Energy-saving pipeline for glass bottle forming

Abstract

The utility model relates to the technical field of pipelines for glass bottle forming, and discloses an energy-saving pipeline for glass bottle forming, which comprises a bottom plate and a liquid glass heating box, the rear end of the right side of the top wall of the bottom plate is fixedly connected with an air pump, the output end of the air pump is communicated with an air guide pipe, and the front side of the air guide pipe is communicated with a plurality of branch pipes at equal intervals; and the front ends of the multiple branch pipes communicate with constant-pressure barrels, pressure limiting valves are fixedly installed in the middles of the multiple branch pipes correspondingly, the bottom ends of the front sides of the multiple constant-pressure barrels communicate with air outlet pipes correspondingly, and electromagnetic valves are fixedly installed in the middles of the multiple air outlet pipes correspondingly. According to the utility model, gas power is provided by the gas pump, enters the constant-pressure barrel through the gas guide pipe and the branch pipe, and then is conveyed to the bottle-making mold through the gas outlet pipe and the merging pipe, so that gas is stably conveyed under different gas pressures to assist forming, the production efficiency is improved, the energy is saved, the efficiency is high, and the problem of high energy consumption caused by the fact that a high-pressure gas path and a low-pressure gas path only use one main pipeline is solved.

Description

Technical Field

[0001] The utility model relates to the technical field of pipelines for glass bottle forming, in particular to an energy-saving pipeline for glass bottle forming. Background Art

[0002] An energy-saving pipeline is an equipment system widely used in industrial production. Its main function is to achieve efficient utilization and transmission of energy through reasonable design and optimized layout. The energy-saving pipeline can precisely control parameters such as the flow rate, pressure, and temperature of fluids or gases in different production links, thereby achieving the effects of reducing energy consumption, improving production efficiency, and ensuring product quality.

[0003] In the field of glass bottle manufacturing, the energy-saving pipeline for glass bottle forming is a pipeline specially designed for the glass bottle forming process. It assists in the glass bottle forming by stably transporting gas. At the same time, there is a liquid glass heating box to ensure that the liquid glass reaches a suitable temperature for forming, and a cooling mechanism to accelerate the solidification of the glass bottle, improving production efficiency.

[0004] The existing energy-saving pipelines for glass bottle forming often only use a single main pipeline for gas transportation in design. Since it is difficult to precisely control the gas pressure and flow rate with a single main pipeline, a larger power is required to maintain operation, thus increasing energy consumption and resulting in a higher energy consumption problem. Content of the Utility Model

[0005] To make up for the above deficiencies, the utility model provides an energy-saving pipeline for glass bottle forming, aiming to improve the problem that the existing energy-saving pipeline for glass bottle forming only uses a single main pipeline for gas transportation. Since it is difficult to precisely control the gas pressure and flow rate with a single main pipeline, a larger power is required to maintain operation, thus increasing energy consumption and resulting in a higher energy consumption problem.

[0006] To achieve the above purpose, the utility model adopts the following technical scheme: An energy-saving pipeline for glass bottle forming, including a bottom plate and a liquid glass heating box. The rear end of the right side of the top wall of the bottom plate is fixedly connected with an air pump. The output end of the air pump is communicated with a guide air pipe. A plurality of branch pipes are equidistantly communicated with the front side of the guide air pipe. The front ends of the plurality of branch pipes are all communicated with constant pressure barrels. Pressure limiting valves are fixedly installed in the middle of the plurality of branch pipes. The front bottom ends of the plurality of constant pressure barrels are all communicated with air outlet pipes. Electromagnetic valves are fixedly installed in the middle of the plurality of air outlet pipes. The front ends of the plurality of air outlet pipes are all communicated with a merging pipe. The front end of the liquid glass heating box is communicated with a bottle-making mold. The right end of the merging pipe is communicated with the left side of the bottle-making mold. A cooling mechanism is arranged on the left side of the top wall of the bottom plate.

