Touch Substrate with Zig Zag Mesh Electrodes for Accuracy

The conductive channel is segmented into multiple parallel strands instead of a single continuous channel. This segmentation allows the channel to maintain electrical connectivity while reducing the effective width, thereby lowering capacitance without significantly increasing resistance. The multiple strands work together to provide both low resistance and low capacitance characteristics simultaneously.

The conductive channel has non-uniform width along its length, with different sections having different widths. The channel is narrower in certain regions to reduce capacitance and wider in other regions to maintain low resistance. This local variation in geometry allows optimization of both electrical properties at different locations along the same channel.

Instead of using a single narrow channel that would have high resistance, the design segments the conductive path into multiple parallel strands. Each strand can be narrow to minimize capacitance, but collectively they provide low resistance through parallel electrical connections. This segmentation resolves the contradiction between narrow width (low capacitance) and sufficient conductivity (low resistance).

Multiple conductive strands are merged into a single functional conductive channel structure. While each individual strand is narrow to reduce capacitance, the strands are electrically connected in parallel to combine their conductivity, achieving both low capacitance and low resistance properties that would be impossible with a single channel of equivalent total width.

The conductive channels are designed with asymmetric, non-uniform width profiles instead of symmetric uniform widths. The channels are narrower in certain regions and wider in others, creating an asymmetric geometry that breaks the periodicity that causes Moiré patterns. This asymmetric design eliminates the visual interference patterns while maintaining electrical performance.

The conductive channels incorporate curved and zig-zag geometries instead of straight linear paths. The channels may have bends, curves, or zig-zag patterns that disrupt regular periodic structures. This curvature and geometric complexity prevent the formation of Moiré patterns by breaking the regularity that causes interference, while still providing effective conductive paths.