Heat preservation and insulation type coated glass

Abstract

The invention relates to the technical field of heat insulation glass, in particular to heat preservation and insulation type coated glass. Heat preservation and insulation type coated glass comprises a frame, the frame is fixedly connected with evenly-arranged guide rods, the sides, away from the frame, of the guide rods are slidably connected with sliding sleeves, the evenly-arranged sliding sleeves are jointly and fixedly connected with a movable frame, and an elastic piece is fixedly connected between the movable frame and the frame. First glass is installed on the side, away from the frame, of the movable frame, second glass is installed on the side, close to the first glass, of the frame, a first cavity is formed among the elastic piece, the first glass and the second glass, and the movable frame is rotationally connected with rotating rods arranged in a mirror image mode. The length of the first cavity in the front-back direction is changed by changing the distance between the frame and the movable frame, so that the thickness of the vacuum layer is changed, the length of a heat conduction path between indoor and outdoor is prolonged, and the heat insulation effect is improved.

Description

Technical Field

[0001] The invention relates to the technical field of heat-insulating glass, and in particular to a heat-insulating coated glass. Background Art

[0002] Glass is an amorphous, non-crystalline solid material composed of inorganic components such as silicates. Due to its good light transmittance, mechanical strength and corrosion resistance, it is widely used in construction, optics and other fields. Especially in the construction field, glass, as an intermediate between indoor and outdoor environments, bears the responsibility of thermal insulation and wind and rain protection. Vacuum glass has a significant thermal insulation effect and is widely used because it has a vacuum area that blocks heat conduction.

[0003] The vacuum area in the existing vacuum glass usually cannot be changed, but is determined when it leaves the factory. Therefore, the existing vacuum glass cannot be changed accordingly according to the temperature difference between indoor and outdoor during use. When the outdoor temperature is high enough to penetrate the vacuum glass, the vacuum glass loses its heat insulation effect. Based on the above-mentioned problem, the present invention provides a thermal insulation coated glass. Summary of the invention

[0004] In order to overcome the shortcomings mentioned in the above technical background, the present invention provides a thermal insulation coated glass.

[0005] The technical implementation scheme of the present invention is: a thermal insulation coated glass, comprising a frame, the frame is fixedly connected with uniformly arranged guide rods, the guide rods are slidably connected with a sliding sleeve on the side away from the frame, the uniformly arranged sliding sleeves are commonly fixedly connected with a moving frame, an elastic member is fixedly connected between the moving frame and the frame, a first glass is installed on the side of the moving frame away from the frame, a second glass is installed on the side of the frame close to the first glass, a first cavity is arranged between the elastic member, the first glass and the second glass, the moving frame is rotatably connected with a mirror-arranged rotating rod, the rotating rod is rotatably connected to the adjacent sliding sleeve, the rotating rod is fixedly connected with a handle, a limiting mechanism for making the sliding sleeve and the adjacent guide rod relatively stationary is arranged on the outside of the moving frame, and an adjusting mechanism for adjusting the pressure in the first cavity is arranged on the outside of the elastic member.

[0006] As an improvement on the above scheme, the limiting mechanism includes evenly arranged support plates, which are fixedly connected to the side of the movable frame away from the first glass, and the opposite sides of the sliding sleeves close to the same rotating rod and adjacent to the sliding sleeves are slidably connected to limiting blocks, and the side of the guide rod close to the adjacent limiting block is provided with equidistantly arranged limiting grooves, and the limiting grooves are limitedly cooperated with the adjacent limiting blocks, and the opposite sides of the sliding rods close to the same rotating rod and adjacent to the limiting blocks are fixedly connected with sliding rods, the sliding rods are slidably connected to the adjacent support plates, and a first elastic element is fixedly connected between the sliding rod and the adjacent support plates.

