A production device and process for flame kiln borosilicate glass

Abstract

The application discloses a kind of flame kiln borosilicate glass production equipment and process, it is related to glass production technical field.The present application includes tin pool and width adjusting plate device, volume compensation mechanism and heat recovery system.The width adjusting plate spacing is accurately adjusted by synchronous rack, synchronous adjustment slide rail and electric cylinder, and the volume change of compensation cavity is compensated by adaptive piston plate, to ensure that glass melt is stably formed.The equipment is provided with float roll and thickness control electric cylinder, and the thickness of glass is accurately controlled.A power generation secondary sheet is installed above the tin pool to recover heat energy, and the float roll is provided with a closed-loop temperature control cooling system.The equipment accurately controls the size of glass, is energy-saving and environmentally friendly, stable and reliable, and is suitable for the production of high-precision glass products.

Description

Technical Field

[0001] This invention relates to the field of glass production technology, specifically to a flame furnace borosilicate glass production equipment and process. Background Technology

[0002] Currently, most borosilicate glass production utilizes flame furnace tin bath technology, where molten glass gradually cools and solidifies on the surface of liquid tin. However, existing tin bath devices often suffer from the following shortcomings: First, during the cooling and solidification process of the molten glass in the tin bath, the width adjustment is difficult to control precisely, resulting in significant deviations in glass product specifications and failing to meet the demands of high-precision production. Second, when adjusting the spacing of the width adjustment plates, the height of the liquid tin surface fluctuates greatly, causing unstable molten glass formation and affecting glass quality. Third, heat above the tin bath is not effectively recovered, resulting in substantial energy waste. Fourth, the thickness of the molten glass is difficult to control precisely during the forming and cooling stage, leading to poor uniformity in the thickness of the finished product. Therefore, it is necessary to develop a flame furnace borosilicate glass production equipment to solve these problems. Summary of the Invention

[0003] To overcome the shortcomings of the prior art, the present invention provides the following technical solution: a flame furnace borosilicate glass production equipment, including a tin bath, the inner wall of which is slidably sealed with two parallel and symmetrically arranged width-adjusting plates, the two width-adjusting plates forming an adjustable cavity with the inner wall of the tin bath, and the cavity communicating with an adaptation piston cavity fixed on the lower surface of the tin bath, the inner wall of the adaptation piston cavity being slidably sealed with an adaptation piston plate, the volume of the cavity remaining constant by the displacement of the adaptation piston plate within the adaptation piston cavity; a heat-absorbing part is provided above the tin bath for energy recovery; two transmission roller supports are also fixedly installed on the side of the tin bath, multiple transmission rollers are equidistantly arrayed between the two transmission roller supports, a heating plate is also fixedly installed on the top edge of the side of the tin bath, the upper surface of the heating plate is flush with the top edge of the tin bath, and a floating roller is provided above the heating plate.

[0004] Preferably, the floating roller is rotatably mounted on two floating roller supports, which in turn are rotatably mounted on two transfer roller supports. The two floating roller supports are fixedly connected by a rotating shaft. An adjusting lever is fixedly mounted on one of the floating roller supports, and a thickness control cylinder is movably mounted on one of the transfer roller supports. The telescopic cylinder end of the thickness control cylinder is movably engaged with the transfer roller support, and the telescopic rod end of the thickness control cylinder is movably connected to the adjusting lever. A motor for driving the floating roller rotation is fixedly mounted on one of the floating roller supports. Multiple floating rollers can be set on the heating plate for gradually drawing and extruding the molten glass solution. It should be noted that the proportional lengths of the transfer roller supports, heating plate, solder bath, and width adjustment plate in the figure are not actual proportional lengths; the proportional lengths of the transfer roller supports, heating plate, solder bath, and width adjustment plate in the figure have been shortened.

[0005] Preferably, a gantry frame is fixedly installed on the tin pool, and a heat absorption section is provided directly above the tin pool. The heat absorption section includes a heat absorption plate and a heat dissipation cavity plate. The heat absorption plate and the heat dissipation cavity plate are fixedly installed on the gantry frame. A secondary power generation plate array is provided between the opposite surfaces of the heat absorption plate and the heat dissipation cavity plate for recovering the heat energy above the tin pool.

