Transformers/Reacts Mounting/Support/Suspension TRIZ Cases

See how a movable plate and support member enable safe transformer installation without lifting

See how positioning the voltage-doubling rectifier capacitor below the transformer reduces circ

See how a flexible heat dissipation component deforms to maintain intimate contact, improving h

See how a fuse block mounting bracket integrates with the transformer to share mounting locatio

Adjustable diagonal braces and strong-back struts help a pole-mounted transformer bracket resist static load and seismic deformation.

A screw-driven compressing structure closes transformer gaps in tight chambers, improving inductance stability, heat dissipation, and fixation.

A nested case, core cover, and separator line filter cuts display EMI while keeping PCB mounting slim and assembly cost low.

A core-mounted lifting attachment removes the heavy support frame while guiding cooling airflow through cover openings to cut cost and improve heat dissipation.

Pins on different core surfaces and a pressed metal-sheet winding help SiP inductors save space, cut loss, and improve heat dissipation.

A case-free ring-core filter mounts into a PCB hole to cut installation thickness while maintaining insulation, durability, and space use.

A gapless core, bobbin, and spacer assembly shrinks medium-voltage inductors while improving manufacturability, cooling, and service access.

A partially overlapping lead frame creates a direct heat path from the coil, improving laminate transformer cooling while preserving isolation.

Phase-shifted, oppositely excited magnetic elements share a core plate to cut transformer volume, core loss, and cost in LLC converters.

Curved lead-to-turn connections and anchor parts reduce stress concentration, prevent detachment, and support more coil turns.

Machine-wound bobbins and in-line soldering reduce winding stress, assembly errors, and temperature-cycling failures in UI core transformer modules.

Embedded multiwinding magnetic cores in a TLVR module improve transient response, power density, heat dissipation, and noise immunity.

An auxiliary winding layout lets the coil cover the welding surface, shrinking PCB footprint while keeping the inductor assembly stable.

A wound spiral core restores magnetic flux continuity on connected power lines, improving harvested power and reducing split-core losses.

A peripheral shield conductor and high-voltage dummy patterns suppress field concentration around high-voltage patterns to improve withstand voltage.

Modular transformer circuitry with cable-linked serial or parallel connection helps slim electronics resist external pressure and avoid cracks.

By placing the board connection part below the coil connection part, this noise filter shrinks size while supporting caulking and stable current separation.

A standoff separated from the mounting terminal enables electrical inspection while limiting terminal deformation, corrosion, and vibration damage.

An annular inductance and capacitor unit mount at variable bus bar positions, enabling one filter design to handle different EMC noise cases.

A vertically stacked board layout with side conductors shortens current paths to cut parasitic inductance and shrink PCB footprint.

Embedding the magnetic component in a PCB groove cuts inductor footprint while preserving signal filtering and inductance performance.

A concave magnetic core houses PCB passive components inside the inductor module, cutting VRM size and improving power density and response speed.

Interlocking protrusions, grooves, and inclined walls expand inductor-to-plate contact area to improve heat transfer and mounting stability.

A thicker, faster-etching pattern enhancement layer keeps OCZT residue off the etch stop layer, reducing magnetic leakage and improving inductor reliability.

An adjustable pinned spreader bar holds transformer lids open with slings, improving access while reducing manual monitoring and extra labor.

A recessed bobbin and support structure improve transformer cooling, reduce substrate warping, and save space in power conversion layouts.

A vertically overlapping coil layout cuts transformer footprint and leakage inductance in slim high-frequency designs.

An anchor part lodged in the core secures miniature coil terminal electrodes, reducing detachment and solder popping during mounting.

Two toroidal cores split common-mode and differential-mode damping to suppress line interference while preserving useful signals.

A sliding elastic coupling stabilizes cast-resin transformer coils while absorbing vibration and compensating thermal expansion.

Segmented insulated magnetic layers in an embedded PCB inductor cut eddy current heating while preserving inductance in compact electronics.

Multiple secondary windings with individual converters inject controlled line impedance for reliable, lower-cost HV transmission balancing.