[0007] As an improvement of the above scheme, the rotating rod is fixedly connected with a limit strip arranged in a mirror image, the sliding rod is fixedly connected with a limit protrusion on one side close to the adjacent limit strip, the limit protrusion cooperates with the adjacent limit strip, and a second elastic element arranged in a mirror image is fixedly connected between the rotating rod and the movable frame.

[0008] As an improvement of the above solution, the limit strip is arc-shaped, and the distance between the limit strips arranged in a mirror image on the same rotating rod gradually increases from one side close to the frame to the other side, so as to enable relative movement between adjacent sliding rods and adjacent support plates.

[0009] As an improvement of the above scheme, the adjustment mechanism includes evenly arranged adjustment shells, the evenly arranged adjustment shells are all fixedly connected to the elastic member, the adjustment shells are communicated with the first cavity, a moving member is slidably connected inside the adjustment shell, the frame and the moving frame are fixedly connected to evenly arranged extrusion members on opposite sides, moving blocks are fixedly connected to opposite sides of the moving members close to different rotating rods and adjacent to the moving members, the moving blocks are limitedly matched with the adjacent extrusion members, and the moving member is equipped with a valve body that passes through it.

[0010] As an improvement of the above scheme, the sum of the changes in the space between the two caused by the sliding of the evenly arranged moving parts on the adjacent adjusting shells is equal to the change in the space between the two caused by the relative movement of the first glass and the second glass, which is used to maintain the pressure balance in the first cavity.

[0011] As an improvement of the above scheme, it also includes a temperature changing mechanism for changing the temperature of the second glass, the temperature changing mechanism is arranged on the side of the frame away from the sliding sleeve, the temperature changing mechanism includes a third glass, the third glass is installed on the side of the frame away from the sliding sleeve, a second cavity is arranged between the frame, the second glass and the third glass, the frame is fixedly connected with a first tube and a second tube, the first tube and the second tube are both connected to the second cavity, the first tube is connected to an external water tank, and the second tube is connected to an external pump body.

[0012] As an improvement of the above solution, the force exerted by the external pump body on the second cavity is equal to the force in the first cavity, so as to balance the force on the second glass.

[0013] As an improvement of the above solution, the second tube is located above the first tube and is used to determine the flow direction of the fluid in the second cavity.

[0014] As an improvement of the above solution, a side of the third glass close to the second glass is an arc-shaped surface for collecting sunlight.

[0015] Compared with the prior art, the present invention has at least the following beneficial effects: the present invention changes the distance between the frame and the moving frame to change the length of the first cavity in the front-to-back direction, thereby changing the thickness of the vacuum layer, extending the length of the heat conduction path between the indoor and outdoor, and thus improving the heat insulation effect; the coating on the outer sides of the first glass and the second glass is used to enhance the hardness of the two and improve the wear resistance of the two, thereby extending the service life of the first glass and the second glass, and at the same time ensuring the transparency of the first glass and the second glass; the change in space between the moving part and the adjacent adjustment shell is used to compensate for the change in space in the first cavity, so that the vacuum degree in the first cavity remains stable, thereby preventing the change in vacuum degree in the first cavity due to the space change in the first cavity, causing the first glass and the second glass to be subjected to unnecessary stress changes, thereby stabilizing the force on the two and extending the service life of the two; an external pump body applies an upward suction force to the water in the second cavity, so that the water in the second cavity is subjected to an upward and gradually changing pressure, and the changing pressure is used to offset the water pressure on the second glass and the third glass at different heights in the second cavity, so as to balance the force on the second glass and the third glass and avoid uneven force on the two. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic diagram of the overall three-dimensional structure of the present invention; Figure 2 It is a schematic diagram of the three-dimensional structure of the frame and the moving frame of the present invention when they move relative to each other; Figure 3 It is a three-dimensional structure explosion diagram of the frame, the moving frame and the elastic member of the present invention; Figure 4 It is a schematic diagram of the three-dimensional structure when the guide rod and the adjacent sliding sleeve of the present invention move relative to each other; Figure 5 It is a schematic diagram of the three-dimensional structure when the rotating rod and the moving frame of the present invention rotate relative to each other; Figure 6 It is a three-dimensional structural exploded diagram of the sliding sleeve and parts thereon of the present invention; Figure 7It is a schematic diagram of the three-dimensional structure of the regulating shell of the present invention when relative motion occurs with the adjacent moving parts; Figure 8 This is a three-dimensional structural exploded view of the regulating housing and parts thereon of the present invention; Fig. 9 It is a three-dimensional structural cross-sectional view of the frame of the present invention and its upper parts.

