Coil Arrangements TRIZ Cases

Segmenting the polymeric frame into separate support elements reduces the gap between inductor windings and ceramic glass, improving energy efficiency.

An electromagnetic print nozzle uses induction heating to melt working material for direct-write additive manufacturing.

Incremental heat advancement along the tobacco rod minimizes combustion toxins and burnt flavor while maintaining internal device cleanliness.

Concentric counter-winding sections generate opposing fields that cancel stray flux, enabling close inductor spacing without mutual interference.

Internal cooling channels and flow sensors prevent inductor mechanical deformation during low frequency hardening, enabling 60 mm hardened layer depth.

Segmented heating zones eliminate hot spots and improve reliability by maintaining uniform heat distribution across multiple aerosol-forming substrates.

Apertures on journal flanges bypass cavity pressure loss, while mist supply increases humidity to capture vaporization latent heat for efficient cooling.

Segmenting the induction heating coil into independent sections allows precise temperature control across double-side-stepped workpieces.

A slider adjusts the induction coil length to cover the full tobacco material, resolving uneven heating caused by fixed-length elements.

Shielding the distal field generator with a separating wall prevents faulty article detection caused by external electromagnetic fields.

Segmented mouthpiece design with a filamentary tow inner element maintains lower temperatures while delivering efficient aerosol release.

A conically shaped inductor coil generates uniform magnetic flux to heat aerosolizable materials via electromagnetic induction.

Dual-zone heating creates structural gradients in axisymmetric parts by controlling temperature profiles across the periphery and center.

An inductive nozzle heating assembly uses a magnetic core and rod-shaped body for efficient thermal transfer.

Spiral inductor generates transverse electromagnetic field between mold halves to induce direct heating currents.

Air cooling and refractory barriers protect magnets from heat, solving efficiency and overheating trade-offs.

Poly-p-xylylene bonding maintains flux concentrator integrity after impact, preventing magnetic shielding loss and reducing undesired heating.