A fixed high-permeability core inside the coil stabilizes inductance while supporting low-pressure molding of large coil components.
A glue frame secures SMD transformer welds and coils without stressing the magnetic ring, preventing inductance attenuation and lowering cost.
Cross-connected windings let multiphase regulator drivers sit on the same side, cutting inductor area, routing length, and power loss.
A reconstitution process builds thickness-matched component hybrids that prevent passive shifting in package cores and maintain electrical contact.
Lateral core parts saturate at high current to vary inductance and coupling automatically, cutting component and conduction losses.
A split AC-AC converter uses thyristors and a protective impedance to cut PEET losses and cost while preserving voltage regulation.
A laminated winding structure forms isolated transformer coils around a magnetic core, enabling smaller and easier-to-manufacture IC packages.
A slotted insulating cap fits standard and new arrester brackets to cover mounting bolts and block wildlife contact with high voltage points.
A laminated leadless transformer package uses separate traces, a surrounding dam, and encapsulation to deliver galvanic isolation in a smaller package.
Dummy and lead-out pattern exposure relieves dicing stress in thin-film coils, reducing substrate cracking and warpage.
A dual RVDT with an anti-backlash gear reducer extends aircraft rotary angle sensing while preserving high accuracy and eliminating backlash.
Combining standardized inductor structures enables flexible inductance values while a protection structure separates electrodes to improve reliability.
A magnetized shell with gaps boosts inductance in a compact inductor structure, saving PCB space in power and wireless circuits.
Varying lead pattern thickness across the coil component cuts plating bleeding and chipping while preserving DC resistance and contact reliability.
A single-rail op-amp rectifier, summing circuit, and voltage offset improve VDT resolution while cutting dual-supply part count.
A widened 3D connection electrode helps thin coil components keep low loss and high efficiency while easing routing and precision demands.
Capacitive coupling lets voltage sensors track winding transients in real time, helping prevent transformer overvoltage damage and failure.
A silica-resin protective film with controlled thickness and particle size improves inductor moisture resistance, corrosion protection, and insulation.
Ferromagnetic bodies placed around the winding enable precise inductance tuning with lower temperature dependence for resonance applications.
Grounding module housings to circuit lines with matched potentials cuts inter-housing voltage difference, reducing insulation distance, size, and cost.
An access port and auto-opening end cap simplify 220 KV transformer sleeve inspection while reducing heat-related aging and sealing issues.
A segmented sleeve with rotating and movable parts enables maintenance without full removal while preserving sealing and reducing overheating.
A molded soft magnetic composite around dual windings cuts part count and air gaps while keeping saturation linear and output voltage stable.
Cycloaliphatic epoxy-filled ceramic pores help coil components retain strength during long high-temperature exposure without losing resin-fill benefits.
Differential via end areas preserve magnetic material volume while strengthening coil-body bonding and connection reliability.