[0017] Wherein: 1: frame, 2: guide rod, 3: sliding sleeve, 4: moving frame, 5: elastic member, 6: first glass, 7: second glass, 8: rotating rod, 9: handle, 1001: support plate, 1002: limiting block, 1003: sliding rod, 1004: first elastic element, 1005: limiting strip, 1006: limiting protrusion, 1007: limiting groove, 1008: second elastic element, 1101: adjusting shell, 1102: moving member, 1103: extruding member, 1104: moving block, 1105: valve body, 12: third glass, 13: first tube, 14: second tube. DETAILED DESCRIPTION

[0018] In order to make the above-mentioned purposes, features and advantages of the present invention more obvious and easy to understand, the specific implementation mode of the present invention is described in detail below in conjunction with the accompanying drawings. In the following description, many specific details are elaborated to facilitate a full understanding of the present invention. However, the present invention can be implemented in many other ways different from those described herein. Those skilled in the art can make similar improvements without violating the connotation of the present invention. Therefore, the present invention is not limited to the specific embodiments disclosed below.

[0019] The vacuum area in existing vacuum glass is usually not changeable, so the existing vacuum glass cannot be changed according to the temperature difference between indoor and outdoor during use. When the outdoor temperature is high enough to penetrate the vacuum glass, the vacuum glass loses its heat insulation effect.

[0020] Embodiment 1: A heat-insulating coated glass, such as Figure 1-Figure 4As shown, a frame 1 is included, the frame 1 is fixedly connected to four uniformly arranged guide rods 2, the four guide rods 2 are arranged in pairs and in mirror image, and the four guide rods 2 are respectively located at the upper and lower sides of the frame 1, the front side of the guide rod 2 is slidably connected to a sliding sleeve 3, the front sides of the four sliding sleeves 3 are commonly fixedly connected to a moving frame 4, an elastic member 5 is fixedly connected between the moving frame 4 and the frame 1, the elastic member 5 is elastic rubber, a first glass 6 is installed on the front side of the moving frame 4, a second glass 7 is installed on the front side of the frame 1, a first cavity is arranged between the elastic member 5, the first glass 6 and the second glass 7, the outer sides of the first glass 6 and the second glass 7 are both provided with a coating to improve the hardness, the first cavity The body is used to create a vacuum area to isolate the external heat. The length of the first cavity in the front-to-back direction is changed by changing the distance between the frame 1 and the moving frame 4, so as to change the thickness of the vacuum layer, and then change the heat insulation capacity of the vacuum layer, so that the heat insulation capacity of the vacuum layer matches the temperature difference between indoor and outdoor. The moving frame 4 is rotatably connected to two rotating rods 8 arranged in upper and lower mirror images. The rotating rod 8 is rotatably connected to the adjacent sliding sleeve 3. A handle 9 is fixedly connected to the middle of the rotating rod 8. A limiting mechanism for making the sliding sleeve 3 and the adjacent guide rod 2 relatively stationary is arranged on the outer side of the moving frame 4. An adjusting mechanism for adjusting the pressure in the first cavity is arranged on the outside of the elastic member 5.