[0006] Preferably, a heat-absorbing sheet is fixedly fitted on the lower surface of the heat-absorbing plate, and a synchronous adjustment slide rail is fixedly installed in the middle of the lower surface of the heat-absorbing plate. Two symmetrically arranged synchronous adjustment sliders are slidably installed on the lower surface of the synchronous adjustment slide rail. Each synchronous adjustment slider is movably connected to two width adjustment plates through two synchronous adjustment connecting rods, which are used to drive the two width adjustment plates to move synchronously relative to each other.

[0007] Preferably, each width adjustment plate is fixedly installed with two parallel guide rods, and all guide rods are in sliding fit with the solder pool.

[0008] Preferably, a crossbeam plate is fixedly installed on the two guide rods corresponding to one of the width adjustment plates; a gearbox mounting plate is fixedly installed on the lower surface of the tin pool near the crossbeam plate, and a synchronous rack is slidably installed on the gearbox mounting plate, with the top of the synchronous rack being movably connected to the crossbeam plate via a drive push-pull rod.

[0009] Preferably, a gearbox is also fixedly mounted on the gearbox mounting plate, and a synchronous gear that meshes with a synchronous rack is also rotatably mounted on the gearbox mounting plate. The synchronous gear is connected to the input shaft of the gearbox via a second chain drive.

[0010] Preferably, a lead screw is fixedly mounted on the piston plate, the lead screw is slidably and rotatably mounted on the nut and toothed plate bracket, the nut and toothed plate bracket is fixedly mounted on the piston cavity, and a nut and toothed plate is rotatably mounted on the nut and toothed plate bracket. The nut and toothed plate are threaded onto the lead screw, and the nut and toothed plate are connected to the output shaft of the gearbox via a first chain drive.

[0011] Preferably, an inclined feeding trough is fixedly installed on the top edge of the solder pool away from the conveyor roller support, and the solder pool is fixedly installed on the base; an adjusting electric cylinder is fixedly installed on the base or gearbox mounting plate, and the end of the telescopic rod of the adjusting electric cylinder is fixedly connected to the synchronous rack.

[0012] Preferably, the heat dissipation cavity plate and the float roller are hollow inside. One end of the float roller is connected to the water inlet of the heat dissipation cavity plate through a first pipe. The end of the float roller connected to the first pipe is also connected to a second pipe. The first and second pipes form a three-way connection with the float roller, and the connection between the second and first pipes and the float roller adopts a rotary seal. A first valve and a second valve are installed in series on the first and second pipes, respectively. The heat dissipation cavity plate is provided with a water inlet and an outlet. The outlet of the heat dissipation cavity plate and the end of the float roller away from the second pipe are connected to a heat exchanger through a pipe and a water pump. The end of the second pipe and the float roller away from the first pipe are connected to another heat exchanger through a pipe and a water pump. Both heat exchangers are for heat dissipation, cooling the coolant inside the float roller and the heat dissipation cavity plate.

[0013] A process for producing borosilicate glass using a flame furnace borosilicate glass production equipment includes the following steps: S1, molten glass at the furnace outlet is introduced into an inclined feeding trough; liquid tin is preheated and stored in the tin bath, and after the molten glass flows into the tin bath from the feeding trough, it gradually flows uniformly towards the conveying roller on the surface of the liquid tin; S2, during the flow of the molten glass, a synchronous rack is driven to move by an adjustable electric cylinder, and the synchronous rack moves the crossbeam plate by means of a drive push-pull rod, so that the width adjustment plate slides synchronously relative to the guide rod to adjust the width of the molten glass in the tin bath; during the movement of the synchronous rack, the synchronous gear, gearbox, and nut sprocket move, and the piston plate is displaced by the lead screw, adjusting the volume of the piston chamber to maintain the stability of the surface position of the liquid tin in the tin bath; S3, molten glass... After flowing to the heating tray area at the edge of the tin bath, the glass melt is shaped and pulled by the floating roller; the thickness control electric cylinder drives the adjusting swing arm to rotate, and the floating roller support swings on the transfer roller support to adjust the distance between the floating roller and the heating tray, controlling the thickness of the molten glass; S4, the molten glass shaped by the floating roller gradually flows on the heating tray and is gradually cooled and solidified. The heating tray is equipped with a zoned heating unit, which gradually reduces the temperature along the direction of glass melt movement to achieve initial glass solidification; then, the initially cooled glass plate is smoothly transported to the next station by the transfer roller for further cooling and stable forming; S5, the residual heat released by the molten glass flowing on the liquid tin in the tin bath and during the forming process is captured by the heat absorption plate below the heat absorption plate, heating the secondary power generation plate, and realizing the recovery of electricity by utilizing the temperature difference generated by the secondary power generation plate.