[0007] Through the above technical solution: By providing gas power through an air pump, the gas enters the constant pressure tank through the air duct and branch pipes, and is then transported to the bottle-making mold through the air outlet pipe and the merging pipe, realizing the stable transportation of gas with different air pressures to assist in forming, improving production efficiency, being energy-saving and efficient at the same time, and solving the problem of high energy consumption caused by only using one main pipeline for high and low pressure gas circuits.

[0008] As a further description of the above technical solution:

[0009] The cooling mechanism includes a heat dissipation water tank. In the middle of the top wall of the heat dissipation water tank, a water pump is fixedly connected. The output end of the water pump is communicated with a water supply pipe. The water supply pipe penetrates through the left and right side tops of multiple constant pressure tanks. The bottom wall of the water supply pipe is communicated with multiple annular heat dissipation pipes. The multiple annular heat dissipation pipes are respectively arranged inside the multiple constant pressure tanks. The bottom ends of the multiple annular heat dissipation pipes are all communicated with a return pipe. The outer wall of the return pipe penetrates through the left and right side bottoms of the multiple constant pressure tanks. The left end of the return pipe is communicated with the right bottom end of the heat dissipation water tank. Multiple heat dissipation fins are arranged on the left side of the heat dissipation water tank.

[0010] Through the above technical solution: The coolant is pumped from the heat dissipation water tank by the water pump, transported to the annular heat dissipation pipes inside the constant pressure tank through the water supply pipe, flows back to the heat dissipation water tank through the return pipe after absorbing heat, and then circulates after being cooled by the heat dissipation fins, realizing the reduction of the temperature of the constant pressure tank, ensuring its stability and reliability, and improving the working efficiency and energy-saving effect of the glass bottle forming system.

[0011] As a further description of the above technical solution:

[0012] The middle parts of the outer walls of the multiple heat dissipation fins all penetrate through the left side of the heat dissipation water tank, and the right ends of the multiple heat dissipation fins are all fixedly connected to the right side inner wall of the heat dissipation water tank.

[0013] Through the above technical solution: The middle part of the outer wall of the heat dissipation fin penetrates through the left side of the heat dissipation water tank and the right end is fixedly connected to the right side inner wall of the heat dissipation water tank. Its main function is to dissipate the heat absorbed by the coolant in the heat dissipation water tank, ensuring that the constant pressure tank is at an appropriate working temperature.

[0014] As a further description of the above technical solution:

[0015] A heat insulation board is fixedly connected to the bottom end of the liquid glass heating box, and the bottom end of the heat insulation board is fixedly connected to the middle part of the top wall of the bottom plate.

[0016] Through the above technical solution: The heat insulation board is located between the bottom end of the liquid glass heating box and the middle part of the top wall of the bottom plate on the right side, which can isolate the high temperature generated by the liquid glass heating box and prevent excessive heat from being transferred to the bottom plate and other surrounding components.

[0017] As a further description of the above technical solution:

[0018] A pressure gauge is fixedly connected to the rear side of the top of the radiator water tank, and a pointer is fixedly connected to the top wall of the pressure gauge.

[0019] Through the above technical solution: The pressure gauge is fixedly connected to the rear side of the top of the radiator water tank. Through the indication of the pointer, the operator can intuitively understand the pressure state of the cooling system, so as to take timely measures to adjust when the pressure is abnormal.

[0020] As a further description of the above technical solution:

[0021] A water injection cap is fixedly installed on the front side of the top wall of the radiator water tank, and the outer wall of the water injection cap is designed to be smooth.

[0022] Through the above technical solution: The water injection cap is mainly used to add coolant to the radiator water tank. The smooth design is both beautiful and easy to operate, preventing scratching the operator during operation. At the same time, it can also better seal and connect with the radiator water tank to prevent coolant leakage.

[0023] As a further description of the above technical solution:

[0024] A handle is fixedly connected to the top wall of the water injection cap, and the outer wall of the handle adopts a frosted process.

[0025] Through the above technical solution: The handle provides convenience for the operator to open and close the water injection cap, facilitating the addition of coolant. The frosted process increases the friction, making the operator more stable when operating the handle and not prone to slipping.

