Search results for "Lead telluride"

showing 2 items of 2 documents

High Thermoelectric Power Factor Organic Thin Films through Combination of Nanotube Multilayer Assembly and Electrochemical Polymerization

2017

In an effort to produce effective thermoelectric nanocomposites with multiwalled carbon nanotubes (MWCNT), layer-by-layer assembly was combined with electrochemical polymerization to create synergy that would produce a high power factor. Nanolayers of MWCNT stabilized with poly(diallyldimethylammonium chloride) or sodium deoxycholate were alternately deposited from water. Poly(3,4-ethylene dioxythiophene) [PEDOT] was then synthesized electrochemically by using this MWCNT-based multilayer thin film as the working electrode. Microscopic images show a homogeneous distribution of PEDOT around the MWCNT. The electrical resistance, conductivity (σ) and Seebeck coefficient (S) were measured before…

NanotubeWorking electrodeNanocompositeMaterials science02 engineering and technology010402 general chemistry021001 nanoscience & nanotechnology01 natural sciences0104 chemical sciencesLead telluridechemistry.chemical_compoundchemistryPEDOT:PSSPolymerizationSeebeck coefficientThermoelectric effectGeneral Materials ScienceComposite material0210 nano-technologyACS Applied Materials & Interfaces
researchProduct

Design, assembly and characterization of silicide-based thermoelectric modules

2016

ID: 1143 In: Energy conversion and management, 13-21. Summary: Highlights•Novel silicide-based thermoelectric modules were experimentally investigated.•The modules produced high power of 1.04 W at 405 °C and 3.24 W at 735 °C.•An estimated module efficiency of 5.3% represent the highest reported for silicide systems.AbstractSilicides have attracted considerable attention for use in thermoelectric generators due mainly to low cost, low toxicity and light weight, in contrast to conventional materials such as bismuth and lead telluride. Most reported work has focused on optimizing the materials properties while little has been done on module testing. In this work we have designed and tested mod…

Energy storageThermoelectric equipment02 engineering and technology7. Clean energyThermal expansionBismuthchemistry.chemical_compoundDegradationMagnesium silicideHigher manganese silicideSilicide0202 electrical engineering electronic engineering information engineeringHigher manganese silicidesMagnesiumThermo-Electric materialsThermal expansion mismatchDirect energy conversion[CHIM.MATE]Chemical Sciences/Material chemistryThermoelectric materialsMagnesium silicides[CHIM.THEO]Chemical Sciences/Theoretical and/or physical chemistryConversion directeFuel TechnologyThermal expansionSilicidesMaterials scienceMaximum power principleCharacterization020209 energyEnergy Engineering and Power Technologychemistry.chemical_elementMagnesium silicideThermoelectric moduleThermo-electric modulesElectronic engineering[CHIM.CRIS]Chemical Sciences/Cristallography[CHIM]Chemical SciencesManganeseRenewable Energy Sustainability and the EnvironmentEquivalent circuitsThermoelectricityEngineering physicsLead tellurideThermoelectric generatorCross-section areaNuclear Energy and EngineeringchemistryEnergy transferConventional materialsÉnergieMaterials propertiesThermoelectric generatorsMaterials testing
researchProduct