Transformers/Reacts Mounting/Support/Suspension TRIZ Cases

A hybrid serial bus and cross-switch fabric cuts turnaround time, avoids collisions, and enables deterministic data exchange in multi-slave control systems.

A top plate with an external positioning hole fixes heat generator alignment independently of case error, easing accurate component mounting.

A modular bushing support aligns multiple accessory units independently in three directions while avoiding bellows coupling contact during installation.

A spring-linked piston and housing use insulating oil for hydraulic damping to absorb shocks and relieve thermal stress in high-voltage components.

A depthwise grip member sandwiches the reactor assembly to prevent vibration detachment without enlarging the case or installation area.

Opposed sub-coil magnetic fields suppress spiral-induced interference in integrated transformers, improving high-frequency conversion performance.

A coreless nested winding structure with thin insulation and potting boosts coupling, cuts transformer bulk, and enables short high-voltage pulses.

Notched case side walls let board-edge components fit without blocking heat radiation, improving layout flexibility and compactness.

A PCB-patterned inductor module mounted on the power stage shortens current paths, cutting parasitic loss, EMI, size, and cost.

Overlapping radial magnetic arrays enable wireless power transfer with local voltage conversion, lowering incident energy near server racks.

A vertical coil in WLCSP redirects flux away from the die to cut eddy-current and capacitive coupling while preserving package integration.

Parallel sub-windings routed through a nested current sensor cut magnetic size and weight while enabling accurate high-power current measurement.

Capsule-shaped RIV shielding elements replace a complex toroid to simplify converter head assembly, transport, and shielding cost.

A pin-guided busbar with an elongated slide hole removes screw fastening, cutting parts and simplifying reactor assembly while keeping connections stable.

A ramped mounting plate and filament roving create hoop tension that restrains spider-arm bending in air core reactor winding mounts.

Separating PCB windings from plastic-molded winding modules reduces planar transformer layer complexity, speeds production, and improves adjustability.

A wider bottom surface than the top keeps the inductor upright during packaging and board mounting, preserving intended electrical characteristics.

A snap-fit holder tool positions measurement coils precisely on conductors, speeding installation while reducing instability and interference.

A screw-driven plunger in the transformer tank sets magnetic core clamping force precisely, improving shell-type transformer stability under short circuits.

Magnetic core and coil coupling replaces failure-prone multi-pin contacts, improving industrial I/O reliability while providing galvanic isolation.

Distributed core gaps and parallel turns let this inductor handle 50-100 kHz harmonics while reducing cable overheating and AC resistance.

A partial bottom support body shifts mechanical load away from thin extraction electrodes, improving package yield and reliability.

Inclined case and core surfaces keep reactor core pieces in contact without adhesive, reducing flux leakage, vibration, and assembly burden.

A top-opening header enables vertical inductive-component assembly while preserving insulation, shielding, and a compact substrate footprint.

Bottom conductive welding parts hold and terminate winding wires without side posts, shrinking inductor PCB area and improving board bonding.

A top-loading header cavity enables automated inductive component assembly while preserving insulation, safety distances, and magnetic properties.

A gapped magnetic core and spacer keep the bus bar assembly stable under vibration, preventing displacement and preserving noise current reduction.

Flat second fillers bonded to adjacent metal particles keep the external electrode uniform, lowering resistance and preventing strength loss.

Omitting void layers at outer coil interfaces reduces stress concentration and helps multilayer components resist mounting cracks.

Segmented induction substrate blocks and gaps improve wireless charging efficiency, reduce EMI, and keep the module thin and strong.

A shield portion blocks inductor magnetic fields so components can be mounted beneath the core for higher PCB density and smaller boards.

An insulating mounting member keeps capacitor bus bars off the metal case, preventing leakage while preserving positioning and heat dissipation.

Integrally formed holder partitions eliminate insulation gaps in a coil component, improving withstand voltage, noise reduction, and mountability.

Built-in alignment planes and a thermally conducting housing cut inductor tolerances, simplify PCB mounting, and improve cooling.

A thermally conductive interposer and laminate transformer improve heat dissipation in reinforced isolation packages without enlarging footprint.

Identical conversion modules let one transformer platform scale DC-DC converter power across vehicle models while cutting redesign and tooling cost.

A modular transformer uses independent conversion modules to scale DC-DC power ratings across vehicle loads while reducing tooling and design variation.

A core recess placed in a magnetic field-free zone lets a cooling pin reach the heat sink, improving PCB matrix transformer cooling and power capacity.

Power stages placed on opposite sides of a substrate cut horizontal footprint and raise phase density for high-current converters.

Power stages placed on opposite sides of a substrate cut horizontal footprint while enabling dense multi-phase conversion for high-current modules.

A two-section thermoset housing cools storage choke coils directly while cutting metal, insulation, and production cost in DC-DC converters.

Surface recognition patterns help cameras detect coil component direction and inclination on PCBs, improving mounting stability and reducing cracking.

Mechanical engagement between inner and outer core parts simplifies reactor assembly, avoids support jigs, and maintains precise core positioning.

Split inner spiral turns with different angular spacing distribute connectors, equalize current density, and cut AC/DC resistance.

Localized insulation and shielding in a metal transformer housing block leakage-flux eddy currents while preserving cooling and protection.

A nitrogen-then-oxygen heat treatment forms a thin insulating film that preserves magnetic saturation in dense powder-core coil components.

Compressed windings around a gapped core cut fringing-field eddy losses while preserving low DC resistance and better thermal stability.

A fixing band and groove structure keeps a magnetic component tightly coupled to a heat radiation plate despite assembly tolerance, cutting thermal resistance.

Splitting one coil into windings on both sides of a metal plate winding reduces proximity current concentration, cutting loss and leakage inductance.

A lead-frame and magnetic-packing structure improves magnetic shielding, avoids saturation, and simplifies coupled inductor assembly.