[0014] Compared with the prior art, the present invention has the following advantages: (1) The present invention sets up a synchronous adjustment slide rail and a synchronous adjustment slider. By adjusting the electric cylinder and the synchronous rack working together, the spacing of the width adjustment plate is precisely adjusted, thereby realizing precise control of the glass melt width, effectively improving the accuracy of the glass product size, and reducing the difficulty and cost of subsequent processing; (2) The present invention compensates for the change in cavity volume during the movement of the width adjustment plate by adapting to the movement of the piston plate, avoiding surface fluctuations of liquid tin, making the flow of glass melt in the tin pool more stable, and effectively improving the quality consistency and production stability of glass products; (3) The present invention uses a secondary generator plate to adjust the tin. The heat energy above the pool is efficiently recovered, and the waste heat is converted into electrical energy, realizing the secondary use of energy, effectively reducing production energy consumption, and demonstrating significant energy-saving effect; (4) This invention uses floating rollers and thickness control cylinders to precisely control the thickness of glass melt. The floating rollers can precisely squeeze the glass melt according to the set distance, which significantly improves the uniformity of glass thickness and reduces the thickness deviation of the product; (5) This invention designs a closed-loop temperature-controlled floating roller cooling system. By adjusting the cooling liquid path through valves, the temperature of the floating rollers can be monitored and precisely controlled in real time, ensuring the cooling and forming quality of the glass melt, and improving the overall production efficiency and product quality. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the overall structure of the present invention.

[0016] Figure 2 This is a schematic diagram of the structure of the adjusting electric cylinder of the present invention.

[0017] Figure 3 This is a schematic diagram of the structure of the gearbox mounting plate of the present invention.

[0018] Figure 4 This is a schematic diagram of the structure of the floating roller in this invention.

[0019] Figure 5 For the present invention Figure 4 Schematic diagram of the structure at point A in the middle.

[0020] Figure 6 This is a schematic diagram of the structure of the heat absorption plate of the present invention.

[0021] Figure 7 This is a schematic diagram of the tin pool structure of the present invention.

[0022] Figure 8 This is a schematic diagram of the piston cavity structure adapted to the present invention.

[0023] In the diagram: 101-Solder pool; 102-Guide rod; 103-Width adjustment plate; 104-Adaptive piston plate; 105-Adaptive piston chamber; 106-Lead screw; 107-Nut chuck; 108-Nut chuck bracket; 109-Synchronous adjustment connecting rod; 110-Synchronous adjustment slider; 111-Synchronous adjustment slide rail; 112-Heat absorber; 113-Heat absorber plate; 114-Secondary generator plate; 115-Heat dissipation chamber plate; 116-Gantry frame; 117-First valve; 118-First pipe; 119- Second pipe; 120-Second valve; 121-Floating roller support; 122-Adjusting swing arm; 123-Thickness control electric cylinder; 124-Transfer roller support; 125-Transfer roller; 126-Heating pallet; 127-Floating roller; 128-Feeding trough; 129-First chain; 130-Gearbox; 131-Gearbox mounting plate; 132-Second chain; 133-Synchronous gear; 134-Synchronous rack; 135-Drive push-pull rod; 136-Crossbeam plate; 137-Adjusting electric cylinder; 138-Base. Detailed Implementation

[0024] The following is in conjunction with the appendix Figures 1-8 The technical solution of the present invention will be further illustrated through specific embodiments.

