Generators/Motors TRIZ Cases

Controlled non-contact dispensing of metal nanoparticle paste stabilizes joint area in thermoelectric modules, reducing shorts and open circuits.

Nanoporous adsorption layers replace costly protein nanowires to generate continuous voltage from ambient humidity with scalable manufacturing.

Higher-resistance interconnect wires limit heat leakage between hot and cold ends, preserving temperature difference and power generation.

Striped laminated P- and N-type layers move electrodes off heat-contact faces to raise output density and reduce peeling risk.

Hydronium-conducting amyloid fibers harvest ambient humidity for power generation while replacing costly inorganic materials with biodegradable wires.

Static charges from step-up transformers or voltage multipliers are injected into AC busbars to address no-net-gain power generation.

Electrodes formed directly on P- and N-type chips remove the support base, enabling a thinner thermoelectric module for narrow spaces.

Quantum interference in chiral cesium vapor slabs switches the Casimir force from attraction to repulsion, helping nanoscale devices avoid stiction.

A porous thermoelectric body draws up liquid and cools by evaporation, creating a temperature gradient for simpler, easier-to-handle power generation.

Magnetic materials with Weyl points near the Fermi energy boost anomalous Nernst voltage, enabling simpler thermoelectric power generation.

Stacked thermoelectric elements and electron transmission layers enable series or parallel output tuning for higher voltage or current in a compact module.

Stacked thermoelectric elements use electron transmission layers to raise electromotive force or current while helping prevent short circuits.

A compressible conductor and insulated case maintain electrical contact in stacked thermoelectric cells under high heat, improving force and reliability.

A segmented heat collector uses reflection, absorption, and conduction to improve power generation from low-temperature radiant heat.

Routing module wiring onto the first substrate cuts cooling-side interfaces, preserves temperature difference, and improves thermoelectric output.

Segmented insulating layers and conductive paths curb heat flow circumnavigation in thermoelectric stacks while preserving output power and strength.

Layering the extension and connection portions in a metal magnetic thermoelectric element improves crack resistance, flexibility, and low-noise output.

Matching the Seebeck coefficients of sensor wiring and the conversion body cuts parasitic thermal EMF and improves heat sensing accuracy.

An anchor layer between the electrode and thermoelectric element blocks diffusion and corrosion while preserving strong, low-resistance bonding.

A stepped shield over duct-mounted thermoelectric modules protects wires and connectors while preserving fluid flow and heat transfer.

Stacked thermoelectric and magnetic layers superimpose Hall and anomalous Nernst effects to raise thermopower for power generation and heat sensing.

Independently controlled thermoelectric modules with phononic crystal layers reduce heat conduction and keep IC temperature swings within range.

Casimir cavities create asymmetric quantum vacuum energy density in conductive layers, driving charge flow and voltage generation for energy harvesting.

Regular through-hole phononic crystal layers cut heat conduction, while independent regions improve cooling and heating control.

A solid insulating layer fixes dispersed nanoparticles between dissimilar electrodes to stabilize power generation without an electrode temperature difference.

An inclined, resin-coated lead with a shaped joint reduces heat transfer and prevents detachment in thermoelectric modules.

Dynamic power allocation keeps fan cooling effective, preserving temperature difference and stable thermoelectric output.

Using a satellite-generated electromagnetic field and a large conductor, this case shows how orbital motion can induce scalable high-power electricity.

Fluid-driven vibration and electromagnetic induction generate downhole power without cables, batteries, or corrosion-prone moving parts.

Controlling magnetic-body internal stress to 900 MPa or less helps thermoelectric elements resist cracks, humidity, heat, and bending.

A perovskite intermediate layer boosts proton and electron transport while keeping electrode spacing uniform for more stable thermal power generation.

A shield member between thermoelectric modules and gas-guiding fins improves heat transfer while limiting fluid flow interference.

An insulator-based integrated body enables batch production of thin thermoelectric modules while removing solder and supports to improve bonding reliability.

A layered superconducting winding uses magnetocaloric cycling and LC oscillation to convert heat into electricity while limiting resistive loss.

Alternating-polarity flat magnets with aluminum and copper plates capture electrical output while supporting steadier long-term voltage and amperage.

A fluid reservoir, heating element, and thermal loop maintain temperature differences across thermoelectric generators for steadier power output.

Intermediate output terminals let a series thermoelectric module detect local heat flux distribution while still delivering maximum voltage.

Orthogonal heat and current paths with insulation films cut internal resistance, enabling safe low-cost thermoelectric generation.

Annular winding with radial magnetization increases anomalous Nernst voltage without enlarging the thermoelectric element footprint.

Using bulk iron-aluminum magnetic alloy cuts noble-metal cost while sustaining a larger temperature gradient for anomalous Nernst power generation.

A metal-thermoelectric composite diffusion prevention layer improves bonding to the conversion layer while maintaining heat resistance.

A composite base with low thermal resistance improves heat dissipation in thermoelectric modules while preserving resin-layer flexibility and strength.

Fluid-driven vibration and electromagnetic induction generate downhole power while minimizing tubing blockage and corrosive exposure.

Capillary action and evaporation replace external pressure in a flexible multilayer film that sustains ion transport for higher electrokinetic power output.

Adjusting heat-medium flow from pressure-based heat-source detection helps thermoelectric generators hold rated output and avoid overheating.

Region-specific high and low thermal conduction in sheet members preserves temperature difference and boosts thermoelectric power generation.

Spatially varied thermal conduction under the electrodes and junction preserves temperature gradients and improves thermoelectric power generation.

A ferroelectric feedback cell uses superconducting interfaces and electron tunneling to raise voltage during discharge and harvest energy at constant temperature.

A device with a tetrahedral amplifier and copper spirals concentrates electromagnetic energy into high-intensity ionizing output.

Vertical stacking of p-n element stacks boosts output power while maintaining reliability despite rising electrical resistance.