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Cheng Chi, Meng An, Xin Qi, Yang Li, Ruihan Zhang, Gongze Liu, Chongjia Lin, He Huang, Hao Dang, B. Demir, Yan Wang, Weigang Ma, Baoling Huang, Xing Zhang (2022)
Selectively tuning ionic thermopower in all-solid-state flexible polymer composites for thermal sensingNature Communications, 13
Hui Wang, Dan Zhao, Zia Khan, S. Puzinas, M. Jonsson, M. Berggren, X. Crispin (2017)
Ionic Thermoelectric Figure of Merit for Charging of SupercapacitorsAdvanced Electronic Materials, 3
Shengduo Xu, Xiaolei Shi, M. Dargusch, Chong‐an Di, J. Zou, Zhi-gang Chen (2021)
Conducting polymer-based flexible thermoelectric materials and devices: From mechanisms to applicationsProgress in Materials Science
Zhuo Liu, Hanlin Cheng, Qiujian Le, Rui Chen, Jianbo Li, Jianyong Ouyang (2022)
Giant Thermoelectric Properties of Ionogels with Cationic DopingAdvanced Energy Materials, 12
S. Masoumi, S. O'Shaughnessy, A. Pakdel (2021)
Organic-based flexible thermoelectric generators: from materials to devicesNano Energy
Gang Chen, M. Dresselhaus, G. Dresselhaus, J. Fleurial, T. Caillat (2003)
Recent developments in thermoelectric materialsInternational Materials Reviews, 48
Kuan-Heng Liu, J. Lv, Guodong Fan, Bijia Wang, Zhiping Mao, X. Sui, Xueling Feng (2021)
Flexible and Robust Bacterial Cellulose‐Based Ionogels with High Thermoelectric Properties for Low‐Grade Heat HarvestingAdvanced Functional Materials, 32
D. Rowe (1995)
CRC Handbook of Thermoelectrics
F. Disalvo (1999)
Thermoelectric cooling and power generationScience, 285 5428
Z. Soleimani, S. Zoras, B. Ceranic, S. Shahzad, Yuanlong Cui (2020)
A review on recent developments of thermoelectric materials for room-temperature applicationsSustainable Energy Technologies and Assessments
Zeng Fan, Donghe Du, Xin Guan, Jianyong Ouyang (2018)
Polymer films with ultrahigh thermoelectric properties arising from significant seebeck coefficient enhancement by ion accumulation on surfaceNano Energy
Suk Kim, Henry Lin, Choongho Yu (2016)
Thermally Chargeable Solid‐State SupercapacitorAdvanced Energy Materials, 6
Zhang Li, Xiaolei Shi, Yanling Yang, Zhi-gang Chen (2021)
Flexible thermoelectric materials and devices: From materials to applicationsMaterials Today
Tian Li, Xin Zhang, Steven Lacey, Ruiyu Mi, Xinpeng Zhao, Feng Jiang, Jianwei Song, Zhongqi Liu, Guang Chen, J. Dai, Yonggang Yao, Siddhartha Das, Ronggui Yang, R. Briber, Liangbing Hu (2019)
Cellulose ionic conductors with high differential thermal voltage for low-grade heat harvestingNature Materials, 18
Jing Wang, Qing Li, Kuncai Li, Xu Sun, Yizhuo Wang, Tiantian Zhuang, Jun Yan, Hong Wang (2022)
Ultra‐High Electrical Conductivity in Filler‐Free Polymeric Hydrogels Toward Thermoelectrics and Electromagnetic Interference ShieldingAdvanced Materials, 34
Saeed Mardi, D. Zhao, Nara Kim, I. Petsagkourakis, K. Tybrandt, A. Reale, X. Crispin (2021)
The Interfacial Effect on the Open Circuit Voltage of Ionic Thermoelectric Devices with Conducting Polymer ElectrodesAdvanced Electronic Materials, 7
Zhuo Liu, Hanlin Cheng, Hao He, Jianbo Li, Jianyong Ouyang (2021)
Significant Enhancement in the Thermoelectric Properties of Ionogels through Solid Network EngineeringAdvanced Functional Materials, 32
Q. Yan, M. Kanatzidis (2021)
High-performance thermoelectrics and challenges for practical devicesNature Materials, 21
M. Jeong, Juran Noh, Md. Islam, Kyomin Kim, Ah-rum Sohn, Woochul Kim, Choongho Yu (2021)
Embedding Aligned Graphene Oxides in Polyelectrolytes to Facilitate Thermo‐Diffusion of Protons for High Ionic Thermoelectric Figure‐of‐MeritAdvanced Functional Materials, 31
Dan Zhao, S. Fabiano, M. Berggren, X. Crispin (2017)
Ionic thermoelectric gating organic transistorsNature Communications, 8
Yoga Malik, Zico Akbar, Jin Seo, Sangho Cho, S. Jang, J. Jeon (2021)
Self‐Healable Organic–Inorganic Hybrid Thermoelectric Materials with Excellent Ionic Thermoelectric PropertiesAdvanced Energy Materials, 12
Suk Kim, J. Hsu, Choongho Yu (2018)
Thermoelectric effects in solid-state polyelectrolytesOrganic Electronics, 54
J. Mao, Gang Chen, Z. Ren (2020)
Thermoelectric cooling materialsNature Materials, 20
Dan Zhao, A. Wurger, X. Crispin (2021)
Ionic thermoelectric materials and devices
Dan Zhao, A. Martinelli, Andreas Willfahrt, T. Fischer, D. Bernin, Z. Khan, Maryam Shahi, J. Brill, M. Jonsson, S. Fabiano, X. Crispin (2019)
