Coil Arrangements TRIZ Cases

A heating coil uses arc-shaped connection portions to maintain constant distance from the workpiece.

A heating assembly uses induction to volatilize aerosol components within a dedicated cavity.

Offset induction coil segments prevent flux interference to heat thin nonmagnetic plates uniformly.

Internal induction heating eliminates external flame interference and hydrogen contamination during weld preheating.

A movable spiral induction coil adjusts its position relative to the receptacle to control heat distribution along aerosol-generating material.

Lateral structures with low conductivity materials prevent insulation deformation by balancing internal pressure against thermal expansion forces.

Opposite-phase currents in paired halogen tubes destructively interfere to reduce electromagnetic field emissions without lowering heat generation efficiency.

Electrically conductive cladding redirects current flow on geometrically complex smart susceptors to manage inductive heating.

A segmented chain inductor adapts to varying pipe diameters through dynamic spreading mechanisms.

Induction heating melts metal wire feedstock through a nozzle to reduce equipment costs and eliminate powder hazards.

Ferritic susceptors heated by inductor coils transfer thermal energy to aluminum elements, resolving low inductive coupling efficiency.

Liquid coolant cools the chuck while suction entrains air to remove fluid, resolving complexity in collection systems.

Segmented zigzag coils prevent soft zones by maintaining optimal gaps during thermal expansion, reducing power consumption while ensuring uniform hardness.

A control unit adjusts AC power output frequency to maintain consistent temperature distribution across conductive sheets.

A heater fixing seat clamps the heating body to prevent tilting and non-centered positioning, ensuring uniform cigarette baking.

Flexible cables in movable roll channels adjust transverse flux inductor length, eliminating fixed-width replacements for varying material widths.

Self-cleaning receptacle design scrapes heating chamber residue via sliding contact, eliminating cumbersome manual cleaning processes.

Segmented coils and adjustable pole pieces localize magnetic flux, eliminating stray fields that cause local overheating during tool holder shrink fitting.

Segmented coils induce current in a closed conduit to achieve uniform temperature profiles across complex surfaces.

A thermoelectric element features a porous metal structure embedded within the outer region of the body to form a durable contact interface.

Segmented sinusoidal heaters and absorbent pads ensure consistent vapor production while reducing leakage in e-vaping cartridges.

An induction heating coil generates a varying electromagnetic field to inductively heat metal wires embedded in a catalytic converter substrate.

Matching coil frequencies via duty ratio control eliminates acoustic noise from simultaneous multi-coil operation while maintaining heating efficiency.

A heating arrangement with a movable third contact establishes multiple heating zones by altering alternating current supply between fixed and movable contacts.

Sensor coils between rectangular induction heating coils detect pan position, resolving accuracy complexity trade-offs.

Integrating a flat spiral inductor coil with a susceptor element reduces device complexity and size while maintaining effective heating efficiency.

Segmented conductors with inward protrusions maintain constant gaps to ensure uniform heating across varying cross-sections.

Segmented inductor assembly with flux concentrators reduces thermal heat sinks and shape distortion during crankshaft induction hardening.

Electromagnetic induction heating volatilizes smokable material components efficiently while preventing combustion through controlled thermal management.

Electromagnetic induction heats metal materials during transport while keeping them solid, preventing sticking and damage to the system.

A support structure uses a repeating coil to transmit induction heating output to concave objects like woks.

A high frequency heat treatment method inserts a coil into fine bottom-closed holes to induce uniform electromagnetic heating.

A heating apparatus uses insulated housing to contain electrodes generating electromagnetic waves for precise object heating.

Induction heating destroys SSD components for permanent data erasure without damaging surrounding device.

Segmented induction coils heat distinct susceptors to prevent combustion while ensuring efficient aerosol material volatilization.

Heating thin film coating converts electromagnetic energy to heat, resolving magnetic object heating limitations.

Induction heating softens resin to eliminate pre-drilling and prevent cracking during fastener press-fitting.

Segmented electromagnets compress plasma streams adiabatically, resolving instability trade-offs during high-density processing.

A multi-zone induction heating device uses independent power modules to adjust resonance frequencies for each working coil.

Segmented secondary coils enable efficient heating of small-diameter portions while facilitating easy removal from the main body.

Segmented layers with distinct resistivity profiles resolve the trade-off between heat retention and rapid cooling in induction heating tools.

A controller detects switching transients in current feedback signals to determine the resonant frequency of an induction heating system.

Boron nitride insulation and differentiated cross-sections manage thermal loads to extend coil service life.

Sequential laser and induction modules maintain stable preheating temperatures, preventing rapid cooling that degrades surface quality.

Adjustable induction coil loops on a flexible carrier strip enable reliable district heating pipe welding across varying diameters.

A flexible induction heating coil accommodates various pipe diameters through a portable helical design and turn connector.

A heating coil with a projected conductor extends along the workpiece length to inductively heat recessed lateral surfaces.

An induction heating coil employs asymmetric lead portions to concentrate electric current, reducing magnetic repulsion stress on the structure.