See how a polygonal profile with elastic deformation maintains constant clamping force on PTC h
Limiting PTC resistor voltage drop to 40 V/mm cuts AC harmonic distortion while preserving temperature-dependent heating behavior.
Stacked plate resistor modules use conductive and insulating rings to remove manual welding, improve cooling airflow, and simplify resistance sizing.
An IPN polymer matrix with metal-ceramic filler boosts PTC over-current layer voltage endurance while keeping low resistivity and cycle stability.
A Cu-Mn alloy with controlled Si and Fe lowers TCR and thermal EMF versus copper, enabling smaller, accurate shunt resistors for large-current sensing.
Controlled PVDF crystal phases and a metal-ceramic filler cut resistivity while improving high-temperature voltage endurance without extra additives.
A dielectric topcoat protects the PTC layer from everyday damage while its resistance shift self-regulates heat without a separate controller.
Controlled PVDF crystal phases improve PTC over-current protection at high voltage and temperature without complex additive formulations.
A polyolefin and olefin-acrylate heat-sensitive layer lowers PTC cutoff to 40-81°C while maintaining low resistivity and stable resistance.
A dual-fluoropolymer PTC layer keeps over-current protection resistivity low while improving resistance stability under thermal shock.
A resistive snap connector dissipates surge energy through Joule heating while maintaining DC contact to protect wearable electronics.
An extended outermost resistive pattern lengthens the current path to improve ESD tolerance and power handling in smaller chip resistors.
A porous PTC polymer matrix accommodates thermal expansion within a compact insertable over-current protection device.
Dual metal shells electrically link to varistor terminals, preventing arc-induced damage while simplifying assembly.