[0025] This invention provides a flame furnace borosilicate glass production device, including a tin bath 101. Two parallel and symmetrically arranged width-adjusting plates 103 are slidably sealed on the inner wall of the tin bath 101. The two width-adjusting plates 103 and the inner wall of the tin bath 101 form an adjustable cavity, which communicates with an adaptation piston cavity 105 fixed to the lower surface of the tin bath 101. An adaptation piston plate 104 is slidably sealed on the inner wall of the adaptation piston cavity 105. The adaptation piston plate 104 controls the movement of the adaptation piston cavity... The displacement inside 105 keeps the volume of the cavity constant; a heat-absorbing part is provided above the tin pool 101 for energy recovery; two transmission roller supports 124 are fixedly installed on the side of the tin pool 101, and multiple transmission rollers 125 are arranged equidistantly between the two transmission roller supports 124; a heating plate 126 is fixedly installed on the top edge of the side of the tin pool 101, the upper surface of the heating plate 126 is flush with the top edge of the tin pool 101, and a floating roller 127 is provided above the heating plate 126. The floating roller 127 is rotatably mounted on two floating roller supports 121, which in turn are rotatably mounted on two transfer roller supports 124. The two floating roller supports 121 are fixedly connected by a rotating shaft. An adjusting lever 122 is fixedly mounted on one of the floating roller supports 121, and a thickness control cylinder 123 is movably mounted on one of the transfer roller supports 124. The telescopic cylinder end of the thickness control cylinder 123 is movably engaged with the transfer roller support 124, and the telescopic rod end of the thickness control cylinder 123 is movably connected to the adjusting lever 122. A motor for driving the rotation of the floating roller 127 is fixedly mounted on one of the floating roller supports 121. Multiple floating rollers 127 can be installed on the heating tray 126 to gradually pull and extrude the molten glass solution. It should be noted that the proportional lengths of the transfer roller bracket 124, heating tray 126, tin pool 101, and width adjustment plate 103 in the figure are not the actual proportional lengths. The proportional lengths of the transfer roller bracket 124, heating tray 126, tin pool 101, and width adjustment plate 103 in the figure have been shortened.

[0026] A gantry frame 116 is fixedly installed on the tin bath 101. A heat absorption section is provided directly above the tin bath 101. The heat absorption section includes a heat absorption plate 113 and a heat dissipation cavity plate 115. The heat absorption plate 113 and the heat dissipation cavity plate 115 are fixedly installed on the gantry frame 116. An array of power generation secondary plates 114 is provided between the opposite surfaces of the heat absorption plate 113 and the heat dissipation cavity plate 115 for recovering the heat energy above the tin bath 101. A heat absorption sheet 112 is fixedly fitted on the lower surface of the heat absorption plate 113. A synchronous adjustment slide rail 111 is fixedly installed in the middle of the lower surface of the heat absorption plate 113. Two symmetrically arranged synchronous adjustment sliders 110 are slidably installed on the lower surface of the synchronous adjustment slide rail 111. Each synchronous adjustment slider 110 is movably connected to two width adjustment plates 103 through two synchronous adjustment connecting rods 109 for driving the two width adjustment plates 103 to move synchronously relative to each other.

[0027] Each width adjustment plate 103 has two parallel guide rods 102 fixedly mounted on it, and all guide rods 102 are slidably engaged with the solder bath 101. A crossbeam plate 136 is fixedly mounted on the two guide rods 102 corresponding to one of the width adjustment plates 103. A gearbox mounting plate 131 is fixedly mounted on the lower surface of the solder bath 101 near the crossbeam plate 136. A synchronous rack 134 is slidably mounted on the gearbox mounting plate 131, and the top of the synchronous rack 134 is movably connected to the crossbeam plate 136 via a drive push-pull rod 135. A gearbox 130 is also fixedly mounted on the gearbox mounting plate 131, and a synchronous gear 133 that meshes with the synchronous rack 134 is rotatably mounted on the gearbox mounting plate 131. The synchronous gear 133 is connected to the input shaft of the gearbox 130 via a second chain 132. A lead screw 106 is fixedly mounted on the piston plate 104. The lead screw 106 is slidably and rotatably mounted on the nut and gearbox bracket 108. The nut and gearbox bracket 108 is fixedly mounted on the piston chamber 105. A nut and gearbox 107 is rotatably mounted on the nut and gearbox bracket 108. The nut and gearbox 107 is threaded onto the lead screw 106. The nut and gearbox 107 is connected to the output shaft of the gearbox 130 via a first chain 129.

