Low-temperature curing of a thermosetting resin suppresses metal oxidation and segregation, stabilizing resistance values in chip-type components.
A coaxial resistor guides sensor lines through its interior to shield measurement signals from electromagnetic interference.
A thin bonding layer joins ceramic reinforcement and ZnO-based varistor layers, resolving shrinkage deformation during firing.
Clearance forming portions define controlled solder volumes, suppressing bonding strength variations and thermal stress in surface-mounted varistors.
Thin underlayer corners absorb internal stress to prevent electrode peeling and cracking during wire bonding.
Noble metal oxide bonding ensures ohmic contact between thermistor electrodes and wiring, resolving reliability and cost trade-offs.
A SiCr thin film resistor structure integrates multiple layers with distinct temperature coefficients of resistance using segmented oxide and metallization sequences.
A gravure plate manufacturing method adjusts cell spatial volume and average depth using optical measurement to achieve precise film thickness.
A circuit substrate integrates a dummy wire on the high-potential electrode side to lower local electric field intensity near thin-film resistive elements.
A four-terminal resistor uses symmetrical sub-electrode layers to enable interchangeable current and voltage-testing terminals.
A heat spreader assembly transfers thermal energy from resistive elements to a heat sink via insulated leg portions.
A metal plate resistor electrode incorporates a recessed portion to fit the resistance body and distribute mechanical load.
Spray-coated and sintered glass layers isolate conductive regions to resolve the trade-off between chip miniaturization and resistance precision.
A tip-shaped strain sensor resistor with integrated electrodes enables direct solder mounting on circuit boards.
Embedding the varistor in a substrate recess reduces component height while maintaining mechanical stability.
A chip varistor uses an alkali metal containing portion to enhance electrical resistance and curb parasitic capacitance.
Replacing vacuum E-beam processes, resistance welding eliminates material spattering and reduces production costs while maintaining accurate resistance control.