Application of lamellar nickel hydroxide membrane as a tunable platform for ionic thermoelectric studies
Raktim Gogoi, Arnab Ghosh, Priyamjeet Deka, K. K. R. Datta, Kalyan Raidongia
Abstract
= 12 K. The Ni-M-based nanofluidic systems demonstrated an additional path of electricity harvesting by connecting colder zones of the positive and negative i-TE materials with other ion conducting membranes. In contrast to organic polymer-based i-TE systems, the Ni-M based system exhibited consistent performance despite being exposed to high temperatures (∼200 °C, 5 minutes).
Topics & Concepts
Thermoelectric effectSeebeck coefficientLamellar structureMaterials scienceIonic bondingNickelMembraneHydroxideIntercalation (chemistry)IonElectrodeChemical engineeringInorganic chemistryMetallurgyChemistryPhysical chemistryThermodynamicsOrganic chemistryEngineeringPhysicsBiochemistryAdvanced Thermoelectric Materials and DevicesGas Sensing Nanomaterials and SensorsTransition Metal Oxide Nanomaterials