[0026] As a further description of the above technical solution:

[0027] Fixed rings are equidistantly and fixedly connected to the outer walls of the air duct and the merging pipe, and support rods are fixedly connected to the bottom ends of multiple fixed rings.

[0028] Through the above technical solution: The fixed rings equidistantly and fixedly connected to the outer walls of the air duct and the merging pipe and the support rods at the bottom ends of the fixed rings can fix the air duct and the merging pipe, preventing the pipes from shaking or shifting during operation, and ensuring that the gas can be stably transmitted in the pipes.

[0029] The utility model has the following beneficial effects:

[0030] 1. In the utility model, gas power is provided by an air pump, and it enters the constant pressure barrel through the air duct and the branch pipe, and is then transported to the bottle making mold through the air outlet pipe and the merging pipe, realizing the stable transportation of gas with different pressures to assist in molding, improving production efficiency, being energy-saving and efficient at the same time, and solving the problem of high energy consumption caused by using only one main pipeline for high and low pressure gas circuits.

[0031] 2. In the present utility model, the coolant is pumped from the radiator tank by a water pump, transported through a water supply pipe to the annular radiator pipe in the constant pressure barrel, flows back to the radiator tank through a return pipe after absorbing heat, and then circulates after being cooled by the radiator fins, thereby reducing the temperature of the constant pressure barrel, ensuring its stability and reliability, and improving the working efficiency and energy-saving effect of the glass bottle forming system. Description of the Drawings

[0032] Figure 1 A three-dimensional view of an energy-saving pipeline for glass bottle forming proposed by the present utility model;

[0033] Figure 2 A top view of an energy-saving pipeline for glass bottle forming proposed by the present utility model;

[0034] Figure 3 A structural schematic diagram of the annular radiator pipe of an energy-saving pipeline for glass bottle forming proposed by the present utility model;

[0035] Figure 4 A cross-sectional view of the radiator tank of an energy-saving pipeline for glass bottle forming proposed by the present utility model;

[0036] Figure 5 A structural schematic diagram of the fixing ring of an energy-saving pipeline for glass bottle forming proposed by the present utility model.

[0037] Legend Explanation:

[0038] 1. Bottom plate; 2. Cooling mechanism; 201. Radiator tank; 202. Water pump; 203. Water supply pipe; 204. Annular radiator pipe; 205. Return pipe; 206. Radiator fins; 3. Air pump; 4. Air guide pipe; 5. Branch pipe; 6. Pressure limiting valve; 7. Constant pressure barrel; 8. Air outlet pipe; 9. Solenoid valve; 10. Merging pipe; 11. Liquid glass heating box; 12. Bottle making mold; 13. Heat insulation board; 14. Water pressure gauge; 15. Pointer; 16. Water injection cover; 17. Handle; 18. Fixing ring; 19. Support rod. Detailed Embodiment

[0039] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all of the embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative efforts shall fall within the protection scope of the present utility model.

[0040] Refer to Figure 1 and Figure 2, an embodiment provided by the present utility model: an energy-saving pipeline for glass bottle forming, including a bottom plate 1 and a liquid glass heating box 11. A gas pump 3 is fixedly connected to the rear end of the right side of the top wall of the bottom plate 1. The gas pump 3 provides gas power for the entire system. The output end of the gas pump 3 is communicated with an air duct 4. The air duct 4 serves as the main trunk for gas transmission and conveys the gas to a plurality of branch pipes 5. A plurality of branch pipes 5 are equidistantly communicated with the front side of the air duct 4. The branch pipes 5 divide and convey the gas to each constant pressure barrel 7. A pressure limiting valve 6 is fixedly installed in the middle of each of the plurality of branch pipes 5. The pressure limiting valve 6 can limit the gas pressure to ensure that the gas pressure entering the constant pressure barrel 7 is stable within a certain range. The front ends of the plurality of branch pipes 5 are all communicated with a constant pressure barrel 7. The constant pressure barrel 7 stores and stabilizes the gas pressure so that the gas can be output in a relatively stable state. The front bottom ends of the plurality of constant pressure barrels 7 are all communicated with an air outlet pipe 8. The air outlet pipe 8 conveys the gas in the constant pressure barrel 7. An electromagnetic valve 9 is fixedly installed in the middle of each of the plurality of air outlet pipes 8. The electromagnetic valve 9 controls the on-off of the air outlet pipe 8. The front ends of the plurality of air outlet pipes 8 are all communicated with a merging pipe 10. The merging pipe 10 converges and conveys the gas from the plurality of air outlet pipes 8 to the bottle making mold 12. The front end of the liquid glass heating box 11 is communicated with the bottle making mold 12. The bottle making mold 12 is used for the forming of liquid glass. The right end of the merging pipe 10 is communicated with the left side of the bottle making mold 12. A cooling mechanism 2 is arranged on the left side of the top wall of the bottom plate 1. The cooling mechanism 2 cools the glass bottle after it is formed to accelerate the solidification process of the glass bottle and improve the production efficiency;

