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IBM45
DAWSON
The state-of-the-art injection molding blowing machine in question operates with a highly efficient three-station system, which is the cornerstone of its seamless production process. The first station is dedicated to injection preform production. At the start of this stage, the raw material, typically high-quality plastic pellets, is funneled from a large hopper. This hopper is designed to maintain a steady supply of material, ensuring uninterrupted production. The pellets then enter the injection screw, which is a precision-engineered component. As the screw rotates, it not only conveys the plastic pellets forward but also subjects them to intense mechanical shear and heat. This combination of forces melts the plastic, transforming it into a viscous, molten state.
Once in the molten form, the plastic is forcefully injected into a preform mold under high pressure. The injection pressure is carefully calibrated to ensure that the molten plastic fills every intricate detail of the mold cavity precisely. This results in the creation of preforms that are the exact shape and size required for the subsequent blowing process. The precision of this injection step is crucial, as it lays the foundation for the overall quality of the final product.
After the preforms are created, the plate on which they are mounted rotates. This rotation is a key feature of the machine's design. It transports the preforms to the second station - the blowing station. What sets this machine apart is that the preforms reach the blowing station still retaining their heat from the injection process. There is no need for any additional reheating, which is a significant advantage in terms of energy efficiency. This self-heating property of the preforms allows for immediate blowing. High-pressure air is then forcefully introduced into the preforms. The air pressure, typically ranging from 20 - 40 bar, causes the preforms to expand rapidly. They stretch and conform to the shape of the bottle mold, undergoing the stretch blow molding process. This process not only gives the bottles their final shape but also aligns the plastic molecules in a way that enhances the mechanical strength and durability of the bottles.
Once the blowing process is complete, the now fully-formed products are rotated to the third station - the product release station. At this station, a combination of mechanical pushers and vacuum systems is employed. The mechanical pushers gently nudge the bottles, while the vacuum systems ensure a secure grip during the release process. This dual-action mechanism guarantees that the bottles are smoothly and safely dropped down from the machine. The entire process is a fully automatic cycle rotation working mode. This means that the machine can continuously produce products without any manual intervention required between cycles. There is no need for bottle preforms to be manually loaded or unloaded, which significantly reduces the potential for human error.
Moreover, this production method is highly waste - free. Since the process is so precise, there is minimal material wastage. In traditional molding processes, excess material often accumulates in the form of flash, which requires additional labor and resources to remove. But with this machine, the absence of such waste not only saves on raw material costs but also contributes to a more sustainable production environment. The high degree of automation also results in finished products that are consistently smooth and beautiful. The surface finish of the bottles is free from imperfections, giving them an aesthetically pleasing appearance that is highly desirable in various industries.
This versatile machine is commonly used in a wide range of applications. In the realm of 10 - 1000 ml plastic cosmetic bottles, it plays a pivotal role. Cosmetic products require packaging that not only protects the product but also looks appealing on the shelves. The smooth and beautiful finish of the bottles produced by this machine makes them perfect for housing various cosmetic items such as lotions, serums, and perfumes. For milk bottles, the machine ensures that the bottles are strong enough to withstand the rigors of handling and transportation while maintaining the integrity of the milk. In the pharmaceutical packaging industry, where precision and hygiene are of utmost importance, the machine's ability to produce bottles with consistent dimensions and a flawless finish is invaluable. It helps in creating packaging for tablets, capsules, and liquid medications.
![]() | In the production of the same product, injection blowing and extrusion blowing have inherent advantages, such as no flash, no waste, accurate size, high production efficiency of three-step method, three working positions working at the same time, no need to wait in neutral position; With the conveyor belt, the testing equipment can directly enter the packaging station, with a high degree of automation. Therefore, a conclusion can be drawn: in the range of packaging bottles, the injection blowing process can improve the production efficiency and reduce the production cost. |
Technical Parameters
Model | |||||
Item | Unit | Date | |||
Injection system | Screw Diameter | mm | 40 | 45 | 50 |
Max. Theoretical injection capacity | G | 176 | 260 | 314 | |
Heating capacity | KW | 7.2 | 10 | 10 | |
No. of heating area | Qty | 3 | 3 | 3 | |
Clamping & blowing system | Clamping force of injection | kn | 350 | 450 | 650 |
Clamping force of blowing | kn | 40 | 78 | 89 | |
Opening stroke of mold platen | mm | 120 | 120 | 140 | |
Max. Platen size (L×W) | mm | 420×340 | 560×390 | 740×390 | |
Min. Mold thickness (H) | mm | 180 | 240 | 280 | |
Heating capacity of mould | KW | 2.8 | 4.0 | 5.0 | |
Product dimension range | Suitable bottle range | ml | 3-800 | 3-800 | 5-800 |
Max. bottle height | mm | ≤180 | ≤200 | ≤200 | |
Max. Dia. of bottle | mm | ≤80 | ≤80 | ≤80 | |
Dry cycle | s | 4 | |||
Hydraulic driving system | Motor power | KW | 11/15 | 18.7/22 | 17 |
hydraulic pressure | Mpa | 14 | 14 | 14 | |
Pneumatic system | Min. Air pressure | Mpa | ≥0.8 | 1.0 | 1.0 |
Discharge rate of compressed air | M3/mm | ≥0.7 | ≥0.8 | ≥0.8 | |
Cooling system | Water flowage | M3/h | 3 | 3 | 4 |
Total rated power with mold heating | KW | 21/25 | 34/38 | 45 | |
Machine information | Dimension | M | 3.1×1.2×2.2 | 3.5×1.4×2.3 | 4×1.28×2.35 |
machine weight | Ton | 4.0 | 6.0 | 7.5 |
The state-of-the-art injection molding blowing machine in question operates with a highly efficient three-station system, which is the cornerstone of its seamless production process. The first station is dedicated to injection preform production. At the start of this stage, the raw material, typically high-quality plastic pellets, is funneled from a large hopper. This hopper is designed to maintain a steady supply of material, ensuring uninterrupted production. The pellets then enter the injection screw, which is a precision-engineered component. As the screw rotates, it not only conveys the plastic pellets forward but also subjects them to intense mechanical shear and heat. This combination of forces melts the plastic, transforming it into a viscous, molten state.
