Filter for the selective removal of tritium from the coolant gas of a high temperature nuclear reactor

Iniotakis, N.; Fröhling, W.; Decken, C.B. von der

doi:10.1016/0022-5088(83)90357-0

Cited by 3 publications

(1 citation statement)

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“…[208,209] Additionally, metallic fabric produced in such traditional manners consists of defects, such as stiffness, easy to rust, poor air permeability, intrinsic brittle, and heavy in weight. [210,211] To overcome these hurdles, different low dimensional metallic nanoparticles, nanowires, and nanoflakes/nanosheets/ nanoclusters have been advanced for flexible and stretchable wearable electronics. For proper integration of these nanostructural metallic derivatives in textile architecture, researchers have adopted different fabricating techniques including physical depositing, [212] flame and arc spraying, [213] sputtering, [214] chemical platting, [215] etc.…”

Section: Metal-based E-textile Blocksmentioning

confidence: 99%

Mapping the Progress in Flexible Electrodes for Wearable Electronic Textiles: Materials, Durability, and Applications

Liman

Islam

Hossain

2021

Adv Elect Materials

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With the advancement of nanotechnology and electroactive materials, conventional textiles have transformed into a versatile wearable electronic platform that will inevitably escalate the development of next‐generation flexible electronics. Integration of nanoscale conductive particles such as polymers, metals, or nanocarbons into different structural textile design has simplified the way of personal interactive communications and portable sensing by distributing superior stretchability and functionality in a smart textile device. However, for the real‐life application, it is crucial to recognize the functional reliability of wearable textile electronics. This review comprehensively summarizes the recent progress in electronic textiles (e‐textiles) using different electroactive materials and textile architectures for numerous wearable applications. The first section highlights different textile architectures used in e‐textiles and their various properties. Various electroactive polymers from carbon, metal, and conductive polymers, including their electromechanical properties and wash durability, are then discussed. Subsequently, progress in textile‐based energy harvesting and storage, personal thermal management, flexible sensing, electrocardiography (ECG), electromagnetic interference shielding are presented. Finally, the remaining challenges regarding the current materials and processing strategies are pointed out, and practical strategies to fully realize e‐textile systems are suggested.

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