Continuous Fiber Deposition for Composite Weight Reduction

The patent changes the fundamental manufacturing parameter from sequential layering to continuous strand deposition. The continuous flexible line allows fibers to be deposited in their final oriented position throughout the part volume, eliminating the need for multiple laminar layers and reducing overall part weight while maintaining structural integrity.

The invention transitions from two-dimensional laminar construction to three-dimensional continuous strand placement. The continuous flexible line can be deposited in complex spatial paths, allowing optimal fiber orientation in all three dimensions rather than being constrained to planar layers, thus reducing weight while achieving superior structural efficiency.

The patent introduces dynamic capabilities to the manufacturing process through the continuous flexible line deposition system. The line can be dynamically routed through complex paths, changed in material composition on-the-fly, and deposited in varying orientations, enabling advanced structural designs that are impossible with static laminar construction methods.

The invention enables local quality variations by allowing different materials and fiber orientations to be deposited at different locations within the same part. The continuous flexible line system can selectively change material properties and structural characteristics at specific positions, achieving optimized local performance for advanced designs.

The patent implements continuity by using a single continuous flexible line that passes through the entire part volume. This eliminates the discontinuities inherent in sequential layering of multiple plies, allowing reinforcement fibers to maintain continuous load paths and optimal orientation throughout the structure, thereby improving both strength and orientation precision.

The invention applies preliminary action by pre-orienting the continuous flexible line along the optimal stress paths before deposition. The fiber reinforcement is laid down in its final desired orientation configuration throughout the part volume in a single continuous operation, rather than attempting to achieve proper orientation through multiple sequential layers.