Once in the molten form, the plastic is forcefully injected into a preform mold under high pressure. The injection pressure is carefully calibrated to ensure that the molten plastic fills every intricate detail of the mold cavity precisely. This results in the creation of preforms that are the exact shape and size required for the subsequent blowing process. The precision of this injection step is crucial, as it lays the foundation for the overall quality of the final product.
After the preforms are created, the plate on which they are mounted rotates. This rotation is a key feature of the machine's design. It transports the preforms to the second station - the blowing station. What sets this machine apart is that the preforms reach the blowing station still retaining their heat from the injection process. There is no need for any additional reheating, which is a significant advantage in terms of energy efficiency. This self-heating property of the preforms allows for immediate blowing. High-pressure air is then forcefully introduced into the preforms. The air pressure, typically ranging from 20 - 40 bar, causes the preforms to expand rapidly. They stretch and conform to the shape of the bottle mold, undergoing the stretch blow molding process. This process not only gives the bottles their final shape but also aligns the plastic molecules in a way that enhances the mechanical strength and durability of the bottles.
Once the blowing process is complete, the now fully-formed products are rotated to the third station - the product release station. At this station, a combination of mechanical pushers and vacuum systems is employed. The mechanical pushers gently nudge the bottles, while the vacuum systems ensure a secure grip during the release process. This dual-action mechanism guarantees that the bottles are smoothly and safely dropped down from the machine. The entire process is a fully automatic cycle rotation working mode. This means that the machine can continuously produce products without any manual intervention required between cycles. There is no need for bottle preforms to be manually loaded or unloaded, which significantly reduces the potential for human error.
Moreover, this production method is highly waste - free. Since the process is so precise, there is minimal material wastage. In traditional molding processes, excess material often accumulates in the form of flash, which requires additional labor and resources to remove. But with this machine, the absence of such waste not only saves on raw material costs but also contributes to a more sustainable production environment. The high degree of automation also results in finished products that are consistently smooth and beautiful. The surface finish of the bottles is free from imperfections, giving them an aesthetically pleasing appearance that is highly desirable in various industries.
This versatile machine is commonly used in a wide range of applications. In the realm of 10 - 1000 ml plastic cosmetic bottles, it plays a pivotal role. Cosmetic products require packaging that not only protects the product but also looks appealing on the shelves. The smooth and beautiful finish of the bottles produced by this machine makes them perfect for housing various cosmetic items such as lotions, serums, and perfumes. For milk bottles, the machine ensures that the bottles are strong enough to withstand the rigors of handling and transportation while maintaining the integrity of the milk. In the pharmaceutical packaging industry, where precision and hygiene are of utmost importance, the machine's ability to produce bottles with consistent dimensions and a flawless finish is invaluable. It helps in creating packaging for tablets, capsules, and liquid medications.
![]() | In the production of the same product, injection blowing and extrusion blowing have inherent advantages, such as no flash, no waste, accurate size, high production efficiency of three-step method, three working positions working at the same time, no need to wait in neutral position; With the conveyor belt, the testing equipment can directly enter the packaging station, with a high degree of automation. Therefore, a conclusion can be drawn: in the range of packaging bottles, the injection blowing process can improve the production efficiency and reduce the production cost. |
Technical Parameters
Model | |||||
Item | Unit | Date | |||
Injection system | Screw Diameter | mm | 40 | 45 | 50 |
Max. Theoretical injection capacity | G | 176 | 260 | 314 | |
Heating capacity | KW | 7.2 | 10 | 10 | |
No. of heating area | Qty | 3 | 3 | 3 | |
Clamping & blowing system | Clamping force of injection | kn | 350 | 450 | 650 |
Clamping force of blowing | kn | 40 | 78 | 89 | |
Opening stroke of mold platen | mm | 120 | 120 | 140 | |
Max. Platen size (L×W) | mm | 420×340 | 560×390 | 740×390 | |
Min. Mold thickness (H) | mm | 180 | 240 | 280 | |
Heating capacity of mould | KW | 2.8 | 4.0 | 5.0 | |
Product dimension range | Suitable bottle range | ml | 3-800 | 3-800 | 5-800 |
Max. bottle height | mm | ≤180 | ≤200 | ≤200 | |
Max. Dia. of bottle | mm | ≤80 | ≤80 | ≤80 | |
Dry cycle | s | 4 | |||
Hydraulic driving system | Motor power | KW | 11/15 | 18.7/22 | 17 |
hydraulic pressure | Mpa | 14 | 14 | 14 | |
Pneumatic system | Min. Air pressure | Mpa | ≥0.8 | 1.0 | 1.0 |
Discharge rate of compressed air | M3/mm | ≥0.7 | ≥0.8 | ≥0.8 | |
Cooling system | Water flowage | M3/h | 3 | 3 | 4 |
Total rated power with mold heating | KW | 21/25 | 34/38 | 45 | |
Machine information | Dimension | M | 3.1×1.2×2.2 | 3.5×1.4×2.3 | 4×1.28×2.35 |
machine weight | Ton | 4.0 | 6.0 | 7.5 |