Guide grooves and an extending support board keep elastic NFC coil ends aligned to PCB pads, improving soldering yield and connection stability.

Guide surfaces and abutment features align the top plate to the core while preserving a magnetic gap for stable inductance and DC bias performance.

Overlapping PCB coil patterns enable polarity matching in slim EMI filters without board rework, while avoiding inductance asymmetry.

Spring and retaining clips secure planar magnetics to a PCB, absorbing shock loads while reducing thermal expansion stress and assembly cost.

Embedded magnetic and insulating core layers cut eddy current paths in PCB inductors while raising inductance and supporting device miniaturization.

A cooling plate mounted to the inductor shell shortens the heat path, lowering operating temperature and extending converter inductor life.

Vertical stacked windings cancel central flux and shorten secondary loops, cutting AC and termination losses in high-frequency LLC converters.

Partition walls and an insulating cover secure primary-secondary clearances, enabling smaller transformer layouts without losing insulation safety.

By placing both coil terminals on one side of the magnetic core, this inductor cuts PCB footprint and improves mounting and wiring efficiency.

Spring and retaining clips secure planar magnetics to PCBs without solder stress, improving shock resistance and heat transfer.

A high-conductivity frame embedded in magnetic powder creates direct thermal contact, shortening heat paths and avoiding TIM resistance.

Passive CT isolation clamps harvest power from three phases while isolating a grounded electronics module from corona discharge damage.

Laminated plastic-sheet coils with plated through holes replace difficult spot welding, enabling scalable wireless charger capacity and easier assembly.

Alternating internal conductor orientations balance magnetic flux in an inductor array, improving inductance uniformity and current capacity.

Separate winding posts raise leakage inductance enough to remove extra inductors, cutting LLC magnetic size, weight, and energy loss.

A cavity-defined tapered magnetic structure improves IC package dimension control, avoids bridging, and reduces via cracking in volume manufacturing.

A fiber reinforced resin wound around the coil resists electromagnetic-force deformation while preserving magnetic field quality for reliable magnetization.

Honeycomb composite panels stiffen transformer core frames to resist short-circuit cracking without the weight penalty of solid steel plates.

A hub-and-tab mount secures simulated track inductors inside termination shunt enclosures while allowing quick installation and removal.

A closed magnetic circuit embedded in the package substrate cuts transformer size while maintaining inductance and lowering DC resistance.

A dual-wall shell transformer tank uses a deformable outer section and sealed chamber to absorb arc overpressure and contain insulating liquid.

A coating layer secures the exposed coil terminal and winding turns, preventing loosening during soldering and improving connection stability.

Flat second fillers with metallic bonding suppress aggregation in coil external electrodes, improving strength and stability under thermal change.

An insulating layer and controlled electrode overlap improve breakdown voltage, electrode flatness, and MUF gap in thin coil components.

A coupled inductor exposes part of its inductive path on an opposite face to conduct heat through the core and support compact high-current power circuits.

A size conversion unit gives tiny passive elements a larger board-side terminal area, easing SMT mounting and improving electrode contact.

Shared flat insulation across matrix-arranged coupled inductors cuts transformer size, weight, and cost in medium-voltage fast charging.

Segmented winding guides and distributed gaps cut harmonic heating in inductors, lowering AC resistance, core losses, and emissions.

A pivoting split-core housing and lock simplify one-handed installation in crowded panels while preserving accurate current monitoring.

Asymmetric via-to-coil contact areas strengthen the stress-prone bottom side, preventing disconnection in downsized mounted inductors.

Concentric multifilar windings and spacers raise coil Q, improve airflow cooling, and cut eddy losses in plasma processing.

A horizontal winding axis and hexagonal body keep external electrodes from blocking magnetic flux while preserving compact, secure mounting.

Discrete inductors stacked over surface mount packages improve heat conduction and electrical interconnection in a compact power module.

A pattern enhancement layer enables wet removal of oxygen-CZT residue before etch-stop contact, reducing magnetic leakage in chip inductors.

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