Coil Arrangements TRIZ Cases

A metal casing shields brittle ferrite flux guides in induction shrink fitting, reducing wear, friction, and maintenance.

Sensor-detected field shaper position helps induction coils match tool holder geometry, reducing energy waste and incorrect heating.

A heated mount cover shields engine lugs from airflow cold spots, reducing thermal gradients that disturb rotor-stator alignment and clearance.

A movable shielding gripper decouples from the induction coil to improve shrink-fit tool accuracy while reducing tool heating and energy use.

Self-regulating ferromagnetic wires use Curie-point induction heating to bond composites with ±10°F control while preventing overheating.

Separate inductor coils heat different susceptor zones with distinct temperature profiles, improving aerosol consistency and duration.

Replacing silver-palladium with a nickel-molybdenum-chromium layer cuts induction coil cost while maintaining corrosion resistance for package sealing.

Induction coils and a low-resistance short circuit heat selected sheet metal areas at once, speeding hardening before press cooling.

A longitudinal insert between parallel inductor branches enables uniform PV ribbon soldering across panel formats without terminal replacement.

Rapid transverse induction heating with a brief 500-700°C rate hold improves grain balance and magnetic properties in grain-oriented electrical steel.

Movable axial shielding lets the coil heat the tool holder without overheating the tool, improving shrink-clamping speed and size adaptability.

Movable magnetic flux conductors shield the tool during induction heating, enabling fast tool holder expansion without tool damage.

Low-conductivity polymer fillers insulate aerosol device covers, keeping outer surfaces below 48°C without adding bulk or weight.

Low-power temperature-rate sensing blocks depleted aerosol articles before high-power heating, preserving aerosol quality and saving power.

Localized induction heating with coil cooling preheats weld workpieces efficiently while keeping temperature variation low for better weld quality.

Liquid-cooled induction preheating uses segmented, feedback-controlled heating to keep weld workpieces at target temperature with minimal variation.

Movable segmented coil members create heating and soaking zones to heat ring workpieces uniformly while simplifying pitch adjustment.

Waveform analysis of coil current and voltage lets the heating cycle adapt to each tool holder and stop before overheating.

Real-time current and voltage profile analysis ends shrink-fit heating at the right point, cutting manual setup, cycle time, and overheating risk.

Coil inductance tracks sleeve temperature during inductive heating, preventing shrink-fit chuck overheating and cracking while keeping tool changes efficient.

Induction heating with a susceptor, support member, and insulating layers improves aerosol generation while keeping outer parts safe to touch.

Internal cooling channels and partitioned water flow keep the welding coil light, prevent splashing, and support large-diameter pipe welding.

Inclined induction-heated subsea pipe sections keep two-phase effluent warm, improve heat transfer, and reduce heater size and weight.

Resonance-tuned magnetic pulses concentrate eddy-current heating in aluminum sheet metal, enabling dent removal without coating damage.

Direct induction heating shapes metal panels with zone control and electromagnetic force, avoiding slow, energy-heavy furnace forming.

When one induction module underperforms, remaining modules raise setpoints to preserve symmetric heating and rolling mill continuity.

A nickel-molybdenum-chromium corrosion layer replaces silver-palladium in induction coil rods to cut cost while preserving conductivity.

A sleeve shields movable ferrite flux guides from wear in induction tool heating, preserving magnetic flux consistency and service life.

Magnetic fingerprinting and reflection sensing correct emissivity errors, enabling precise non-contact temperature control for shrink-fit chuck heat treatment.

Reflectivity sensing and test-pulse magnetic fingerprints correct shrink chuck temperature readings and automate heating to prevent overheating.

Dual PID control with electromagnetic induction cuts electronic cigarette preheating time while keeping a stable smoking temperature.

Test and control current pulses identify the inserted tool holder, set heating parameters, and prevent overheating during inductive shrinking.

An induction-heated susceptor with insulating layers heats aerosol material to 200–350°C while keeping the outer cover below 60°C.

A movable coil driven by shape memory alloy creates a variable temperature field to heat aerosol substrate evenly without scorching or bulky segmented heaters.

A movable cooling tube surrounds a stationary shrink-fit chuck for rapid, uniform cooling that avoids distortion and improves operator safety.