Advanced Electronic Materials · 2019 · 433 citations · 148 references
Natural SciencesMaterials EngineeringMaterials ScienceMaterials ChemistryPolymer ChemistryPolymer MaterialsConducting PolymersConductive PolymersHigh-performance PolymersNanocompositesOrganic SemiconductorsThermoelectric MaterialsBismuth Telluride-based MaterialsFabricationOrganic Thermoelectric MaterialsOrganic ThermoelectricsPoly(3, 4-Ethylenedioxythiophene)Rational DesignThermal ConductivityThermoelectric Properties
Organic thermoelectric materials, particularly PEDOT:PSS, have attracted attention for their lightweight, flexible, non‑toxic, and thermally stable properties, and recent design advances have achieved ZT values comparable to inorganic counterparts, promising flexible modules and wearable electronics. The paper reviews recent breakthroughs in PEDOT:PSS‑based thermoelectric polymers and composites. The review discusses strategies and underlying mechanisms for high‑performance PEDOT:PSS thermoelectrics, and presents device fabrication, assembly techniques, configurations, and performance.
Abstract Nowadays, organic thermoelectric (TE) materials have attracted considerable attention due to their unique merits, e.g., light‐weight, high mechanical flexibility, nontoxicity, easy availability, and intrinsically low thermal conductivity. Among the organic/polymer TE materials reported so far, poly(3,4‐ethylenedioxythiophene):poly(styrenensulfonate) (PEDOT:PSS) is extensively investigated because it is water‐processable, thermally stable, and can be highly conductive. Over the past few years, the TE properties of the PEDOT‐based TE materials are continuously improved. With rational design, some PEDOT:PSS‐based materials have achieved high ZT values comparable to the conventional inorganic TE materials like bismuth telluride at room temperature. This paper reviews the recent breakthroughs for PEDOT:PSS‐based TE polymers and composites. The strategies for achieving high‐performance PEDOT:PSS‐based TE materials and the corresponding underlying mechanism are specifically discussed. The TE devices fabricated by the PEDOT:PSS‐based TE materials are also presented, in terms of their fabrication/assembly technique, device configuration and device performance. With all the exciting progress made in the PEDOT:PSS‐based TE materials, the further development and practical applications of the high‐efficient organic TE materials as flexible TE module devices and wearable electronics can be greatly anticipated.
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