[0041] Specifically, the bottom plate 1 plays a role in supporting and fixing each component. After the gas pump 3 is started, it compresses the gas and conveys it through the air duct 4 at the output end. The air duct 4 serves as the main trunk for gas transmission and conveys the gas to a plurality of branch pipes 5. The pressure limiting valve 6 installed on the branch pipe 5 can limit the gas pressure to ensure that the gas pressure entering the constant pressure barrel 7 is stable within a certain range. The function of the constant pressure barrel 7 is to store and stabilize the gas pressure so that the gas can be output in a relatively stable state. When it is necessary to convey gas to the bottle making mold 12, the electromagnetic valve 9 is opened, and the gas in the constant pressure barrel 7 flows out through the air outlet pipe 8. The gas from the plurality of air outlet pipes 8 finally converges into the merging pipe 10, and the merging pipe 10 then conveys the gas to the left side of the bottle making mold 12. During the forming process of the glass bottle, these gases can play a specific role, such as assisting in forming or providing a certain pressure environment. The liquid glass heating box 11 is used to heat the liquid glass to a temperature suitable for forming. The heated liquid glass flows into the bottle making mold 12 for forming. The cooling mechanism 2 on the left side of the top wall of the bottom plate 1 cools the glass bottle after it is formed to accelerate the solidification process of the glass bottle and improve the production efficiency. The entire energy-saving pipeline provides gas power through the gas pump 3 to ensure that the gas is conveyed to the bottle making mold 12 with a stable pressure and flow rate, providing the necessary conditions for the forming of the glass bottle, and realizing energy saving and high efficiency in the glass bottle forming process.

[0042] Refer to Figure 1, Figure 2 and Figure 3 , the cooling mechanism 2 includes a radiating water tank 201. The radiating water tank 201 serves as a storage container for the coolant. In the middle of the top wall of the radiating water tank 201, a water pump 202 is fixedly connected. The water pump 202 provides power for the circulation of the coolant. The output end of the water pump 202 is connected to a water supply pipe 203. The water supply pipe 203 transports the coolant to the annular radiating pipe 204. The water supply pipe 203 penetrates through the left and right top ends of multiple constant pressure barrels 7 to ensure that the coolant can smoothly enter the annular radiating pipe 204. The bottom wall of the water supply pipe 203 is connected to multiple annular radiating pipes 204. The annular radiating pipes 204 exchange heat with the constant pressure barrels 7 to absorb heat. Multiple annular radiating pipes 204 are respectively arranged inside multiple constant pressure barrels 7 to fully contact the constant pressure barrels 7 to improve the heat dissipation efficiency. The bottom ends of multiple annular radiating pipes 204 are all connected to a water return pipe 205. The water return pipe 205 sends the coolant that has absorbed heat back to the radiating water tank 201. The outer wall of the water return pipe 205 penetrates through the left and right bottom ends of multiple constant pressure barrels 7 to ensure that the coolant can smoothly flow back. The left end of the water return pipe 205 is connected to the right bottom end of the radiating water tank 201, enabling the coolant to return to the radiating water tank 201 for heat dissipation. On the left side of the radiating water tank 201, multiple heat dissipation fins 206 are provided. The heat dissipation fins 206 dissipate the heat of the coolant in the radiating water tank 201 to the surrounding environment;

