See how a porous coil enclosure with ventilation gaps enables convection cooling and eliminates
Identical corner members and interchangeable side sheets fit different bolt circles, cutting tooling and inventory while improving base access.
A conductive tube wall is laser-shaped into a helical coil with integral terminals, cutting joint resistance, thermal stress, and assembly faults.
Metal springs with reinforcing ribs keep divided magnetic cores in close contact over time, avoiding resin creep and preserving noise reduction.
Integrated shielding on the inductor core cuts electromagnetic interference, saves board space, and simplifies manufacturing.
A toroidal core, multi-channel switch, and core fixing structure stabilize output voltage, cut power use, and discharge heat to protect loads.
Dual-size magnetic particles with recessed larger grains raise permeability and inductance while cutting radio-frequency eddy current loss.
Spherical fillers in outer-leg adhesive gaps keep magnetic core spacing precise, spread heat more evenly, and support smaller high-inductance designs.
Controlled magnetic powder sizes and resistivity layers protect coil insulation during pressing and improve inductor voltage withstand.
A spaced encapsulation layout keeps magnetic components separated by a gap, reducing stress-driven power loss and parameter drift.
A multilayer magnetic core creates 3D heat paths, lowers thermal resistance, and frees PCB space for more output capacitors.
A segmented case houses the flat-wire coil and supports the core to prevent misalignment, shrink size, and improve cooling.
A rougher second main surface cuts static charge from carrier tape contact, helping chip components keep orientation and mount reliably.
A segmented encapsulation layout keeps stress away from magnetic components, reducing power loss while preserving thermal and signal paths.
A four-leg magnetic core and crossed winding terminals balance series resistance, improve current sharing, and reduce saturation in power modules.
A low-CTE core with extended inductor structures replaces costly buildup layers, cutting substrate cost while preserving strength and low insertion loss.
A magnet-mounted sloped diverter captures escaping transformer fluid and drains it away from critical components without overflow.
Recessed electrodes and grooves increase coil component mounting area to prevent PCB rotation and improve bonding strength.
A resin body supports block coil terminals over the magnetic core, preventing short circuits and sideways displacement during assembly.