[0021] like Figure 4-Figure 6 As shown, the limiting mechanism includes four evenly arranged support plates 1001, and the four support plates 1001 are fixedly connected to the upper and lower sides of the moving frame 4 in the form of a left and right mirror arrangement, two by two, respectively. The opposite sides of the two adjacent sliding sleeves 3 on the left and right are slidably connected to the limiting blocks 1002, and the back sides of the two adjacent limiting blocks 1002 on the left and right are both inclined surfaces, and the distance between the inclined surfaces on the two adjacent limiting blocks 1002 on the left and right gradually decreases from the back to the front, and the opposite sides of the two adjacent guide rods 2 on the left and right are provided with a plurality of equally spaced limiting grooves 1007, the limiting grooves 1007 are right triangles, and the limiting grooves 1007 cooperate with the adjacent limiting blocks 1002 to limit. The adjacent limit block 1002 is limited by the right-angled side surface on the rear side of the limit groove 1007, so that the limit block 1002 and the adjacent guide rod 2 remain relatively still, and the adjacent limit block 1002 is limited by the inclined side surface on the front side of the limit groove 1007, so that the limit block 1002 and the adjacent guide rod 2 slide relatively, and the opposite sides of the two adjacent limit blocks 1002 on the left and right are fixedly connected with a sliding rod 1003 that is slidably connected to the adjacent support plate 1001, and a first elastic element 1004 is fixedly connected between the sliding rod 1003 and the adjacent support plate 1001, and the first elastic element 1004 is a spring, which is used to reset the adjacent sliding rod 1003.

[0022] like Figure 4-Figure 6As shown, the upper side of the rotating rod 8 is fixedly connected with two limit bars 1005 arranged in left and right mirror images. The limit bars 1005 are arc-shaped, and the distance between the two limit bars 1005 on the same rotating rod 8 gradually increases from back to front, which is used to make adjacent sliding rods 1003 and adjacent support plates 1001 move relative to each other. The lower side of the sliding rod 1003 is fixedly connected with a limit protrusion 1006, and the limit protrusion 1006 cooperates with the adjacent limit bars 1005. The adjacent limit protrusions 1006 are squeezed by the limit bar 1005 to make the two adjacent sliding rods 1003 move toward each other on the left and right. A second elastic element 1008 arranged in a mirror image is fixedly connected between the rotating rod 8 and the moving frame 4. The second elastic element 1008 is a torsion spring, which is used to reset the adjacent rotating rods 8.

[0023] like Figure 1 , Figure 4 , Figure 5 , Figure 7 and Figure 8 As shown, the adjustment mechanism includes six evenly arranged adjustment shells 1101, the six adjustment shells 1101 are all fixedly connected to the elastic member 5, the six adjustment shells 1101 are divided into two groups arranged in upper and lower mirror images, each group contains three equidistantly arranged, the adjustment shell 1101 is connected to the first cavity, a moving member 1102 is slidably connected inside the adjustment shell 1101, the sum of the changes in the space between the two caused by the six moving members 1102 sliding on adjacent adjustment shells 1101 is equal to the change in the space between the two caused by the relative movement of the first glass 6 and the second glass 7, which is used to maintain the pressure balance in the first cavity and prevent the vacuum degree in the first cavity from increasing (negative pressure increasing) due to the space change in the first cavity, thereby causing the first glass 6 and the second glass 7 to be subjected to unnecessary stress changes, thereby reducing the service life of the two, the frame 1 and the moving frame 4 are fixedly connected to the opposite sides thereof with six evenly arranged extrusion members 1103, the two adjacent extrusion members 1103 are arranged in a mirror image, and the two adjacent extrusion members 1103 are arranged in a mirror image. The opposite sides of the extrusion pieces 1103 are each provided with a first inclined surface, and the distance between the first inclined surfaces on the two adjacent front and rear extrusion pieces 1103 gradually decreases from one side close to the adjacent adjusting shell 1101 to the other side, and the opposite sides of the two upper and lower adjacent moving pieces 1102 are each fixedly connected with a moving block 1104, and the moving block 1104 is provided with two second inclined surfaces arranged in a front-to-back mirrored manner, and the distance between the two second inclined surfaces on the same moving block 1104 gradually decreases from one side close to the adjacent adjusting shell 1101 to the other side, and the first inclined surface on the extrusion piece 1103 is extruded and matched with the adjacent second inclined surfaces on the adjacent moving block 1104, and the adjacent second inclined surfaces on the adjacent moving block 1104 are extruded by the first inclined surfaces on the two adjacent front and rear extrusion pieces 1103, so that the two upper and lower adjacent moving blocks 1104 move back to back, and the moving piece 1102 is installed with a valve body 1105 passing through it, and the valve body 1105 is used to change the environment (normal or negative pressure) in the first cavity.