[0043] Specifically, the radiating water tank 201, as the core part of the cooling system, stores the coolant. After the water pump 202 is started, it extracts the coolant from the radiating water tank 201 and transports it through the water supply pipe 203 at the output end. The water supply pipe 203 penetrates through the left and right top ends of multiple constant pressure barrels 7 to transport the coolant to each annular radiating pipe 204. The annular radiating pipes 204 are arranged inside the constant pressure barrels 7 and exchange heat with the constant pressure barrels 7 to absorb the heat generated by the constant pressure barrels 7 during operation. During the process of the coolant flowing in the annular radiating pipes 204, it continuously absorbs heat and the temperature gradually rises. The coolant that has absorbed heat flows back to the radiating water tank 201 through the water return pipe 205 connected to the bottom end of the annular radiating pipe 204. The outer wall of the water return pipe 205 penetrates through the left and right bottom ends of multiple constant pressure barrels 7 to ensure that the coolant can smoothly flow back. In the radiating water tank 201, the heat can be dissipated to the surrounding environment through multiple heat dissipation fins 206 provided on the left side, reducing the temperature of the coolant so that it can be pumped by the water pump 202 again for circulating cooling, which can effectively reduce the temperature of the constant pressure barrels 7, ensure their stability and reliability during operation, and at the same time contribute to improving the working efficiency and energy-saving effect of the entire glass bottle forming system.

[0044] Refer to Figure 1 , Figure 2 and Figure 4, the middle parts of the outer walls of multiple radiators 206 penetrate through the left side of the radiator water tank 201. The radiators 206 increase the contact area with air to improve the heat dissipation efficiency. The right ends of the multiple radiators 206 are fixedly connected to the right side inner wall of the radiator water tank 201 to ensure the stable installation of the radiators 206; a heat insulation plate 13 is fixedly connected to the bottom end of the liquid glass heating box 11. The heat insulation plate 13 prevents the heat of the liquid glass heating box 11 from being transferred to the bottom plate 1 and affecting other components. The bottom end of the heat insulation plate 13 is fixedly connected to the middle part of the right side of the top wall of the bottom plate 1; a water pressure gauge 14 is fixedly connected to the rear side of the top of the radiator water tank 201. The water pressure gauge 14 is used to monitor the pressure of the coolant in the radiator water tank 201. A pointer 15 is fixedly connected to the top wall of the water pressure gauge 14. The pointer 15 visually displays the reading of the water pressure gauge 14.

[0045] Specifically, the middle part of the outer wall of the radiator 206 penetrates through the left side of the radiator water tank 201 and the right end is fixedly connected to the right side inner wall of the radiator water tank 201. Its main function is to dissipate the heat absorbed by the coolant in the radiator water tank 201 to ensure that the constant pressure barrel 7 is at an appropriate working temperature. The heat insulation plate 13 is located between the bottom end of the liquid glass heating box 11 and the middle part of the right side of the top wall of the bottom plate 1, which can isolate the high temperature generated by the liquid glass heating box 11 and prevent excessive heat from being transferred to the bottom plate 1 and other surrounding components. The water pressure gauge 14 is fixedly connected to the rear side of the top of the radiator water tank 201. Through the indication of the pointer 15, the operator can visually understand the pressure state of the cooling system so as to take timely measures to adjust when the pressure is abnormal.

