Segmented dual-layer touch sensors prevent electrode breakage during bending, extending lifespan while overlapping wires minimize space usage.
Projected portions on flexible wiring substrate expand seal member width to suppress deformation during insertion and maintain uniform surface pressure.
Integral substrate elevation blocks electromagnetic radiation between components, reducing manufacturing complexity and costs.
A mobile terminal side case features a single slit with spaced end portions to function as an antenna radiator.
An electronic panel structure uses an inorganic insulation layer to protect underlying organic insulation layers during manufacturing.
Composite substrate with penetrating electrodes connects directly to printed circuit boards, eliminating expensive connectors and reducing manufacturing costs.
Orient optical fibers nonparallel to circuit substrate surfaces to eliminate bending radius constraints and increase mounting density.
A circuit driving element integrates a protective layer covering the entire top surface of the driving chip to withstand bending stresses.
Bus bar orientation differs from mold release direction to prevent resin molding interference and reduce manufacturing costs.
Segmented adhesive tape secures flexible printed wiring boards to backlight frames.
Segmenting pumping functions into driving and circulation units increases cooling liquid flow speed to resolve slow cyclic flow bottlenecks.
Segmented heatsink plate slots contain phase change material to absorb heat, protecting sensitive electronics from thermal stress in guided munitions.
Selective ground conductor placement reduces transmission line thickness without increasing capacitance or transmission loss in the first portion.
An inner metal layer extends perpendicularly through the insulating substrate to disperse thermal stress and prevent warping.
Vertical trench routing extends differential signal conductors into substrate layers, reducing PCB loss and eliminating retimers for high-speed serial I/O.