Thermoelectric Device With Peltier/Seeback Effect TRIZ Cases

See how an etalon-coupled inductor circuit converts thermal energy to electrical power using el

See how pulsed electrical signals enable efficient thermal-to-electrical conversion at small te

See how an oscillatory circuit with etalon and negative resistance converts thermal energy dire

See how thermally-insulating support posts suspend thermoelectric connectors, enabling higher a

See how a retractable holder with air and steam holes enables gentle sterilization and wrinkle

See how a pulse generator with coupled inductor uses high dV/dt transients to convert low-grade

See how a pulse generator with high dV/dt transients enables efficient thermal-to-electrical co

See how a circuit uses high dV/dt transients, negative resistance, and resonance cavities to co

See how a thermoelectric cooling layer with Peltier-effect electrode patterns improves heat rad

See how resonant nanostructures outside carrier paths scatter phonons to cut thermal conductivi

See how RF and optical wireless power transmission eliminates wiring complexity for thermoelect

See how a flexible polymer film substrate with bent ends secures thermoelectric elements in ser

See how segmented coolant containers with phase change material and multi-directional air circu

See how a thermoelectric device harvests power from the temperature difference between a cooled

See how room-temperature bonding of ceramic and aluminum-composite plates reduces heat capacity

See how a resonant circuit with coupled inductors converts thermal energy to electrical power u

See how a pulse generator with coupled inductor and high dV/dt transients converts small therma

See how thin-film superlattice thermoelectric materials with controlled phonon scattering achie

See how elastic coupling members with specific modulus space the heat sink and fan, absorbing v

See how a hybrid exchanger recovers both pressure and thermal energy from waste streams via ele

See how cascaded thermoelectric coolers integrated into battery modules reduce thermal gradient

See how spatially varying Seebeck coefficient, thermal conductivity, and electrical resistivity

See how a magnetic body embedded between heat interfaces generates thermoelectromotive force wh

See how a 5-50 μm glass layer between aluminum and sintered silver reduces thermal resistance w

See how a nested tube design positions thermoelectric modules between inner and outer tubes to

See how an inclined discharge pipe with segmented regions separates cooled and heated air strea

See how a thermoelectric generator converts burner waste heat into electricity, enabling portab

See how thin-film superlattice thermoelectric materials achieve rapid cooling speeds and high p

See how thermoelectric members integrated into heat exchangers convert exhaust heat into electr

See how a thermoelectric heat exchanger with dual cooling plates and segmented control simplifi

See how a thermoelectric cooler with dynamic current control and clock adjustment manages heat

Angled thermoelectric elements in an insulating panel reduce lumpy contact, while spacer-mesh airflow improves heat transfer for heating and cooling.

See how a releasable locking device maintains firm thermal contact between a thermoelectric gen

See how a thermoelectric module uses only N-type components in parallel connection to eliminate

See how a Peltier element with solar power and periodic air convection achieves COP up to 5-6 w

See how a thermoelectric intercooler with voltage-controlled heat transfer adapts to takeoff, c

See how phase-change material captures laundry heat and thermoelectric generators convert it to

See how inter-substrate connectors maintain rigidity in divided thermoelectric modules while ac

See how embedding a graphite sheet within a thermoelectric matrix prevents powder scattering wh

Electrical-characteristic feedback activates thermoelectric heat pumping to maintain stable temperatures and create ramps and cycles for medical instruments.

See how parallel-connected thermoelectric components of the same semiconductor type eliminate a

See how a thermoelectric generator recaptures waste heat from compressor flows to generate elec

See how a flexible sheet metal structure integrates electrical contact and heat transfer in Pel

The SAS wall carries compression loads around thermoelectric modules while insulation and heat spreaders limit thermal parasitics and contamination exposure.

See how RF or optical waveguides replace electrical wires to power thermoelectric coolers in ho

See how a thermoelectric generator integrated into a beverage vessel captures waste heat from h

See how a thermoelectric generator uses temperature differentials to continuously power electro

See how thermoelectric semiconductor fine particles in heat-resistant resin with ionic liquid e

Donor-bound electron spin demagnetization cools semiconductor substrates locally, avoiding bulky liquid cryogenic hardware and salt-based refrigerants.

