LED Bonding Pad Layout for Linearity and Thrust Resistance

The bonding pad structure is segmented into multiple functional components: a bonding line with first and second sections, and multiple traces (5-10 traces) extending in radial directions. This segmentation allows each component to perform specific functions - the bonding line provides primary mechanical support while the traces distribute thrust forces in multiple directions, collectively achieving superior linearity and thrust resistance compared to traditional monolithic bonding pads.

The bonding pad design transitions from a simple linear or planar structure to a multi-dimensional radial configuration. The traces extend in multiple directions (0°, 45°, 90°, 135°, etc.) relative to the bonding line, creating a three-dimensional force distribution network. This dimensional expansion enables the structure to resist thrusts from various directions simultaneously, significantly improving linearity while maintaining reasonable complexity.

The bonding pad structure is pre-configured with multiple traces extending in specific radial directions before the light-emitting diodes are mounted. This preliminary arrangement of support structures ensures that when multiple LEDs are mounted, each device receives uniform mechanical support from multiple angles, pre-establishing the conditions for high mounting accuracy and linearity across the entire display array.

The bonding pad design changes key structural parameters: the bonding line includes a first section and a second section at specific angles, and multiple traces are positioned at predetermined angular intervals (e.g., 0°, 45°, 90°, 135°). These parameter changes create a balanced mechanical field that accommodates multiple light-emitting diodes with consistent positioning, enabling high mounting accuracy even as the number of LEDs increases to enhance display brightness.

The bonding pad structure compensates for reduced area by transitioning to a multi-dimensional configuration. Instead of relying on a large single-plane area, the design uses a bonding line with sections at different angles and multiple traces extending radially in three-dimensional space. This dimensional transformation allows a compact bonding pad to distribute thrust forces across multiple directional vectors, maintaining high thrust resistance despite the reduced overall area.

The compact bonding pad is segmented into multiple functional elements - the bonding line with first and second sections, and 5-10 traces positioned at various angles. Each segment contributes to thrust resistance in its specific direction, and the collective action of all segments provides comprehensive mechanical support. This segmentation allows the small bonding pad area to achieve thrust resistance comparable to or exceeding larger traditional bonding pads.