[0028] An inclined feeding trough 128 is fixedly installed on the top edge of the solder pool 101 away from the conveyor roller bracket 124. The solder pool 101 is fixedly installed on the base 138. An adjusting electric cylinder 137 is fixedly installed on the base 138 or the gearbox mounting plate 131. The end of the telescopic rod of the adjusting electric cylinder 137 is fixedly connected to the synchronous rack 134. The interior of the heat dissipation cavity plate 115 and the floating roller 127 is hollow. One end of the floating roller 127 is connected to the water inlet of the heat dissipation cavity plate 115 through a first pipe 118. The end of the floating roller 127 connected to the first pipe 118 is also connected to a second pipe 119. The first pipe 118 and the second pipe 119 form a three-way pipe with the floating roller 127. The connection between the second pipe 119 and the first pipe 118 and the floating roller 127 adopts a rotary seal. The first pipe 118 and the second pipe 119 are respectively connected in series with a first valve 117 and a second valve 120. The heat dissipation cavity plate 115 is provided with an inlet and an outlet. The outlet of the heat dissipation cavity plate 115 and the end of the float roller 127 away from the second pipe 119 are connected to the heat exchanger through pipes and a water pump. The end of the second pipe 119 and the float roller 127 away from the first pipe 118 are connected to another heat exchanger through pipes and a water pump. Both heat exchangers are for heat dissipation, dissipating heat from the float roller 127 and the coolant inside the heat dissipation cavity plate 115.

[0029] The outlet of the melting furnace is connected to the feeding trough 128, allowing the molten glass in the melting furnace to flow onto the feeding trough 128. Before this, liquid tin (with heating equipment inside) needs to be placed inside the tin bath 101. The molten glass will flow into the surface of the liquid tin inside the tin bath 101, and the molten glass can flow evenly towards the transfer roller 125 on the surface of the liquid tin. During this process, the width of the molten glass, i.e., the width of the formed glass, is controlled by the spacing of the two width-adjusting plates 103 (the temperature of the liquid tin inside the tin bath 101 gradually decreases from the feeding trough 128 to the transfer roller 125, gradually solidifying the molten glass). The two width-adjusting plates 103... The spacing adjustment is achieved by controlling the adjusting electric cylinder 137. The extension rod of the adjusting electric cylinder 137 drives the synchronous rack 134 to slide on the gearbox mounting plate 131. The synchronous rack 134 will drive the push-pull rod 135 to pull the crossbeam plate 136 to move along the axial direction of the guide rod 102. The movement of the crossbeam plate 136 will drive the guide rod 102 to move. The guide rod 102 will drive the width adjustment plate 103 to move. The width adjustment plate 103 will drive another width adjustment plate 103 to move synchronously through the synchronous adjusting connecting rod 109 and the synchronous adjusting slider 110, thereby adjusting the spacing between the two width adjustment plates 103 (during this process, the synchronous adjusting slider 110 will slide on the synchronous adjusting slide rail 111). At the same time, the change in the distance between the two width adjustment plates 103 will cause the volume of the cavity formed by the two width adjustment plates 103 and the synchronous adjustment slider 110 to change. Therefore, in order to ensure that the liquid tin surface does not shift, it is necessary to control the up and down movement of the adaptive piston plate 104 to change the volume of the cavity. Specifically, when the synchronous rack 134 moves, it will drive the synchronous gear 133 to rotate. The synchronous gear 133 drives the input shaft of the gearbox 130 to rotate through the second chain 132. The output shaft of the gearbox 130 will drive the nut sprocket 107 to rotate through the first chain 129. The nut sprocket 107 drives the lead screw 106 to move along its own axial direction. The lead screw 106 will then drive the adaptive piston plate 104 to move synchronously.

[0030] The molten glass flowing onto the heating support plate 126 is shaped by the floating roller 127 (the heating support plate 126 has a heating unit embedded inside). At this point, the molten glass has cooled to a certain temperature (reduced fluidity). The thickness of the glass after cooling is controlled by adjusting the distance between the floating roller 127 and the heating support plate 126. Specifically, the extension rod of the thickness control cylinder 123 is controlled. The extension rod of the thickness control cylinder 123 drives the floating roller support 121 to swing on the transfer roller support 124 by adjusting the swing rod 122, thereby controlling the distance between the floating roller 127 and the heating support plate 126. The corresponding motor can control the rotation of the floating roller 127, and the floating roller 127 is used to traction the molten glass (multiple floating rollers 127 work on the same principle, equivalent to an array of structures). After shaping, the molten glass gradually cools and solidifies on the heating plate 126 (the temperature on the heating plate 126 gradually decreases along the direction of movement of the molten glass). Finally, the cooled molten glass is transferred to the next station by the transfer roller 125 (at this time, the glass still has a certain temperature, and by extending the length of the transfer roller 125, the glass is finally cooled).

