Recent Posts
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Meet TYM at K 2025 -The World’ s No.1 Trade Fair for Plastics and Rubber
Welcome to the World’s No.1 Trade Fair for Plastics and Rubber -K 2025, taking place from October 8–15, 2025 at Messe Düsseldorf, Germany. As a professional LSR injection molding machine, mold, and robot solution provider, TYM Technology Co., Ltd. is proud to present our latest innovations at Booth 16E77.
09/23/2025
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The Role of Preventive Maintenance in Avoiding Unexpected Downtime
Preventive maintenance (PM) is the practice of regularly scheduled inspection, cleaning, adjustment, and replacement of machine components before they fail.
04/22/2026
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The Effect of Regrind Material Ratios on Processing Speed
Regrind, or recycled sprues, runners, and rejected parts, is commonly reintroduced into the virgin material stream to reduce waste and material costs in injection molding.
04/22/2026
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How Pigment and Additive Masterbatches Affect Injection Speed
Pigments and additive masterbatches are commonly used in injection molding to achieve specific colors, properties, or functionalities in the final part.
04/22/2026
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How LSR Viscosity Impacts Injection Speed and Flow Dynamics
Liquid Silicone Rubber (LSR) viscosity is a fundamental material property that exerts a profound influence on injection speed and overall flow dynamics during the molding process.
04/22/2026
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How Robotic Automation Streamlines Post-Molding Operations
Robotic automation plays a pivotal role in maximizing the speed benefits achieved during the injection molding cycle itself.
04/22/2026
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How Two-Shot Molding Sequences Impact Overall Cycle Time
Two-shot molding, also known as multi-shot or double-shot molding, involves injecting two different materials into a single mold to create a composite part in one automated process.
04/22/2026
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The Effect of Curing Temperature on LSR Cross-linking Speed
The curing of Liquid Silicone Rubber (LSR) is a chemical reaction, known as cross-linking, where polymer chains are linked together to form a solid elastomer.
04/22/2026
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Optimizing Holding Pressure Time to Reduce Overall Cycle Duration
Holding pressure is applied after the initial cavity filling to pack more material into the part and compensate for shrinkage as the material cools and solidifies.
04/22/2026
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The Impact of Injection-Compression Molding on Cycle Time
Injection-compression molding (ICM) is an advanced technique that combines elements of traditional injection molding and compression molding.
04/22/2026
How Robotic Automation Streamlines Post-Molding Operations
Robotic automation plays a pivotal role in maximizing the speed benefits achieved during the injection molding cycle itself. Once a part is ejected from the mold, a series of downstream operations often need to occur: removal from the machine, optional trimming of gates or runners, quality inspection, and final placement into packaging or onto a conveyor. Performing these tasks manually creates a significant bottleneck. Human operators, while flexible, are inherently slower and less consistent than automated systems, and their involvement introduces variability and potential for error that can disrupt the otherwise optimized molding cycle.
Integrating robots directly into the molding cell creates a seamless, high-speed workflow. A robot arm, synchronized with the machine's cycle, can reach into the open mold, grasp the part(s), and remove them in a fraction of a second. It can then perform in-line operations such as ultrasonic welding of sprues, laser etching of serial numbers, or vision-based quality checks, all without interrupting the machine's readiness for the next cycle. This parallel processing dramatically increases overall throughput.
Speed is not the only benefit; consistency and safety are equally important. Robots execute programmed movements with micron-level precision, every time. This reduces the risk of part damage during handling and ensures that downstream processes receive parts in a consistent orientation and condition. Furthermore, removing human operators from the immediate vicinity of the high-temperature, high-pressure molding environment significantly improves workplace safety, eliminating risks associated with hot parts, moving platens, and repetitive motion injuries.
The initial investment in robotic automation can be substantial, but the return is often swift. Increased production rates, reduced labor costs, lower defect rates due to consistent handling, and improved worker safety contribute to a favorable cost-benefit analysis. Modern robots are also highly flexible and can be reprogrammed for different parts or tasks, making them a valuable asset in facilities running diverse production schedules. By automating post-molding operations, manufacturers unlock the full potential of their fast molding cycles.