[0024] When the present invention is needed, the user first installs the first glass 6, the second glass 7 and other parts on the frame 1, and then connects the external vacuum pump to any valve body 1105. Then the vacuum pump works and extracts the air in the first cavity through the adjacent valve body 1105, so that the environment in the first cavity becomes a vacuum. Then the user installs the assembled frame 1 (glass assembly) on the window of the target area. During the use of the present invention, when sunlight shines on the second glass 7, since the vacuum itself has no heat capacity and cannot absorb heat, the conduction of heat in the sunlight is effectively blocked, so that there is no heat exchange between indoors and outdoors, thereby ensuring the stability of the indoor temperature. At the same time, since the coating on the outside of the first glass 6 and the second glass 7 enhances the hardness of the two, the wear resistance of the two is improved, thereby reducing the wear caused by the movement of particles in the external environment, thereby extending the service life of the first glass 6 and the second glass 7, and at the same time ensuring the transparency of the first glass 6 and the second glass 7.

[0025] When the outdoor temperature is high, the user pulls the two handles 9 forward with both hands, and the handles 9 drive the adjacent rotating rods 8 to move forward together, and the rotating rods 8 drive the moving frame 4, the two adjacent sliding sleeves 3 and the two adjacent support plates 1001 to move forward together, and the elastic member 5 is stretched and deformed, and the space of the first cavity is increased, thereby changing the thickness of the vacuum layer, extending the length of the heat conduction path, and thus improving the heat insulation effect, and the sliding sleeve 3 slides relative to the adjacent guide rod 2, and the sliding sleeve 3 drives the adjacent limit block 1002 and the adjacent sliding rod 1003 to move forward together, and the sliding rod 1003 drives the adjacent first elastic element 1004 to move forward together, and the limit block 1002 starts to move in the adjacent The two limit blocks 1002 adjacent to each other on the left and right sides are squeezed by the adjacent limit grooves 1007 and start to move toward each other. The first elastic element 1004 is compressed, and the limit block 1002 drives the adjacent sliding rod 1003 to move together. When the limit block 1002 moves forward and crosses the adjacent limit groove 1007, the limit groove 1007 loses the limit on the adjacent limit block 1002. Subsequently, the limit block 1002 starts to reset under the action of the elastic force of the adjacent first elastic element 1004, and cooperates with the adjacent limit groove 1007. The two handles 9 are continuously pulled forward until the vacuum layer in the first cavity reaches the target thickness and the user stops pulling the two handles 9.

