Transformers/Reacts Mounting/Support/Suspension TRIZ Cases

A nested radial winding and core layout transfers exciter power without brushes, cutting axial length, friction losses, and heat burden.

A cavity around the magnetic core lets isolated transformer packages absorb magnetostriction, improving magnetic performance without larger package size.

A coplanar-lead toroid inductor handles high current without through-hole mounting, freeing PCB backside space and lowering assembly cost.

A single epoxy bushing houses the transformer, terminal, and busbar to cut switchboard parts, maintenance time, and volume.

Spiral resonant inductors built into the transformer cut OBC PCB space, part count, and mounting time while improving heat emission.

A nested core-and-winding layout uses the winding frame interior more efficiently, cutting transformer height and overall size.

An insulating board with protrusion cavities positions the magnetic core without crossing its air gap, improving transformer efficiency and power density.

Protrusions and connecting bridges create insulation cavities that position the magnetic core, tightening air gap control and improving transformer efficiency.

Groove-embedded anchor portions let an electroplated coil avoid residual seed-layer insulation faults while improving fixation to the support substrate.

Placing the GND via outside the coil connection polygon cuts stray capacitance and improves signal noise filtering in compact overlapping components.

A peaked solder fillet with more volume near the core end helps molten solder reach the end surface for stronger, inspectable coil joints.

Shaped heat sink portions follow the winding profile to cut thermal resistance, improve transformer cooling, and shrink chassis volume.

Bottom resin filling replaces side-wall access in a compact reactor case, cutting special processing cost while supporting heat dissipation.

Selective flange removal at core interfaces enlarges the winding window, improves heat transfer, and protects inductive cores.

A wedge-shaped mounting box with protrusion-groove contact boosts inductor heat conduction to the cooling plate while stabilizing placement.

A planar header trace and overmolded core shrink transformer size while preserving electrical performance and lowering power use.

An asymmetric magnetic core couples the upper cover to a heat sink to balance heat distribution and simplify core fixing on the circuit board.

Axial pin grooves in the bobbin keep lead-wire insulation distance while fitting more transformer coil terminals in less space.

A TLVR inductance assembly embeds the output capacitor and uses integral packaging to improve VRM transient response, efficiency, and solder-joint reliability.

A flat-plate primary coil with upper and lower secondary coils cuts EV LDC transformer size, simplifies assembly, and improves insulation and EMI shielding.

An air guidance plate blocks bypass flow in the outer duct, pushing more air through transformer coil cooling channels with lower fan power.

A flange-wrapping terminal route lengthens the heat path from wire joint to mount pad, improving solder joinability and coil stability.

Nested annular copper modules deliver high current in a smaller transformer while reducing material loss and avoiding noisy or polluting cooling.

Conductive standoffs carry mechanical loads between substrates, protecting ferrite inductor cores from cracking while enabling dense power layouts.

By connecting the integrated capacitor only to the output terminal, this choke module suppresses resonance and improves 10 MHz to 1000 MHz noise attenuation.

A framed resonance space with external pipe tuning cuts transformer noise and vibration across sizes, mounting heights, and radiation directions.

Positioning the current sensor at the bus bar crossing in the toroidal core center cancels leakage-flux interference and improves accuracy.

Clamping pieces engage the flange wall to prevent terminal detachment under vibration while lowering DC resistance and insertion loss.

Segmented magnetic cores embedded in a PCB module even out loss distribution, cut parasitic impedance, and improve heat dissipation.

Planar contact between a coil core and a heat conduction structure redirects waste heat to the housing, improving lamp driver reliability.

A snap-fit tool holds and centers a measurement coil on a conductor, cutting installation time while improving stability and reducing interference.

A guide tube and insulated coupling shaft let pad-mounted transformer switches be operated remotely without opening the door.

Computer vision compares winding images with design data to catch transformer winding errors in real time, reducing waste and failure risk.

A ring-shaped power electronic transformer uses segmented cooling circuits and epoxy insulation to enable compact AC-DC conversion with lower leakage risk.

A 3D-printed polymer support combines pressing, insulation, and coolant flow to cut transformer thickness, parts, and material use.

Split magnetic core sections relieve CTE-driven thermal strain in rotating assemblies, preventing ferrite breakage and preserving power and data transfer.

Alternating stacked spiral coils tune coupling coefficient without increasing component height, supporting LC filter noise separation.