A compressible heat-conducting layer lets thermoelectric modules absorb thermal stress, accommodate expansion, and ease tolerance demands.

PCB electrical pathways become part of the thermoelectric module, enabling compact heat control and power generation while freeing board space.

PCM heat buffering lets a thermoelectric cooler deliver high peak cooling with small channels while limiting liquid overheating and thermal loss.

Real-time temperature sensing drives TEC cooling and clock adjustment to keep semiconductor packages within target temperature limits.

A cascaded TEC keeps the thermal interface controlled to cut effective thermal mass and speed precise DFB laser temperature tuning.

A surround-and-spacer structure shields TEMs from compression and contaminants while limiting thermal shorts that reduce heat pump efficiency.

A segmented electrode joint keeps thermoelectric element corners free of stress concentration while preserving heat transfer and durability.

A compliant interface and heat spreader let rigid thermoelectric modules wrap curved pipes for better thermal contact and heat transfer.

A magnetic-field-driven fluid loop extends thermoelectric cooling distance and boosts heat dissipation without mechanical pumps.

Fusion-bonded resin fills surface flaws in thermoelectric heat exchangers to improve insulation, lower thermal resistance, and raise manufacturing yield.

Multiple TEC zones use sensor feedback to match local chip hot spots, reducing overcooling, energy waste, and thermal stress.

A thermoelectric exchanger switches between active cooling and power generation across engine states, improving heat transfer with less exchanger volume.

A resilient lid spring conducts heat from chips at different heights to a hermetic package lid, improving cooling without breaking the seal.

Hydrophobic fins and a resilient thermal pad help a thermoelectric cooler prevent moisture buildup, spread heat, and relieve expansion stress.

Integrally formed sealing ridges simplify the flow path block, resist thermal deformation, and prevent leaks during liquid medicine heating or cooling.

A thermally conductive, electrically insulating interface improves substrate-to-thermistor heat transfer for more accurate temperature control.

A porous insulating substrate with RuO2 and thermoelectric coatings separates heat and electron transport to raise thermoelectric ZT.

Electrical self-sensing lets a thermoelectric controller pump heat precisely, maintaining stable temperatures and programmed thermal profiles.

Switching the second heat exchanger between hot and cold thermal baths cuts temperature mismatch and improves thermoelectric round-trip efficiency.

Ground electrodes placed between electrode columns divert leakage currents under condensation, enabling smaller thermoelectric modules without short circuits.

A high-rate lithium secondary battery keeps portable heating and lighting running longer while cutting refueling needs and indoor air pollution.

Temperature feedback varies TEC drive voltage to heat or cool a cold plate, keeping electronic devices within a safe operating range.

Inner-surface temperature sensing cuts control lag in thermoelectric modules, helping prevent solder melting, oxidation, and durability loss.

Independent thermoelectric zones on one plate control multiple component temperatures while reducing space, power use, and alignment complexity.

Lateral thermoelectric heat pumping moves heat from hot zones to cooler areas, lowering junction and skin temperatures in mobile electronics.

A conduit uses a thermoelectric generator to power built-in monitoring, enabling wireless leak and condition detection without extra cabling.

Stacked phononic crystal layers with parallel through holes create a band gap that suppresses phonon transport and lowers thermal conductivity.

A heatsink-integrated thermoelectric generator powers an LED or lock from heat difference to warn of unsafe temperatures and block contact.

Ag2S-Se composition tuning enables a flexible thermoelectric material that fits curved surfaces while improving Seebeck response and heat harvesting.

A heater and thermopile on one IC create galvanic isolation for SSR switching, cutting multi-chip complexity, pin count, and cost.

Waste heat from engine exhaust is converted by passive thermoelectric generators into electrical power, cutting alternator load, fuel use, and CO2 emissions.

An S-turn antifreeze channel and plate coil improve TEC cold-side heat exchange, cutting coolant volume while meeting vehicle air-conditioner cooling needs.

Electric-field alignment of carbon nanotubes in a polymer film boosts Seebeck output while preserving flexibility for power and temperature control.