Transformers/Reacts Mounting/Support/Suspension TRIZ Cases

A magnetic inductive coil module uses an insulative separator to position primary and secondary windings for reliable electrical isolation.

Automated wire wrapping replaces manual soldering of Ethernet magnetics wires, preventing breakage and ensuring reliable electrical connections.

Segmenting the fastener and inverting the installation sequence eliminates rotational force, accelerating attachment while maintaining connection security.

A transformer thermal radiator cools power field effect transistors using integrated radiant heat exchangers.

Nesting inductors within each other resolves low inductance per unit area by maximizing chip footprint utilization.

Linear optimized isolation transformer uses permanent high-Q dielectric to maintain electrical conductivity across windings.

Integrates terminal platform with fixing portion on outer resin portion to reduce reactor height while maintaining structural strength.

Segmented isolation barriers in the transformer cup allow machine winding while maintaining electrical isolation, eliminating encapsulation voids.

A distributed gap inductor winding apparatus with a powdered core material filters high frequency harmonics by passing carrier frequencies above 700 Hz.

A circuit assembly uses a receiving protrusion penetrating the board to transfer heat from an inductor coil and core member.

Vertical stacking of magnetic component assemblies minimizes board footprint and thermal potting material usage to increase power density.

A micro power converter design redirects magnetic flux through a specialized substrate structure to minimize external field interference.

A voltage regulator module embeds metallic winding assemblies within a circuit board recess to reduce overall height.

A transformer cooling device uses a heat pipe and heat sink to dissipate heat internally without mechanical fans.

A compound line filter positions its gear between coils to reduce axial size while maintaining magnetic properties.

Gapless divided core pieces reduce leakage flux while maintaining compact dimensions for on-vehicle converters.

A coil design uses a screw to transmit axial clamping force, creating a frictional connection that secures connecting lines within an intermediate space.

Co-located shared terminals enable magnetic components to extend across the full module footprint, resolving power transmission capacity limits.

A stacked discrete inductor structure integrates semiconductor components directly onto the inductor substrate to minimize package size.

Elastic compensation elements accommodate coil unevenness while longitudinal strips extend the creepage path, reducing material usage and production cost.

Staggered notches on the bobbin route outlet terminals along a curved path, preventing overlap and short-circuits during automated winding.

An insulating support flange isolates current loop conductors from transformers using fixed air gaps.

Reshaped wire ends form latching edges that ensure coplanarity of connection areas, enabling reliable surface mounting of thick-wire inductive components.

A transformer design fixes primary and secondary windings to parallel magnetic core walls using thermally conductive adhesives.

An integrated single-piece frame replaces multiple bolts and banding straps to reduce assembly time while ensuring structural integrity during lifting.

A retaining member ridge welded to a coil element end stabilizes the connection during resistance welding.

A planar coil unit integrates a magnetic sheet on the non-transmission side to reduce thickness while maintaining transmission efficiency.

Flange part and snap protrusions lower planar transformer height while securing pins for slim flat panel display integration.

Planar common-mode chokes eliminate stacked core complexity by merging ferrite and nanocrystalline materials on a PCB.

Segmented electrical box housing isolates transformer from chime, reducing wiring complexity while preventing voltage safety hazards.

A coil component embeds a low magnetic permeability part between coil surfaces to limit flux leakage.

A choke coil module uses upright posts and heat radiating holes to create an air guide passage for efficient thermal management.

Direct coolant contact with the inductor winding eliminates thermal interface resistance, while potting material prevents leakage.

A coil device stopper with a rotatable base portion secures conductive wire within the coil base groove.

A coil transducer with a thick dielectric barrier resolves high voltage breakdown issues while reducing electromagnetic interference susceptibility.

Notched z-shaped pins replace hand-soldered windings to eliminate thermal cycling failures while enabling pick-and-place assembly.

Segmenting the magnetic core into two parallel units accommodates thicker wires, preventing overheating while maintaining a compact footprint.

Segmenting the bushings from the resin body eliminates expensive integrated molds and prevents junction cracks caused by thermal stress.

A conductive spring portion transmits sensor signals from a movable portion to a substrate, eliminating separate wiring paths.

Integral cooling passages within the rectangular inductor structure manage thermal loads and reduce electromagnetic interference for MRI gradient drivers.

Asymmetric secondary winding turns balance leakage inductances to prevent copper loss and localized overheating.

Insulative receptacle routes secondary winding wires over an upright wall to bond directly to a circuit board.

Spiral inductor resonant circuit couples to metal medical instrument, widening communication band despite varying Q-factor.

Segmented aramid spacers between soles and components reduce heat transmission to the armature, lowering noise below 70 decibels.

Segmented housing and asymmetrical pegs manage toroid wires, resolving shear-off failures and cumbersome assembly processes.

A transformer drum core uses differentiated gap structures to control magnetic flux paths between the flange and terminal electrodes.

Stacked insertion sub-parts increase effective conduction area to lower DC resistance without enlarging the inductor insertion part size.

An adjustable screw mechanism varies the pressing force on winding components, resolving vibration resistance issues across different reactor dimensions.

An inductance element uses an adhesive portion to integrally fix a magnetic core within a bottomed container.

Segmented core members soldered to a PCB aperture resolve soldering reliability and production speed trade-offs in planar magnetic components.