Polymer gels with tunable ionic Seebeck coefficient for ultra-sensitive printed thermopilesNature Communications, 10
Sijin Liu, Yuewang Yang, He Huang, Jiongzhi Zheng, Gongze Liu, Tsz To, Baoling Huang (2021)
Giant and bidirectionally tunable thermopower in nonaqueous ionogels enabled by selective ion dopingScience Advances, 8
S. Horike, Qingshuo Wei, K. Kirihara, M. Mukaida, T. Sasaki, Y. Koshiba, Tatsuya Fukushima, K. Ishida (2020)
Outstanding Electrode-Dependent Seebeck Coefficients in Ionic Hydrogels for Thermally Chargeable Supercapacitor near Room Temperature.ACS applied materials & interfaces
Hui Wang, U. Ail, R. Gabrielsson, M. Berggren, X. Crispin (2015)
Ionic Seebeck Effect in Conducting PolymersAdvanced Energy Materials, 5
(2008)
Science 2020
Ah-rum Sohn, Choongho Yu (2021)
Ionic transport properties and their empirical correlations for thermal-to-electrical energy conversionMaterials Today Physics
U. Ail, M. Jafari, Hui Wang, T. Ederth, M. Berggren, X. Crispin (2016)
Thermoelectric Properties of Polymeric Mixed ConductorsAdvanced Functional Materials, 26
Wei Zhao, Tingting Sun, Yiwei Zheng, Qihao Zhang, Aibin Huang, Liang Wang, Wan Jiang (2022)
Tailoring Intermolecular Interactions Towards High‐Performance Thermoelectric Ionogels at Low HumidityAdvanced Science, 9
Hanyu Jia, Zhaoyang Ju, Xinglei Tao, X. Yao, Yapei Wang (2017)
P-N Conversion in a Water-Ionic Liquid Binary System for Nonredox Thermocapacitive Converters.Langmuir : the ACS journal of surfaces and colloids, 33 31
Yang Han, Jian Zhang, Run Hu, Dongyan Xu (2022)
High-thermopower polarized electrolytes enabled by methylcellulose for low-grade heat harvestingScience Advances, 8
Cheng-Gong Han, Xin Qian, Qikai Li, Biao Deng, Yongbin Zhu, Zhijia Han, Wenqing Zhang, Weichao Wang, S. Feng, Gang Chen, Weishu Liu (2020)
Giant thermopower of ionic gelatin near room temperatureScience, 368
M. Elsheikh, D. Shnawah, M. Sabri, S. Said, M. Hassan, M. Bashir, M. Mohamad (2014)
A review on thermoelectric renewable energy: Principle parameters that affect their performanceRenewable & Sustainable Energy Reviews, 30
Zico Akbar, Yoga Malik, Dong-Hu Kim, S. Cho, S. Jang, J. Jeon (2022)
Self-Healable and Stretchable Ionic-Liquid-Based Thermoelectric Composites with High Ionic Seebeck Coefficient.Small
M. Bonetti, S. Nakamae, B. Huang, T. Salez, C. Wiertel-Gasquet, M. Roger (2015)
Thermoelectric energy recovery at ionic-liquid/electrode interface.The Journal of chemical physics, 142 24
Hanlin Cheng, Xu He, Zeng Fan, Jianyong Ouyang (2019)
Flexible Quasi‐Solid State Ionogels with Remarkable Seebeck Coefficient and High Thermoelectric PropertiesAdvanced Energy Materials, 9
As the worldwide energy crisis is worsened, thermoelectric materials that can harvest low‐grade waste heat and directly convert it into electricity provide promising alternative energy sources. Emerging ionic thermoelectrics (iTEs) have recently attracted widespread attention thanks to their impressively high thermopower that can reach hundreds of times more than conventional electronic thermoelectrics (eTEs). Based on the Soret effect, the performances of iTEs depend on the thermo‐diffusion of mobile ions in electrolytes, resulting in electrical characteristics distinct from eTE materials and opening up additional potential applications of thermoelectrics. Among these materials, organics‐based iTEs (i‐OTEs) provide unique advantages such as low‐cost, light‐weight, and eco‐friendliness, thereby offering more promising application scenarios that can utilize dissipated heat, for example, from human bodies or mobile devices. This concise review begins with the comparison of iTE and eTE, and then discusses their different mechanisms and applied devices in detail. Next, the recent advances of i‐OTEs will be in‐depth highlighted, including the merits and weaknesses of representative types of materials, effects of additives, and effective strategies for performance optimization. Finally, the state‐of‐the‐art achievements of i‐OTEs are summarized, and an overview is provided of the existing challenges and an outlook of prospective development and applications in future efforts.
Advanced Energy Materials – Wiley
Published: Jan 1, 2023
Keywords: ionic conductivity; ionic organic thermoelectrics; ionic thermoelectric supercapacitors; Soret effect; thermopower
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