In filament winding, precise control over fiber tension is not just a good practice—it is essential for producing composite parts with predictable performance, structural integrity, and repeatability. Whether you're manufacturing pressure vessels, pipes, or custom composite components, inconsistent or uncontrolled fiber tension can compromise dimensional accuracy, induce residual stresses, and result in defects such as fiber waviness, bridging, or dry spots.

Automation is revolutionizing filament winding by making the process faster, more precise, and cost-efficient. As robotic systems and AI-driven software continue to improve, the future of filament winding will bring higher-quality composite parts at lower costs, expanding its applications across multiple industries.

The materials used in filament winding depend on the requirements of the final product. Carbon fiber and epoxy resin are common for high-performance applications, while glass fiber and polyester resin are used for cost-effective solutions. The right combination of materials ensures a strong, lightweight, and durable composite structure.

Filament winding is used across multiple industries due to its strength, lightweight properties, and resistance to environmental factors. From aerospace to renewable energy, this manufacturing method continues to evolve, offering new possibilities for composite materials in modern engineering.