[0026] In order to improve the service life of the first glass 6 and the second glass 7, the position of the moving block 1104 on the adjacent extrusion piece 1103 is changed through the relative movement between the frame 1 and the moving frame 4, so as to change the positional relationship between the adjusting shell 1101 and the adjacent moving piece 1102, so that the thickness of the vacuum layer is increased while the space of the first cavity remains unchanged, thereby avoiding the first glass 6 and the second glass 7 from being subjected to force changes due to the change in the vacuum level in the first cavity, so that the first glass 6 and the second glass 7 are subjected to cyclic stress, and finally the service life of the first glass 6 and the second glass 7 is reduced. The detailed steps are as follows: in the process of the moving frame 4 moving forward, the moving frame 4 drives the six extrusion pieces 1103 thereon to move forward together, the six adjusting shells 1101 move forward together following the deformation of the elastic piece 5, the adjusting shell 1101 drives the adjacent moving piece 1102 to move forward together, and the front and rear adjacent The distance between the two extrusion members 1103 gradually increases, and because the first cavity is a vacuum environment, the two upper and lower adjacent moving members 1102 tend to move toward each other (the two upper and lower adjacent moving blocks 1104 tend to move toward each other), and then the two upper and lower adjacent moving blocks 1104 begin to move toward each other, and the second inclined surface on the moving block 1104 begins to slide along the first inclined surface on the adjacent extrusion member 1103, and the moving block 1104 drives the adjacent moving member 1102 to move together, thereby utilizing the spatial change between the moving member 1102 and the adjacent adjustment shell 1101 to compensate for the change in space in the first cavity, so that the vacuum degree in the first cavity remains stable, thereby preventing the change in the vacuum degree in the first cavity due to the change in space in the first cavity, causing the first glass 6 and the second glass 7 to be subjected to unnecessary stress changes, thereby stabilizing the force on the two and extending the service life of the two.

[0027] When the outdoor temperature is low, the user deflects the two handles 9 towards each other, and the handles 9 drive the adjacent rotating rods 8 to rotate together, the second elastic element 1008 is deformed, the rotating rod 8 and the adjacent supporting plate 1001 rotate relatively, the rotating rod 8 drives the adjacent limiting strip 1005 to rotate together, the limiting strip 1005 begins to squeeze the adjacent limiting protrusion 1006, and then the two adjacent limiting protrusions 1006 on the left and right begin to move towards each other, the limiting protrusion 1006 drives the adjacent sliding rod 1003 to move together, the adjacent first elastic element 1004 is compressed, and the sliding rod 1003 drives The adjacent limit blocks 1002 move together, and the limit blocks 1002 and the adjacent limit grooves 1007 gradually lose the limit matching relationship. When the limit blocks 1002 and the adjacent limit grooves 1007 completely lose the limit matching relationship, the moving frame 4 and the parts thereon begin to move backward under the action of the negative pressure in the first cavity, and the elastic member 5 gradually returns to its original position. The first inclined surfaces on the two adjacent front and rear extrusion members 1103 begin to squeeze the adjacent second inclined surfaces on the adjacent moving blocks 1104, and then the two adjacent upper and lower moving blocks 1104 begin to move backwards until the moving frame 4 and the parts thereon are all returned to their original position.

[0028] If negative pressure is applied to the upper part of a container filled with liquid medium, a downward pressure gradient will be generated. This is due to the incompressibility of the liquid and the effect of pressure. When the liquid in the container is extracted by negative pressure, the liquid in the container as a whole has a tendency to move upward. The force generated by the negative pressure will exert different forces on the liquid at different heights, thereby offsetting the difference in pressure of the liquid at different heights of the container.

[0029] Embodiment 2: Based on embodiment 1, Figure 1 , Figure 2 and Fig. 9As shown, it also includes a temperature changing mechanism for changing the temperature of the second glass 7, the temperature changing mechanism is arranged on the rear side of the frame 1, and the temperature changing mechanism includes a third glass 12, the front side of the third glass 12 is an arc surface (it can also be a spherical surface, and the specific shape can be changed accordingly according to actual conditions), which is used to collect sunlight, and the force applied by the external pump body to the second cavity is equal to the force in the first cavity, which is used to balance the force on the second glass 7 (the negative pressures on both sides offset each other), the third glass 12 is installed on the rear side of the frame 1, and a second cavity is arranged between the frame 1, the second glass 7 and the third glass 12, and the frame 1 is fixedly connected to the first tube 1 3 and the second tube 14, the first tube 13 and the second tube 14 are both connected to the second cavity, the first tube 13 is connected to the external water tank, and water is injected into the second cavity so that the water fits tightly with the front side of the third glass 12, thereby offsetting the curved surface of the third glass 12, so that the third glass 12 loses the ability to gather light, thereby separating the indoor and outdoor, the second tube 14 is connected to the external pump body, the second tube 14 is located above the first tube 13, and is used to determine the flow direction of the fluid in the second cavity, so as to use the negative pressure from top to bottom in the second cavity to offset the water pressure on the second glass 7 and the third glass 12 at different heights in the second cavity.

