Deep integration with industrial IoT: Enabling automation and intelligence across production lines for injection molding, extrusion, and blow molding.

Adaptive systems as standard: Utilizing algorithms to optimize molding parameters in real-time, thus minimizing the impact of manual intervention on quality stability.

Widespread adoption of AI quality inspection technology: Covering everything from defect detection to functional performance testing, significantly enhancing product quality and production efficiency.

Design as responsibility: Recyclability is no longer an afterthought but a “factory setting”. By incorporating sustainability into the initial design, products are made to be recyclable and circular, significantly reducing their carbon footprint from the outset.

Scalable non-food bio-based materials: This approach avoids resource conflicts linked to “competing for food” and broadens the applications of bio-based materials, thereby strengthening supply chain resilience.

Diverse application of recycled plastics: The adoption of recycled materials—including polyolefins, polyurethane, and elastomers—is significantly rising across various industries such as packaging, automotive, consumer electronics, and home appliances.

Multi-material compatibility: Equipment has evolved from handling a single type of material to becoming flexible production lines capable of processing mixed waste.

Enzymatic recycling: Directed catalytic reactions enable the high-quality, closed-loop recycling of plastic waste.

Textile-to-textile: Synthetic textiles are subject to closed-loop recycling, converting old clothing into new textile materials.

Carbon Capture and Utilization (CCU): Efficient separation of carbon dioxide allows for its concentrated storage or conversion into valuable resources.

Antimony-free and fluorine-free: Antimony is often used in flame retardants and PET production to improve flame resistance and efficiency, while fluorinated compounds are valued for their oil resistance and waterproof qualities. However, both can be toxic and potentially carcinogenic, leading to global regulations that require additives to be free of antimony and fluorine.

Increasing demand for multifunctionality: There is a growing need for a single additive that satisfies multiple functions, such as flame retardancy, UV resistance, heat resistance, and conductivity. This requirement is essentially a cost-reduction strategy.

Mono-material films: These films are not only recyclable but also multifunctional.

High-barrier films: These films integrate multiple functions while reducing thickness.

Optical films: There is a clear trend toward smart and customizable solutions to meet various optical applications.

High-speed processing and composite technologies: Multi-layer blown films designed for compounding and printing greatly improve film processing efficiency.

Aerospace/low-altitude aircrafts: Safety is paramount; materials must provide high strength and adapt to extreme weather conditions while supporting the integration of large components.

Humanoid robots: These robots must endure high-frequency starts and stops, as well as complex impacts, while maintaining joint flexibility to ensure precise movement of intricate components.

New energy vehicles: Safety remains the top priority, but there is also a need to balance cost reduction with enhanced range.

Skin-friendly materials: Focus on long-term wear and implantation applications to enhance biocompatibility, reduce allergenicity, and optimize friction coefficients, ensuring safety and lasting comfort for skin contact.

Antibacterial materials: Enhance long-lasting, broad-spectrum antibacterial properties for medical devices while preventing antibiotic resistance and adhering to strict hygiene standards.

Soft materials: Adapt to minimally invasive surgical instruments and wearable devices, improving flexibility, fatigue resistance, and biodegradability to support flexible design and repeated use.

Specialty engineering plastics: Target core components of high-end medical equipment by focusing on high-temperature resistance, chemical corrosion resistance, and high mechanical strength to ensure stability under extreme conditions.

Polyolefins: Enhance the performance of medical packaging and disposable materials by improving heat resistance, low migration properties, and chemical stability while prioritizing sustainability and recyclability.

Electric drive and energy recovery: Enhance energy efficiency for injection molding machines, blow molding machines, extruders, and thermoforming machines.

Compact design: Space-saving and highly efficient.

Auxiliary equipment energy savings: Optimize the entire system with improved energy efficiency for temperature controllers, dryers, cooling systems, and more.

Multi-material injection molding: Processing materials with different properties in a single process to enhance design flexibility.

Multi-layer blow molding and vacuum forming: Achieving lightweight designs while strengthening core functions such as barrier and impact resistance.

Integrated injection molding and compression molding: Reducing production cycles and improving efficiency and precision.

Coating: Enhance wear resistance and corrosion protection, extending the lifespan of molds.

High-cavity mold design: Improve production efficiency.

High-precision hot runners: Ensure accurate temperature control in the flow channels, enhancing molding quality to meet high-end application requirements.

Be featured in the “Top 10 Technology Trends in Plastics and Rubber 2026” report.

Be presented to the global plastics and rubber industry in both Chinese and English.

If the selected companies participate in CHINAPLAS 2026, judging experts will visit their booths for research and in-depth discussions.

