Exposed coil end wiring uses corrosion-resistant conductive material to keep spiral inductors compact while protecting reliability.
Machined ribbon windings with controlled gap spacing and coolant flow help high-current inductors limit heat and hold stable inductance.
Thickness-direction connection conductors free the coil ends to meander more fully, improving inductance acquisition efficiency and flux symmetry.
An elastomer sandwich block stabilizes air-core reactor windings, preventing settling gaps and reducing shutdown maintenance.
Layered Si-oxide and Cr or Al oxide films improve insulation between metal magnetic particles while preserving magnetic permeability.
Bent terminal apertures compensate lateral and longitudinal variance in choke coil assembly while reducing machining and manual stages.
Spirally wound metal foils with insulator layers and epoxy resin cut air gaps, resist flashover, and shrink inductor size.
Bent terminal apertures absorb lateral and longitudinal circuit terminal variance, reducing choke coil machining stages and easing assembly.
A sandwich compensation block with an elastomer core absorbs settling in air choke coils, reducing gap formation and shutdown-prone gap filling.
A concentric auxiliary coil lets an air-core reactor connect low-power filters without extra high-voltage equipment, cutting bulk and cost.
Thin wide foil, insulating sheets, and epoxy potting let this dual-coil inductor withstand transient overvoltages in a compact, vibration-stable package.
Spirally wound foil coils with thin insulating sheets cut flashover risk and vibration while keeping high-voltage inductors compact.
A magnetically coupled auxiliary coil lets an air-core reactor connect low-power filters without extra high-voltage equipment or oil.
Strategically placed core gaps guide leakage flux into adjacent iron cores, cutting coil eddy current losses while preserving magnetic containment.
Radial interconnection joins parallel coil elements without twisting the flat wire, reducing gap distance and maintaining magnetic properties.
Double winding confines magnetic flux to reduce eddy current losses in adjacent metal enclosures.
Segmented multi-layer winding bundles in air core reactors boost inductance while reducing physical dimensions.