[0046] Refer to Figure 1 、 Figure 2 and Figure 5 , a water injection cover 16 is fixedly installed on the front side of the top wall of the radiator water tank 201. The water injection cover 16 facilitates adding coolant to the radiator water tank 201. The outer wall of the water injection cover 16 is designed to be smooth. The smooth design prevents scratching the operator. A handle 17 is fixedly connected to the top wall of the water injection cover 16. The handle 17 is convenient for opening and closing the water injection cover 16. The outer wall of the handle 17 adopts a frosted process. The frosted process increases the friction for convenient operation. Fixing rings 18 are equidistantly fixedly connected to the outer walls of the air duct 4 and the merging pipe 10. The fixing rings 18 fix the air duct 4 and the merging pipe 10 to prevent them from shaking. The bottom ends of the multiple fixing rings 18 are fixedly connected to support rods 19. The support rods 19 provide support for the fixing rings 18.

[0047] Specifically, the water injection cover 16 is mainly used to add coolant to the radiator tank 201. Its smooth design is both aesthetically pleasing and convenient to operate, preventing scratches to the operator during operation. At the same time, it can better seal and connect with the radiator tank 201 to prevent coolant leakage. The handle 17 provides convenience for the operator to open and close the water injection cover 16, facilitating the addition of coolant. The frosted process increases friction, making it more stable for the operator to operate the handle 17 and less likely to slip. The fixing ring 18 that fixedly connects the air guide pipe 4 to the outer wall of the merging pipe 10 at an equal distance and the support rod 19 at the bottom end of the fixing ring 18 can fix the air guide pipe 4 and the merging pipe 10, preventing the pipes from shaking or shifting during operation and ensuring that gas can be stably transmitted in the pipes.

[0048] Working principle: The bottom plate 1 plays a role in supporting and fixing various components. After the air pump 3 is started, it compresses the gas and transports it through the air guide pipe 4 at the output end. The air guide pipe 4 serves as the main artery for gas transmission and transports the gas to multiple branch pipes 5. The pressure limiting valve 6 installed on the branch pipe 5 can limit the gas pressure to ensure that the gas pressure entering the constant pressure barrel 7 is stable within a certain range. The role of the constant pressure barrel 7 is to store and stabilize the gas pressure, enabling the gas to be output in a relatively stable state. When gas needs to be transported to the bottle making mold 12, the solenoid valve 9 is opened, and the gas in the constant pressure barrel 7 flows out through the air outlet pipe 8. The gas from multiple air outlet pipes 8 ultimately converges into the merging pipe 10, and the merging pipe 10 then transports the gas to the left side of the bottle making mold 12. During the process of glass bottle forming, these gases can play specific roles, such as assisting in forming or providing a certain pressure environment. The liquid glass heating box 11 is used to heat the liquid glass to a temperature suitable for forming. The heated liquid glass flows into the bottle making mold 12 for forming. The cooling mechanism 2 on the left side of the top wall of the bottom plate 1 cools the glass bottle after it is formed, accelerating the curing process of the glass bottle and improving production efficiency. The entire energy-saving pipeline provides gas power through the air pump 3 to ensure that gas is transported to the bottle making mold 12 with stable pressure and flow rate, providing necessary conditions for the forming of glass bottles.

[0049] Moreover, the radiator 201, as the core part of the cooling system, stores the coolant. After the water pump 202 is started, it extracts the coolant from the radiator 201 and transports it through the water supply pipe 203 at the output end. The water supply pipe 203 runs through the left and right top ends of multiple constant pressure barrels 7, and transports the coolant to each annular radiating pipe 204. The annular radiating pipe 204 is arranged inside the constant pressure barrel 7 and exchanges heat with the constant pressure barrel 7 to absorb the heat generated during the operation of the constant pressure barrel 7. During the flow of the coolant in the annular radiating pipe 204, it continuously absorbs heat and the temperature gradually rises. The coolant that has absorbed heat flows back to the radiator 201 through the return pipe 205 connected to the bottom end of the annular radiating pipe 204. The outer wall of the return pipe 205 runs through the left and right bottom ends of multiple constant pressure barrels 7 to ensure the smooth return of the coolant. In the radiator 201, the heat can be dissipated to the surrounding environment through multiple radiating fins 206 arranged on the left side, reducing the temperature of the coolant so that it can be extracted again by the water pump 202 for circulating cooling, effectively reducing the temperature of the constant pressure barrel 7 and ensuring its stability and reliability during operation.