 Deep integration with industrial IoT: Enabling automation and intelligence across production lines for injection molding, extrusion, and blow molding.

Adaptive systems as standard: Utilizing algorithms to optimize molding parameters in real-time, thus minimizing the impact of manual intervention on quality stability.

Widespread adoption of AI quality inspection technology: Covering everything from defect detection to functional performance testing, significantly enhancing product quality and production efficiency.

Design as responsibility: Recyclability is no longer an afterthought but a “factory setting”. By incorporating sustainability into the initial design, products are made to be recyclable and circular, significantly reducing their carbon footprint from the outset.

Scalable non-food bio-based materials: This approach avoids resource conflicts linked to “competing for food” and broadens the applications of bio-based materials, thereby strengthening supply chain resilience.

Diverse application of recycled plastics: The adoption of recycled materials—including polyolefins, polyurethane, and elastomers—is significantly rising across various industries such as packaging, automotive, consumer electronics, and home appliances.

Multi-material compatibility: Equipment has evolved from handling a single type of material to becoming flexible production lines capable of processing mixed waste.

Enzymatic recycling: Directed catalytic reactions enable the high-quality, closed-loop recycling of plastic waste.

Textile-to-textile: Synthetic textiles are subject to closed-loop recycling, converting old clothing into new textile materials.

Carbon Capture and Utilization (CCU): Efficient separation of carbon dioxide allows for its concentrated storage or conversion into valuable resources.

Antimony-free and fluorine-free: Antimony is often used in flame retardants and PET production to improve flame resistance and efficiency, while fluorinated compounds are valued for their oil resistance and waterproof qualities. However, both can be toxic and potentially carcinogenic, leading to global regulations that require additives to be free of antimony and fluorine.

Increasing demand for multifunctionality: There is a growing need for a single additive that satisfies multiple functions, such as flame retardancy, UV resistance, heat resistance, and conductivity. This requirement is essentially a cost-reduction strategy.

Mono-material films: These films are not only recyclable but also multifunctional.

High-barrier films: These films integrate multiple functions while reducing thickness.

Optical films: There is a clear trend toward smart and customizable solutions to meet various optical applications.

High-speed processing and composite technologies: Multi-layer blown films designed for compounding and printing greatly improve film processing efficiency.

Aerospace/low-altitude aircrafts: Safety is paramount; materials must provide high strength and adapt to extreme weather conditions while supporting the integration of large components.

Humanoid robots: These robots must endure high-frequency starts and stops, as well as complex impacts, while maintaining joint flexibility to ensure precise movement of intricate components.

New energy vehicles: Safety remains the top priority, but there is also a need to balance cost reduction with enhanced range.

Skin-friendly materials: Focus on long-term wear and implantation applications to enhance biocompatibility, reduce allergenicity, and optimize friction coefficients, ensuring safety and lasting comfort for skin contact.

Antibacterial materials: Enhance long-lasting, broad-spectrum antibacterial properties for medical devices while preventing antibiotic resistance and adhering to strict hygiene standards.

Soft materials: Adapt to minimally invasive surgical instruments and wearable devices, improving flexibility, fatigue resistance, and biodegradability to support flexible design and repeated use.

Specialty engineering plastics: Target core components of high-end medical equipment by focusing on high-temperature resistance, chemical corrosion resistance, and high mechanical strength to ensure stability under extreme conditions.

Polyolefins: Enhance the performance of medical packaging and disposable materials by improving heat resistance, low migration properties, and chemical stability while prioritizing sustainability and recyclability.

Electric drive and energy recovery: Enhance energy efficiency for injection molding machines, blow molding machines, extruders, and thermoforming machines.

Compact design: Space-saving and highly efficient.

Auxiliary equipment energy savings: Optimize the entire system with improved energy efficiency for temperature controllers, dryers, cooling systems, and more.

Multi-material injection molding: Processing materials with different properties in a single process to enhance design flexibility.

Multi-layer blow molding and vacuum forming: Achieving lightweight designs while strengthening core functions such as barrier and impact resistance.

Integrated injection molding and compression molding: Reducing production cycles and improving efficiency and precision.

Coating: Enhance wear resistance and corrosion protection, extending the lifespan of molds.

High-cavity mold design: Improve production efficiency.

High-precision hot runners: Ensure accurate temperature control in the flow channels, enhancing molding quality to meet high-end application requirements.

Be featured in the “Top 10 Technology Trends in Plastics and Rubber 2026” report.

Be presented to the global plastics and rubber industry in both Chinese and English.

If the selected companies participate in CHINAPLAS 2026, judging experts will visit their booths for research and in-depth discussions.