[0031] As the molten glass flows over the liquid tin inside the tin pool 101, the heat it releases heats the heat absorber plate 113, creating a temperature difference between the two surfaces of the generator secondary plate 114. The generator secondary plate 114 then generates electricity, converting excess heat into electrical energy. When the first valve 117 is open (and the second pipe 119 is closed), the coolant in the cooling system for the float roller 127 and the heat dissipation chamber plate 115 first dissipates heat from the float roller 127, then flows through the first pipe 118 to the heat dissipation chamber plate 115, finally absorbing heat from the heat dissipation chamber plate 115 (increasing the temperature difference between the two surfaces of the generator secondary plate 114, thus increasing power generation; this is generally used after shutdown), and finally flows to the heat exchanger for further cooling. Alternatively, the first valve 117 can be closed and the second pipe 119 opened, allowing the coolant in the other heat exchanger to cool only the float roller 127. The float roller 127 is equipped with a temperature monitoring unit, enabling more accurate closed-loop temperature control of the float roller 127.

Claims

1. A flame-fired furnace borosilicate glass production equipment, characterized in that: The tin pool (101) is provided with two parallel and symmetrically arranged adjustable plates (103) on the inner wall of the tin pool (101). The two adjustable plates (103) and the inner wall of the tin pool (101) form an adjustable cavity. The cavity is connected to the interior of the adaptation piston cavity (105) fixed on the lower surface of the tin pool (101). The inner wall of the adaptation piston cavity (105) is provided with an adaptation piston plate (104). The volume of the cavity remains unchanged by the displacement of the adaptation piston plate (104) inside the adaptation piston cavity (105). A heat-absorbing part is provided above the tin pool (101) for energy recovery; Two transfer roller supports (124) are fixedly installed on the side of the tin pool (101). Multiple transfer rollers (125) are arranged equidistantly between the two transfer roller supports (124). A heating plate (126) is fixedly installed on the top edge of the side of the tin pool (101). The upper surface of the heating plate (126) is flush with the top edge of the tin pool (101). A floating roller (127) is arranged above the heating plate (126).

2. The flame furnace borosilicate glass production equipment according to claim 1, characterized in that: The floating roller (127) is rotatably mounted on two floating roller supports (121), and the two floating roller supports (121) are rotatably mounted on two transmission roller supports (124). The two floating roller supports (121) are fixedly connected by a rotating shaft. An adjusting swing rod (122) is fixedly mounted on one of the floating roller supports (121), and a thickness control electric cylinder (123) is movably mounted on one of the transmission roller supports (124). The telescopic cylinder end of the thickness control electric cylinder (123) is movably engaged with the transmission roller support (124), and the telescopic rod end of the thickness control electric cylinder (123) is movably connected with the adjusting swing rod (122).

3. The flame furnace borosilicate glass production equipment according to claim 2, characterized in that: A gantry frame (116) is also fixedly installed on the tin pool (101). A heat absorption part is provided directly above the tin pool (101). The heat absorption part includes a heat absorption plate (113) and a heat dissipation cavity plate (115). The heat absorption plate (113) and the heat dissipation cavity plate (115) are fixedly installed on the gantry frame (116). An array of power generation secondary plates (114) is provided between the opposite surfaces of the heat absorption plate (113) and the heat dissipation cavity plate (115) for recovering the heat energy above the tin pool (101).

4. The flame furnace borosilicate glass production equipment according to claim 3, characterized in that: A heat-absorbing plate (112) is fixedly fitted on the lower surface of the heat-absorbing plate (113). A synchronous adjustment slide rail (111) is fixedly installed in the middle of the lower surface of the heat-absorbing plate (113). Two symmetrically arranged synchronous adjustment sliders (110) are slidably installed on the lower surface of the synchronous adjustment slide rail (111). Each synchronous adjustment slider (110) is movably connected to two width adjustment plates (103) through two synchronous adjustment connecting rods (109) to drive the two width adjustment plates (103) to move synchronously relative to each other.

5. The flame furnace borosilicate glass production equipment according to claim 4, characterized in that: Two parallel guide rods (102) are fixedly installed on each width adjustment plate (103), and all guide rods (102) slide in contact with the solder pool (101).

