Transformers/Reacts Mounting/Support/Suspension TRIZ Cases

A core-mounted lifting attachment removes the rigid frame, cutting transformer cost while improving cooling through directed airflow openings.

Nested inner and outer windings with decoupling capacitors shrink the transformer while preserving RF and DC voltage amplification.

By tightening the coil-to-end spacing and relocating terminals to the lower surface, this case boosts inductor capacity while reducing mounting short circuits.

Surface-mounted wire coils on both PCB sides replace thick dielectric buildup, cutting transformer build time, size, and power loss.

A core base plate gives flat-winding inductors a pick-and-place surface, preventing deformation and shorting while supporting higher inductance.

Metal nitride insulating films improve coil heat transfer, helping compact components maintain high-current efficiency at elevated temperatures.

Negative pressure plus vibration helps high-viscosity magnetic admixture fully fill coil molds, reducing air gaps and quality variation.

Varying soft magnetic powder across seamless inner and outer hybrid cores tunes permeability while limiting saturation and flux leakage.

A positioning plate supports a conductive bar to replace cables and crimp terminals, reducing leakage risk, space use, and assembly cost.

Raised end-surface electrodes make solder fillets easier to inspect while lower side portions maintain insulation between coil terminals.

A layered vertical magnetic core and embedded conductor cut parasitic impedance, raise power density, and simplify power module assembly.

A multilayer polyimide support with controlled surface roughness helps thin coil components keep magnetic flux flow and coil stability.

A magnetic-core conductor with a bend-through core and parallel flying lead boosts current delivery on dense PCBs without using extra board area.

An end-mounted air guidance plate blocks outer-duct bypass flow, pushing air through coil windings to improve cooling with smaller fans.

A horizontal winding axis lets magnetic flux run parallel to the mounting surface, avoiding electrode blockage while allowing a larger inner diameter.

A diphenyl sulfide oxime ester initiator limits lateral radiation spread while preserving cure depth, producing wiring patterns closer to photomask dimensions.

By enclosing the transformer, filters, and TVS diodes in one SMT module, this case cuts manual assembly, board size, and shock exposure.

Deformable locating pins in PCB holes precisely align current sensor coils, improving signal consistency and assembly robustness.

Bent locating pins and flange engagement place coil elements precisely on a PCB, improving current measurement consistency and field immunity.

An inner loop nested inside an outer coil boosts overlap and coupling, keeping wireless charging recognition stable across positions.

A striped roughness pattern on one strip surface improves winding strength and strip contact, enabling smaller magnetic cores with fewer cracks.

A spring securing member surrounds the magnetic core to raise board joint strength, spread stress, and simplify coil component mounting.

A non-parallel capacitor wiring layout limits magnetic coupling, stabilizes parasitic inductance, and broadens filter noise reduction.

Additive deposition builds spiral windings into an insulating carrier, removing through-connection bottlenecks and reducing material waste.

Inner conductors fill the toroidal opening while spaced connecting elements and insulation raise inductance and cut parasitic capacitance.

An inductor mounted through the housing replaces bundled external cables, cutting power converter assembly time and cable fastening work.

An inductor mounted through the housing cuts manual cable bundling, speeds converter assembly, and supports heat dissipation.

Opposed wire coils on a PCB with a through-core and header simplify isolated high-to-low voltage conversion, reducing transformer cost and build time.

Detachable coil bodies form integrated pins for multiple inputs and outputs, shrinking inductor size while improving power density.

A two-region magnetic base with different particle sizes confines flux near the coil and electrode to maintain permeability and cut leakage loss.

Interleaved HV and LV windings cut proximity losses while preserving insulation distance, cooling, and compact bushing placement.

Bent lead portions placed nearer the body surface shrink external electrode area while preserving coil layout freedom in compact electronics.

A thermally conductive interposer and laminate transformer improve heat dissipation while maintaining reinforced isolation in compact high-power packages.

A variable-cross-section winding in a distributed gap powdered-core inductor cuts high-frequency harmonics and helps prevent power cable overheating.

Thermally conductive insulating resin and a conductive surface coating let one molded coil handle cooling and EMI shielding with fewer parts.

A 3D-printed polymer support combines winding compression, insulation, and coolant flow to cut transformer parts, weight, and losses.

A peripheral shield conductor redistributes the field between low- and high-voltage patterns to suppress concentration and raise withstand voltage.

Grooves on the flange route coil leads to disperse impact force, preventing flange damage and terminal separation in electronic devices.