Replacing non-conductive frit with metallic glass reduces contact resistance and increases charge transfer efficiency in solar cell electrodes.
Graded metal oxide distribution in via conductors suppresses ringing and stabilizes resistance fluctuations during IC activation.
Interlocking electrode arms generate secondary capacitance in a monolithic body, eliminating separate processing steps and reducing manufacturing complexity.
Arc shield pattern layers surround internal electrodes to manage the electric field distribution within high voltage multilayer ceramic capacitors.
Resin layers between outer electrodes and terminal frames damp piezoelectric vibrations, reducing acoustic noise by 20 dB on circuit boards.
An embedment layer with lower elastic modulus than the substrate absorbs vibration from embedded multilayer ceramic capacitors, reducing audible noise.
Atomic layer deposition coats nanoparticles with oxidation-resistant films to enhance passive electronic component performance.
Rounded edge curvature design increases effective volume in multilayer ceramic capacitors while preventing void formation at cover portion corners.
A multi-layer capacitor package uses vertically overlapping connection electrodes to maximize active surface area within a compact housing structure.
A multilayer capacitor uses metal frames with lower protrusions engaging electrode pad grooves to secure the component.
An insulating portion covers a conductor layer in a multilayer ceramic capacitor, resolving moisture resistance and mechanical strength trade-offs.
Relocating dummy electrodes to a lower layer preserves capacitive thickness while preventing bending.
Controlling the insulating film interface angle to 22 degrees or less increases breakdown voltage, resolving low reliability issues in thin film capacitors.
Specific conductive resin layer thickness ratios enable gas emission from absorbed moisture, preventing stress-induced peeling during solder mounting.
Split electrode patterns distribute fuse parts across two rows to reduce localized self-heating and minimize capacitance loss during safety operations.