6. The flame furnace borosilicate glass production equipment according to claim 5, characterized in that: A crossbeam plate (136) is fixedly installed on the two guide rods (102) corresponding to one of the width adjustment plates (103); a gearbox mounting plate (131) is fixedly installed on the side of the lower surface of the tin pool (101) near the crossbeam plate (136), and a synchronous rack (134) is slidably installed on the gearbox mounting plate (131). The top of the synchronous rack (134) is movably connected to the crossbeam plate (136) through a drive push-pull rod (135).

7. The flame furnace borosilicate glass production equipment according to claim 6, characterized in that: A gearbox (130) is also fixedly mounted on the gearbox mounting plate (131). A synchronous gear (133) that meshes with the synchronous rack (134) is also rotatably mounted on the gearbox mounting plate (131). The synchronous gear (133) and the input shaft of the gearbox (130) are connected by a second chain (132).

8. The flame furnace borosilicate glass production equipment according to claim 7, characterized in that: A lead screw (106) is fixedly mounted on the piston plate (104) with an off-axis. The lead screw (106) is slidably and rotatably mounted on the nut and toothed plate bracket (108). The nut and toothed plate bracket (108) is fixedly mounted on the piston cavity (105). A nut and toothed plate (107) is rotatably mounted on the nut and toothed plate bracket (108). The nut and toothed plate (107) is threaded onto the lead screw (106). The nut and toothed plate (107) is connected to the output shaft of the gearbox (130) via a first chain (129).

9. The flame furnace borosilicate glass production equipment according to claim 8, characterized in that: An inclined feeding trough (128) is fixedly installed on the top edge of the solder pool (101) away from the conveyor roller bracket (124). The solder pool (101) is fixedly installed on the base (138). An adjusting electric cylinder (137) is fixedly installed on the base (138) or the gearbox mounting plate (131). The end of the telescopic rod of the adjusting electric cylinder (137) is fixedly connected to the synchronous rack (134). The interior of the heat dissipation cavity plate (115) and the float roller (127) is hollow. One end of the float roller (127) is connected to the water inlet of the heat dissipation cavity plate (115) through the first pipe (118). The end of the float roller (127) connected to the first pipe (118) is also connected to the second pipe (119). The first pipe (118) and the second pipe (119) form a three-way pipe with the float roller (127). The connection between the second pipe (119) and the first pipe (118) and the float roller (127) adopts a rotary sealing fit. The first pipe (118) and the second pipe (119) are respectively connected in series with the first valve (117) and the second valve (120).

10. A process for producing borosilicate glass using the flame furnace borosilicate glass production equipment as described in claim 9, characterized in that, Includes the following steps: S1. The molten glass at the outlet of the furnace is introduced into the inclined feeding trough (128); the tin pool (101) is preheated and stored in liquid tin. After the molten glass flows into the tin pool (101) from the feeding trough (128), it gradually flows evenly towards the transfer roller (125) on the surface of the liquid tin. S2. During the flow of molten glass, the synchronous rack (134) is driven to move by the electric cylinder (137). The synchronous rack (134) drives the crossbeam plate (136) to move by the drive push-pull rod (135), so that the width adjustment plate (103) slides synchronously relative to the guide rod (102) to adjust the width of the molten glass in the tin pool (101). During the movement of the synchronous rack (134), the synchronous gear (133), gearbox (130) and nut toothed plate (107) are driven to move. The lead screw (106) drives the displacement of the adaptive piston plate (104) to adjust the volume of the adaptive piston chamber (105) and maintain the stability of the liquid tin surface position in the tin pool (101). S3. After the molten glass flows to the heating support plate (126) area at the edge of the tin pool (101), it is shaped and pulled by the floating roller (127); the thickness control electric cylinder (123) drives the adjusting swing rod (122) to rotate, and the floating roller support (121) swings on the transfer roller support (124) to adjust the distance between the floating roller (127) and the heating support plate (126) and control the thickness of the molten glass. S4. The molten glass, after being shaped by the floating roller (127), gradually flows on the heating tray (126) and gradually cools down and solidifies. The heating tray (126) is equipped with a partitioned heating unit, which gradually reduces the temperature along the direction of the molten glass movement to achieve initial solidification of the glass. Then, the initially cooled glass plate is smoothly transported to the next station by the transfer roller (125) for further cooling and stable forming. S5. The residual heat released during the flow and forming of the molten glass on the liquid tin in the tin pool (101) is captured by the heat absorption plate (112) below the heat absorption plate (113) and heats the secondary power generation plate (114). The energy is recovered by utilizing the temperature difference generated by the secondary power generation plate (114).

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