[0030] In order to increase the scope of application of the present invention, the path of the light is changed by the third glass 12, thereby changing the intensity of the outdoor sunlight acting on the indoor room, so that the indoor temperature can be adjusted differently according to the difference with the outdoor temperature, thereby increasing the scope of application. The detailed steps are as follows: when assembling the present invention, the user installs the third glass 12 on the rear side of the frame 1. When it is necessary to absorb the heat from the outdoor sunlight, the user does not perform a vacuum operation on the first cavity. In this way, when the light passes through the third glass 12, the third glass 12 will gather the light and transfer the heat to the indoor room after concentration, thereby utilizing the outdoor heat to heat the indoor room and reduce energy consumption.

[0031] When the outdoor temperature is too high, in order to isolate the heat transfer between indoor and outdoor, the user injects water into the second cavity through an external water tank, and uses an external vacuum pump to extract the air in the first cavity again, so that the first cavity becomes a vacuum environment, and then uses an external pump to extract water in the second cavity, and uses water to absorb the heat in the sunlight to prevent heat exchange between indoor and outdoor. At the same time, water is used to offset the curved surface on the front side of the third glass 12 (the third glass 12 and the water in the second cavity are integrated, which is equivalent to a thickened glass), so that the third glass 12 loses the ability to gather light, thereby isolating the temperature between indoor and outdoor.

[0032] During the operation of the external pump body, the water in the second cavity is sucked by the pump body and enters the external water tank through the second tube 14, so that the water in the second cavity is subjected to an upward pressure that gradually changes, and the changing pressure is used to offset the water pressure on the second glass 7 and the third glass 12 at different heights in the second cavity, thereby balancing the force on the second glass 7 and the third glass 12 to avoid uneven force on the two glasses, which may lead to breakage.

[0033] Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field and related fields without creative work should fall within the scope of protection of the present invention. The structures, devices and operating methods not specifically described and explained in the present invention are implemented according to the conventional means in the field unless otherwise specified and limited.

Claims

1. A heat-insulating coated glass, comprising a frame (1), the frame (1) being fixedly connected to uniformly arranged guide rods (2), the guide rods (2) being slidably connected to a sliding sleeve (3) on a side away from the frame (1), characterized in that: The invention also comprises a moving frame (4), wherein the moving frame (4) is fixedly connected between the evenly arranged sliding sleeves (3), an elastic member (5) is fixedly connected between the moving frame (4) and the frame (1), a first glass (6) is installed on a side of the moving frame (4) away from the frame (1), and a second glass (7) is installed on a side of the frame (1) close to the first glass (6), a first cavity is arranged between the elastic member (5), the first glass (6) and the second glass (7), the moving frame (4) is rotatably connected to a rotating rod (8) arranged in a mirror image, the rotating rod (8) is rotatably connected to the adjacent sliding sleeve (3), the rotating rod (8) is fixedly connected to a handle (9), a limiting mechanism for making the sliding sleeve (3) and the adjacent guide rod (2) relatively stationary is arranged on the outer side of the moving frame (4), and an adjusting mechanism for adjusting the pressure in the first cavity is arranged on the outside of the elastic member (5).

