tempered glass fragments hit the workers' faces, it will cause serious injuries, including scratches, bruises, and even more serious eye injuries. Such injuries not only threaten the health of workers but also cause production accidents, leading to production interruptions and economic losses for enterprises. The solution is to install a thickened glass 2, which can significantly improve the overall durability and impact resistance of the glass, thereby enhancing the safety of the production environment. The thickened glass 2, due to its increased thickness, can provide higher structural strength and better impact absorption capacity. When this thickened glass 2 is fixed on the surface of the outer glass 1, it can provide an additional protective layer for the center area. In this way, even if the center area of the tempered glass is subjected to a strong direct impact, the thickened glass 2 can effectively disperse the impact force and reduce the damage to the center area, preventing the flying of glass fragments and protecting workers from injury. In addition, this design helps to enhance the thermal stability and durability of the entire window, as the thicker glass layer can better resist temperature changes and physical wear and tear. The stability and safety of this structure are crucial, especially in industrial equipment that operates in high-temperature, high-pressure, or corrosive environments. The scheme of fixing the thickened glass 2 on the surface of the outer glass 1 not only makes up for the shortcomings of the tempered glass in terms of center impact resistance but also provides a safer and more reliable working environment for industrial production, achieving the effect of improving production safety. The thickened glass 2 is fixed with a reinforcing rib 201 on the surface, which improves the strength of the thickened glass 2 and improves production safety. The outer glass 1 is fixed with a side triangle 4 on the top, and one side of the side triangle 4 is fixed with the side of the thickened glass 2, which improves the installation and fixing effect of the assembly.The edge triangle 4 is fixed with an angle square pad 401 at one end, the bottom of the angle square pad 401 is fixed with the top of the outer layer glass 1, the angle square pad 401 assists the installation and fixation of the edge triangle 4, and the yield is improved. The top of the angle square pad 401 is fixed with a right-angle ladder pad 402, the side of the right-angle ladder pad 402 is fixed with the side of the edge triangle 4, the connection stability between the components is improved, and the fixation effect is improved.
[0029] The working principle of the utility model is: when the staff assembles the tempered glass, they will slide the ladder piece 3 of the laminated glass 301 into the trapezoidal groove 102 of the outer layer glass 1, the design makes the outer layer glass 1 and the laminated glass 301 be closely combined together to form an integral structure, thereby greatly improving the overall stability after assembly, the unique assembly mode shows remarkable advantages when facing the vibration problem common in industrial equipment operation, since the precise combination of the ladder piece 3 and the trapezoidal groove 102, even in the case of continuous vibration of the equipment, the laminated glass 301 will not slide or deviate in the outer layer glass 1.
[0030] In the utility model, unless otherwise specified and limited, the first feature is "on" or "under" the second feature, which can include direct contact between the first and second features, or indirect contact between the first and second features through another feature therebetween. Moreover, the first feature "on", "above" and "above" the second feature includes the first feature directly above and obliquely above the second feature, or only indicates that the first feature is higher than the second feature in horizontal height. The first feature "under", "below" and "below" the second feature includes the first feature directly below and obliquely below the second feature, or only indicates that the first feature is lower than the second feature in horizontal height.
[0031] The basic principle, main features and advantages of the utility model are shown and described above. Those skilled in the art should understand that the utility model is not limited by the above examples, and the above examples and descriptions in the specification are only preferred examples of the utility model and do not limit the utility model. Without departing from the spirit and scope of the utility model, the utility model can also have various changes and improvements, and these changes and improvements all fall within the scope of the claimed utility model. The scope of protection of the utility model is defined by the appended claims and their equivalents.
Claims
1. A tempered glass for an industrial equipment viewing window, comprising an outer glass layer (1), characterized in that: The inner wall of the outer glass (1) is provided with an inner groove (101), and the four corners of the inner wall of the inner groove (101) are provided with trapezoidal grooves (102). A ladder member (3) is slidably connected to the inner wall of the trapezoidal groove (102), and a laminated glass (301) is fixed on one side of the ladder member (3).
2. The tempered glass for an industrial equipment viewing window according to claim 1, characterized in that: The inner wall of the laminated glass (301) is provided with an interlayer groove (302), and a wire mesh (303) is fixed to the inner wall of the interlayer groove (302).
3. The tempered glass for an industrial equipment viewing window according to claim 1, characterized in that: The outer glass (1) is fixed with a thickened glass (2) on top, and the area of the thickened glass (2) is smaller than the area of the outer glass (1).
4. The tempered glass for an industrial equipment viewing window according to claim 3, characterized in that: The thickened glass (2) has reinforcing ribs (201) fixed on its surface.
5. The tempered glass for an industrial equipment viewing window according to claim 1, characterized in that: The top of the outer glass (1) is fixed with a side triangle (4), and one side of the side triangle (4) is fixed to the side of the thickened glass (2).
6. The tempered glass for an industrial equipment viewing window according to claim 5, characterized in that: One end of the side triangle (4) is fixed with a corner pad (401), and the bottom of the corner pad (401) is fixed to the top of the outer glass (1).
7. The tempered glass for an industrial equipment viewing window according to claim 6, characterized in that: The corner square pad (401) is fixed with a right-angled ladder pad (402) on top, and the side of the right-angled ladder pad (402) is fixed with the side of the side triangle (4).