Ultra-flexible thermoelectric generator based on silicone rubber sheet and electrodeposited thermoelectric material for waste heat harvesting

Toàn, Nguyễn Văn; Tuoi, Truong Thi Kim; Sui, Hongtao; Trung, Nguyen Huu; Samat, Khairul Fadzli; Ono, Takahito

doi:10.1016/j.egyr.2022.03.121

Cited by 23 publications

(10 citation statements)

References 47 publications

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“…Not only invasion of intrusion external materials, but also devices can be successfully operated inside the capsule. For damping materials in commercials, alphagel 348 and D3O 349 are successful materials for damping mechanical stress from viscoelastic properties as shown in Figure 28f,g. The shock absorption function of these materials show promise in the bioelectronics market.…”

Section: Commercial Electronics With Noise Reduction Strategymentioning

confidence: 99%

Materials and Structural Designs toward Motion Artifact-Free Bioelectronics

Park,

Jeong,

et al. 2024

Chem. Rev.

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Bioelectronics encompassing electronic components and circuits for accessing human information play a vital role in real-time and continuous monitoring of biophysiological signals of electrophysiology, mechanical physiology, and electrochemical physiology. However, mechanical noise, particularly motion artifacts, poses a significant challenge in accurately detecting and analyzing target signals. While software-based "postprocessing" methods and signal filtering techniques have been widely employed, challenges such as signal distortion, major requirement of accurate models for classification, power consumption, and data delay inevitably persist. This review presents an overview of noise reduction strategies in bioelectronics, focusing on reducing motion artifacts and improving the signal-to-noise ratio through hardware-based approaches such as "preprocessing". One of the main stress-avoiding strategies is reducing elastic mechanical energies applied to bioelectronics to prevent stress-induced motion artifacts. Various approaches including strain-compliance, strain-resistance, and stress-damping techniques using unique materials and structures have been explored. Future research should optimize materials and structure designs, establish stable processes and measurement methods, and develop techniques for selectively separating and processing overlapping noises. Ultimately, these advancements will contribute to the development of more reliable and effective bioelectronics for healthcare monitoring and diagnostics.

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Section: Commercial Electronics With Noise Reduction Strategymentioning

confidence: 99%

Materials and Structural Designs toward Motion Artifact-Free Bioelectronics

Park,

Jeong,

et al. 2024

Chem. Rev.

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“…32,[211][212][213][214][215][216][217][218][219][220][221][222][223][224][225][226][227][228][229] Additionally, the use of small-sized solidstate inorganic thermoelectric materials as thermoelectric legs can provide relatively higher performance to the device, although their flexibility might be more limited. [230][231][232][233][234][235][236][237][238][239][240][241][242][243][244][245][246][247] Furthermore, the rational design of device structures and the use of appropriate flexible heat sinks are also important research focuses for designing vertically oriented F-TEDs. 248 Figure 8A illustrates a tubular F-TED for energy harvesting from hot water.…”

Section: Thermoelectric Devices Composed Of Inorganic-based Flexible ...mentioning

confidence: 99%

“…In general, designing such F‐TEDs involves considering the use of flexible inorganic thermoelectric materials as thermoelectric legs to impart overall flexibility to the device 32,211–229 . Additionally, the use of small‐sized solid‐state inorganic thermoelectric materials as thermoelectric legs can provide relatively higher performance to the device, although their flexibility might be more limited 230–247 . Furthermore, the rational design of device structures and the use of appropriate flexible heat sinks are also important research focuses for designing vertically oriented F‐TEDs 248 …”

Section: Vertical Flexible Thermoelectric Devices Composed Of Inorgan...mentioning

confidence: 99%

Advances in flexible inorganic thermoelectrics

Shi,

Cao,

Chen

et al. 2023

EcoEnergy

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Solid‐state bismuth telluride‐based thermoelectric devices enable the generation of electricity from temperature differences and have been commercially applied in various fields. However, in many scenarios, the surface of the heat source is not flat. Therefore, it is crucial to develop flexible thermoelectric materials and devices to efficiently utilize heat sources and expand their applications. Compared with organic thermoelectric materials and devices, inorganic flexible thermoelectric materials and devices have much higher thermoelectric performance and stability. Considering the rapid development in this research field, we carefully summarize the design principles, structures, and thermoelectric properties of inorganic flexible materials and their devices reported in the recent 3 years, including sulfides, selenides, tellurides, and composite materials designed based on these inorganics. The structural designs of flexible thermoelectric devices based on micro‐sized bulk materials are also carefully summarized. Additionally, we overview the mechanical stability and methods for reducing internal resistance for designs of inorganic flexible thermoelectric devices. In the end, we provide outlooks on future research directions for inorganic flexible thermoelectric materials and devices. This review will help guide thermoelectric researchers, beginners, and students.

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“…In terms of exploring excellent thermoelectric materials, significant effort has been made regarding organic/inorganic TE materials and optimization strategies for TE materials ( Chen et al, 2021 ; Soleimani et al, 2021 ; Yang et al, 2022c ). Recently, Toan et al ( Toan et al, 2022 ) developed an ultra-flexible considerable-performance thermoelectric generator (TEG) using a silicon rubber sheet and thermoelectric material fabricated by electrodeposition. The ultra-flexible TEG displays a high output performance, with an output voltage of 1 V and power density of 552.9 μW cm −2 under a ΔT of 60 K. Moreover, based on the ultra-flexible TEG, a self-powered temperature/humidity monitoring electronic device was successfully constructed.…”

Section: Self-powered Technologymentioning

confidence: 99%

Current development of stretchable self-powered technology based on nanomaterials toward wearable biosensors in biomedical applications

Wang

Sun

Liu

et al. 2023

Front. Bioeng. Biotechnol.

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In combination with the growing fields of artificial intelligence and Internet-of-things (IoT), the innovation direction of next-generation biosensing systems is toward intellectualization, miniaturization, and wireless portability. Enormous research efforts have been made in self-powered technology due to the gradual decline of traditional rigid and cumbersome power sources in comparison to wearable biosensing systems. Research progress on various stretchable self-powered strategies for wearable biosensors and integrated sensing systems has demonstrated their promising potential in practical biomedical applications. In this review, up-to-date research advances in energy harvesting strategies are discussed, together with a future outlook and remaining challenges, shedding light on the follow-up research priorities.

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Ultra-flexible thermoelectric generator based on silicone rubber sheet and electrodeposited thermoelectric material for waste heat harvesting

Cited by 23 publications

References 47 publications

Materials and Structural Designs toward Motion Artifact-Free Bioelectronics

Materials and Structural Designs toward Motion Artifact-Free Bioelectronics

Advances in flexible inorganic thermoelectrics

Current development of stretchable self-powered technology based on nanomaterials toward wearable biosensors in biomedical applications

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