[0050] Finally, it should be noted that the above are only the preferred embodiments of the present invention and are not used to limit the present invention. Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or perform equivalent replacements for some of the technical features. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included in the protection scope of the present invention.

Claims

1. An energy-saving pipeline for glass bottle forming, comprising a bottom plate (1) and a liquid glass heating box (11), characterized in that: The right rear end of the top wall of the bottom plate (1) is fixedly connected with an air pump (3). The output end of the air pump (3) is communicated with an air guide pipe (4). The front side of the air guide pipe (4) is equally spaced and communicated with a plurality of branch pipes (5). The front ends of the plurality of branch pipes (5) are all communicated with a constant pressure barrel (7). A pressure limiting valve (6) is fixedly installed in the middle of each of the plurality of branch pipes (5). The front bottom ends of the plurality of constant pressure barrels (7) are all communicated with an air outlet pipe (8). A solenoid valve (9) is fixedly installed in the middle of each of the plurality of air outlet pipes (8). The front ends of the plurality of air outlet pipes (8) are all communicated with a merging pipe (10). The front end of the liquid glass heating box (11) is communicated with a bottle making mold (12). The right end of the merging pipe (10) is communicated with the left side of the bottle making mold (12). A cooling mechanism (2) is arranged on the left side of the top wall of the bottom plate (1).

2. An energy-saving pipeline for glass bottle forming according to claim 1, characterized in that: The cooling mechanism (2) includes a heat dissipation water tank (201). The middle of the top wall of the heat dissipation water tank (201) is fixedly connected with a water pump (202). The output end of the water pump (202) is communicated with a water supply pipe (203). The water supply pipe (203) penetrates through the left and right top ends of the plurality of constant pressure barrels (7). The bottom wall of the water supply pipe (203) is communicated with a plurality of annular heat dissipation pipes (204). The plurality of annular heat dissipation pipes (204) are respectively arranged inside the plurality of constant pressure barrels (7). The bottom ends of the plurality of annular heat dissipation pipes (204) are all communicated with a water return pipe (205). The outer wall of the water return pipe (205) penetrates through the left and right bottom ends of the plurality of constant pressure barrels (7). The left end of the water return pipe (205) is communicated with the right bottom end of the heat dissipation water tank (201). A plurality of heat dissipation fins (206) are arranged on the left side of the heat dissipation water tank (201).

3. The energy-saving pipeline for glass bottle forming according to claim 2, characterized in that: The middle of the outer wall of each of the plurality of heat dissipation fins (206) penetrates through the left side of the heat dissipation water tank (201). The right ends of the plurality of heat dissipation fins (206) are all fixedly connected with the right side inner wall of the heat dissipation water tank (201).

4. An energy-saving pipeline for glass bottle forming according to claim 1, characterized in that: The bottom end of the liquid glass heating box (11) is fixedly connected with a heat insulation board (13). The bottom end of the heat insulation board (13) is fixedly connected with the middle of the top wall of the bottom plate (1).

5. The energy-saving pipeline for glass bottle forming according to claim 2, characterized in that: The rear side of the top of the heat dissipation water tank (201) is fixedly connected with a water pressure gauge (14). The top wall of the water pressure gauge (14) is fixedly connected with a pointer (15).

6. The energy-saving pipeline for glass bottle forming according to claim 2, characterized in that: The front side of the top wall of the heat dissipation water tank (201) is fixedly installed with a water injection cover (16). The outer wall of the water injection cover (16) is designed to be smooth.

7. An energy-saving pipeline for glass bottle forming according to claim 6, characterized in that: The top wall of the water injection cover (16) is fixedly connected with a handle (17). The outer wall of the handle (17) is processed by frosted technology.

8. An energy-saving pipeline for glass bottle forming according to claim 1, characterized in that: Fixing rings (18) are equally spaced and fixedly connected to the outer walls of the air guide pipe (4) and the merging pipe (10). The bottom ends of the plurality of fixing rings (18) are all fixedly connected with support rods (19).

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