The automotive plastics industry is evolving rapidly, driven by electrification, lightweighting, sustainability and circular manufacturing. The growing adoption of advanced materials such as recycled plastics, composites and bio-based polymers is creating new opportunities while increasing the need for precision, flexibility, productivity and energy-efficient injection moulding technologies.
Inovance's comprehensive automation portfolio, spanning Variable Frequency Drives (VFDs), Ino air wireless servo drives, servo motors, PLCs, HMIs, motion controllers and SCARA robots, enables manufacturers to address these evolving requirements. The recent acquisition of SBC Linear Co., Ltd. (SBC) further strengthens Inovance's precision mechanical transmission capabilities with linear guide systems, ball screws and robot carrier rails. Together, these technologies enable more integrated motion-control and automation solutions for advanced plastics manufacturing.
Anil Kumar, Managing Director, Inovance Technology India
Battery Enclosures: Combining Lightweighting and Protection
The growth of electric vehicles has increased demand for high-performance polymer solutions for battery enclosures. These components must provide mechanical protection, dimensional stability, thermal resistance and, depending on the application, flame-retardant performance. Lightweight polymers and composites can help reduce vehicle weight while maintaining the required functional performance.
Producing large and complex battery enclosure components, however, requires precise control over injection speed, pressure, holding pressure and moulding cycles. Inovance's PIMM (Plastic Injection Moulding Machine) integrated solutions address these requirements through advanced servo-based motion and hydraulic control. The ES680 electro-hydraulic servo drive and IS580 hydraulic servo drive, integrated with MEG20/23 series motors and ISMG servo motors, provide responsive and precise control for injection moulding applications. This helps manufacturers achieve stable machine operation, consistent component quality and efficient production.
Recycling Auto Plastics: Supporting a Circular Economy
Recycling is becoming an essential part of the automotive plastics value chain. Recovering polymers from end-of-life vehicles and incorporating recycled materials into new components can reduce waste and consumption of virgin raw materials. However, recycled plastics can exhibit variations in melt flow, moisture content, contamination and mechanical properties, making process consistency a critical challenge.
Advanced machine control can help processors respond to these material variations. Inovance's IS580 hydraulic servo drive supports precise control of injection speed and pressure-holding operations, while the ES680 provides efficient electro-hydraulic control for demanding injection moulding applications. Integrated with Inovance servo motors, these technologies support repeatable processing conditions when working with recycled and mixed polymer feedstocks, helping manufacturers maintain productivity and component quality.
Composites: Enabling Lightweight Automotive Components
Composite materials, particularly fibre-reinforced thermoplastics, are increasingly being considered for automotive applications because they can combine high strength with reduced weight. Their use is expanding across structural, semi-structural and interior components, supporting the industry's broader lightweighting objectives. Processing these materials requires accurate machine movement and repeatable moulding conditions, as fibre orientation, filling behaviour and pressure profiles can influence final component performance. Inovance's FIMM (Full Electric Injection Moulding Machine) solutions are designed to deliver high levels of precision through an integrated motion-control architecture.
The solution incorporates MEG series servo motors for high-speed, high-precision motion control, HSP and HSL series ball screws for smooth and reliable transmission, and EFYH series ring force transducers for accurate force measurement and process monitoring. These technologies work together to support precise machine operation and improved process monitoring when processing advanced polymers and composites.
Bio-Based Polymers: Advancing Sustainable Material Choices
Alongside recycling, bio-based polymers and natural-fibre composites are gaining attention as manufacturers explore alternatives to conventional fossil-based materials. These materials can reduce reliance on non-renewable resources while creating new opportunities for automotive interiors, trim and selected structural applications. Their successful adoption, however, depends on meeting demanding requirements for strength, durability, dimensional accuracy and production consistency. Since their processing characteristics can differ from conventional polymers, accurate injection and mould control become increasingly important.
Inovance's FIMM solutions provide a precision-oriented platform for such applications. Servo-driven axes, high-precision ball-screw transmission and force measurement enable manufacturers to control machine movements and monitor critical process parameters. This can help processors optimise moulding conditions while maintaining repeatability, productivity and quality.
Conclusion
Inovance's PIMM and FIMM solutions bring together servo drives, motors, precision transmission and force-monitoring technologies to support this transition. From the ES680 and IS580 servo drives, MEG20/23 and ISMG servo motors to MEG servo motors, HSP/HSL ball screws and EFYH force transducers, Inovance is helping plastics manufacturers respond to the evolving requirements of automotive production. With the addition of SBC's precision linear motion and transmission technologies, Inovance is further expanding its ability to deliver integrated solutions.
By connecting advanced materials with intelligent motion control, precision transmission and efficient injection moulding technologies, plastics processors can improve productivity, consistency and quality while supporting the industry's transition towards a more lightweight, circular and sustainable automotive future.
