Coil Arrangements TRIZ Cases

Segmented induction coils with varying turn densities maintain constant power input per area, eliminating hotspots during industrial adhesive processes.

Variable pitch induction heating sections balance rapid energy-efficient heating with precise soaking control for uniform quench hardening.

Soft magnetic material at coil ends redirects flux to minimize temperature deviation across large diameter objects.

Self-resonant circuits adjust phase angles between reactance and resistance components to stabilize mutual induction in heating coils.

Cap body projections concentrate magnetic flux to generate localized heat at the upper crucible layer.

Internal closed-loop cooling maintains IGBT operating temperatures, reducing power losses and eliminating complex resonant tank circuits.

A spring mechanism integrates with the induction coil substrate to maintain consistent temperature sensor contact.

Inclined conductors in the heating coil distribute induced current density evenly, preventing local overheating at the hole periphery during induction heating.

A connector uses biased pressing parts to compress plug portions into insertion channels for secure electrical contact.

Segmented inductive rings allow independent activation to vary power density profiles, resolving fixed coil limitations.

Induction heating eliminates resistive contact, reducing heat loss and preventing precursor charring.

Segmenting coils with distinct rotation counts boosts maximum output to 6500 W, overcoming the limited power of single-coil designs.

Mist cooling removes coil scale while a partition wall prevents temperature unevenness on the workpiece.

A composite inductor coil bonds a conductive base layer to a protective top layer for durable induction welding.

Segmented base plates with conductive and non-conductive zones reduce magnetic coupling variations caused by uneven winding concentrations.

Dual resistance coefficients in the susceptor assembly distinguish Curie temperature from user puff events, preventing overheating during aerosol generation.

Segmented turns and a collar section reduce current density, preventing premature failure while maintaining consistent heating across complex geometries.

Oscillating magnetic fields induce eddy currents in the formation, generating resistive heat that reduces hydrocarbon viscosity without steam injection.