2. The heat-insulating coated glass according to claim 1, characterized in that: The limiting mechanism comprises uniformly arranged support plates (1001), the uniformly arranged support plates (1001) are all fixedly connected to a side of the movable frame (4) away from the first glass (6), the opposite sides close to the same rotating rod (8) and adjacent to the sliding sleeve (3) are all slidably connected to limiting blocks (1002), the side of the guide rod (2) close to the adjacent limiting block (1002) is provided with equidistantly arranged limiting grooves (1007), the limiting grooves (1007) are limitedly matched with the adjacent limiting blocks (1002), the opposite sides close to the same rotating rod (8) and adjacent to the limiting blocks (1002) are all fixedly connected to sliding rods (1003), the sliding rods (1003) are slidably connected to the adjacent support plates (1001), and the first elastic element (1004) is fixedly connected between the sliding rod (1003) and the adjacent support plates (1001).

3. The heat-insulating coated glass according to claim 2, characterized in that: The rotating rod (8) is fixedly connected to a limit strip (1005) arranged in a mirror image, the sliding rod (1003) is fixedly connected to a limit protrusion (1006) on a side close to the adjacent limit strip (1005), the limit protrusion (1006) is in limiting cooperation with the adjacent limit strip (1005), and a second elastic element (1008) arranged in a mirror image is fixedly connected between the rotating rod (8) and the moving frame (4).

4. The heat-insulating coated glass according to claim 3, characterized in that: The limiting strips (1005) are arc-shaped, and the distance between the limiting strips (1005) arranged in a mirror image on the same rotating rod (8) gradually increases from one side close to the frame (1) to the other side, so as to enable adjacent sliding rods (1003) and adjacent supporting plates (1001) to move relative to each other.

5. The heat-insulating coated glass according to claim 1, characterized in that: The regulating mechanism comprises uniformly arranged regulating shells (1101), the uniformly arranged regulating shells (1101) are all fixedly connected to the elastic member (5), the regulating shells (1101) are communicated with the first cavity, a moving member (1102) is slidably connected inside the regulating shell (1101), the frame (1) and the moving frame (4) are both fixedly connected to uniformly arranged extrusion members (1103) on opposite sides, and moving blocks (1104) are fixedly connected to opposite sides of different rotating rods (8) and adjacent to the moving members (1102), the moving blocks (1104) are limitedly matched with adjacent extrusion members (1103), and the moving member (1102) is provided with a valve body (1105) penetrating the moving member (1102).

6. The heat-insulating coated glass according to claim 5, characterized in that: The sum of the changes in the space between the two caused by the sliding of the evenly arranged moving parts (1102) on the adjacent adjustment shells (1101) is equal to the change in the space between the first glass (6) and the second glass (7) caused by the relative movement of the two, so as to maintain the pressure balance in the first cavity.

7. The heat-insulating coated glass according to claim 1, characterized in that: The invention also comprises a temperature changing mechanism for changing the temperature of the second glass (7), the temperature changing mechanism being arranged on a side of the frame (1) away from the sliding sleeve (3), the temperature changing mechanism comprising a third glass (12), the third glass (12) being installed on a side of the frame (1) away from the sliding sleeve (3), a second cavity being arranged between the frame (1), the second glass (7) and the third glass (12), a first tube (13) and a second tube (14) being fixedly connected to the frame (1), the first tube (13) and the second tube (14) being both connected to the second cavity, the first tube (13) being connected to an external water tank, and the second tube (14) being connected to an external pump body.

8. The heat-insulating coated glass according to claim 7, characterized in that: The force exerted by the external pump on the second cavity is equal to the force in the first cavity, so as to balance the force on the second glass (7).

9. The heat-insulating coated glass according to claim 7, characterized in that: The second tube (14) is located above the first tube (13) and is used to determine the flow direction of the fluid in the second cavity.

10. The heat-insulating coated glass according to claim 7, characterized in that: The side of the third glass (12) close to the second glass (7) is an arc-shaped surface, which is used to collect sunlight.

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