Transformers/Inductances Cooling TRIZ Cases

Conductive connectors equalize pipe and winding voltage, enabling water cooling in dry transformers without discharge or fire risk.

Different thermal conductivity potting layers route heat to the housing wall, improving inductor cooling while reducing weight and material cost.

Internal dielectric fluid passages cool the core and coils, improving thermal management for power inductors mounted in wet vehicle housings.

A plenum and passage layout spreads blower air evenly around electrical components to prevent hot spots and reduce heat damage to nearby parts.

Film insulating layers and fixing members keep laminated planar coils from shifting under vibration, preventing turn-to-turn short circuits.

A 3 mm lintel weld gap between cooling fins and reinforcing ribs cuts blind zones, lowers defects, and improves radiator corrosion resistance.

A cooled magnetic carrier and wound sample tube raise flux density and frequency to induce measurable fields in nonmetallic samples.

RF electric fields heat moist transformer insulation from within, speeding pressboard drying while reducing energy use and overheating.

A sealed housing, conductive interface, and heat-exchange cover dissipate magnetic core heat without liquid or air cooling corrosion risks.

A 3D magnetic unit with thicker outer regions and a thinner center improves EV wireless charging efficiency while dissipating ferrite heat.

Different-permeability magnetic units spread flux and heat in EV wireless charging, improving efficiency and durability without added structures.

By placing the coil and heat dissipation plate in one layer, this case cuts module thickness while supporting charging and heat flow.

Polymer spacers with regions of different elasticity reduce water adsorption, deformation, and transformer noise while improving insulation.

A baseplate with cavity and sidewalls fixes common and differential mode cores during potting, preserving insulation and saturation distances.

A machined cold plate cavity, concentric fins, and conductive encapsulant cut interface resistance and improve toroidal transformer cooling.

A baseplate cavity, sidewalls, and through-holes keep magnetic cores and windings aligned during potting while maintaining insulation distances.

Opposing magnet flux in a ferromagnetic core lowers peak induction, cutting magnetic losses and heat in MHz-range inductors.

Grooved support strips and airflow-disrupting features improve dry-type transformer heat removal, cutting temperature rise and failure risk.

An arcuate baffle redirects gear-splashed transmission fluid onto inductor coils to sustain cooling at higher rotational speeds.

A heat sink thermally coupled to the conductor lets a utility meter service switch carry high current while keeping terminal temperatures safe.

External airflow, temperature, and microwave oil-level sensing enables real-time detection of conservator defects without internal sensor failures.

A fluid thermally conductive medium encapsulates the magnetic device inside a sealed shell, avoiding curing delays while improving heat transfer and sealing.

A PVD heat-dissipating layer and thermally conductive adhesive cool the charging coil, cutting thermal resistance and lowering temperature.

Directed airflow and contact-plate cooling help a wireless charger remove heat from both phone surfaces, enabling faster charging.

Staged injection molding fixes the coil and magnetic core at lower pressure, reducing core damage and improving inductor yield.

A stacked PCB transformer and dual-side switch layout improves heat dissipation, power density, and module compactness in high-power converters.

An insulation unit that doubles as a fluid channel cools the wind turbine throttle unit while cutting parts, manufacturing effort, and heat stress.

Insulator holes create a heat path from the mold transformer core to outside space, improving X-ray generator stability.

Specialized adsorbent media and vacuum drying remove polar impurities and water from bio-oils for on-site dielectric fluid production.

A ferrofluid reservoir beside the coil boosts magnetic field control while limiting coil heat, improving plasma uniformity on the substrate.

A mold-filled heat dissipation mass coats wound electronic components to combine thermal conduction, electrical insulation, and lower-cost manufacturing.

Independent two-phase cooling loops use engineered fluids matched to each device temperature, cutting cooling space and energy.

A magnetic inductor between segmented coils reduces mutual interference and heat while improving plasma density distribution control.

Cooling air ducts and heat-conducting supports keep the coil and core cooler, helping EV inductive chargers hold rated power without overheating.

A stacked capacitor, switch, and inductor structure improves heat dissipation and power density in compact high-current CPU and GPU converters.

An anion exchanger with a bound reducing agent removes oxygen from transformer oil to prevent oxidation, foaming, and replacement downtime.

An integral tubular coil forms terminal and connection regions from one conductive wall to cut contact resistance, thermal stress, and failure risk.

Independent core and coil holding with a leg-to-coil gap suppresses vibration transmission and resonance in molded reactors.

A passive shape-memory actuator varies the core air gap with temperature to cut low-current resistance and prevent high-current saturation.

A high-conductivity band around a stacked inductor restores the heat path from miniaturized ICs to a heat sink in 3D packages.

Segmented cooling targets concentrated heat in the electronic assembly and lower heat in the magnetic assembly to improve reliability and simplify manufacture.

Probabilistic aging models combine load, ambient temperature, moisture, and oxygen variation to improve transformer life estimates.

Embedded conductors in housing grooves or apertures bypass low-conductivity potting material, cutting inductor-to-heat-sink temperature gradients.

Ceramic-filled encapsulant enters component openings to maintain thermal contact and prevent cracking during thermal cycling.

Differential thermal expansion lowers the relay trip flow at low oil temperature, preventing false abnormality detection in on-vehicle transformers.