Flexible piezoelectric coatings on textiles for energy harvesting and autonomous sensing applications: a review

Rashid, Anum; Zubair, Usman; Ashraf, Munir; Javid, Amjed; Abid, Hafiz Affan; Akram, Saba

doi:10.1007/s11998-022-00690-2

Cited by 10 publications

(3 citation statements)

References 234 publications

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“…The broad applicability of textile-based functional materials, attributed to their flexibility, conformability, and accessibility, extends beyond traditional wearable applications. [1][2][3][4] Thus, fabrics configured as functional materials have increasingly DOI: 10.1002/admt.202400008 found utility in diverse fields such as healthcare, [5,6] vehicle components, [7] military equipment, [8] biomonitoring, [9,10] portable power generation devices, [11,12] and wearable and foldable displays. [13,14] Particularly, the superior structure of electronically conductive fabrics aligns well with the customization and adaptability requirements of emerging EMI shielding materials.…”

Section: Introductionmentioning

confidence: 99%

Liquid Metal‐Coated Textile with P(AAm‐co‐AA) Ionogel Encapsulation to Mitigate Electromagnetic Radiation Pollution

Wang,

He,

Tang

et al. 2024

Adv Materials Technologies

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Conductive textiles with electromagnetic interference (EMI) shielding functionality are highly desirable for growing flexibility requirements of EMI shielding devices. Most extant shielding coatings on textiles rely on rigid nanomaterials, which are susceptible to detachment, and generate a great deal of reflected EM waves. Thus, there is a high demand for shielding coatings on textiles that are stretchable, stable, and capable of suppressing the secondary reflection toward incident EM waves. Liquid metal is a particularly suitable candidate owing to its high electrical conductivity and excellent conformality. Herein, a straightforward coating strategy is developed for fast fabrication of Ion/Clay‐F that is reinforced with ionogel encapsulation. Especially, the method enables the direct transformation of fluid‐like liquid metal into a clay‐like state and the preparation of ionogel sealings from monomer solutions. The resulting Ion/Clay‐F exhibits promising features, including high total EMI shielding effectiveness (SET) (highest value of 49.3 dB for a single layer and an average value of 73.0 dB for three layers), low reflectivity (0.404), improved tensile strength (13.16 MPa) and tolerance in a wide range of temperatures (−18–100 °C). Remarkably, such Ion/Clay‐F outperforms pure cotton fabric in terms of thermal management, delivering superior heat dissipation and thermal insulation properties.

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Section: Introductionmentioning

confidence: 99%

Liquid Metal‐Coated Textile with P(AAm‐co‐AA) Ionogel Encapsulation to Mitigate Electromagnetic Radiation Pollution

Wang,

He,

Tang

et al. 2024

Adv Materials Technologies

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“…The literature review conducted by Rashid et al 26 explains the application of piezoelectric coatings applied on textiles, with a focus on harvesting performance, piezoelectric performance, piezosensors and piezoelectric coating methods. Dolez 27 lead a state-of-the-art in energy harvesters for ST applications.…”

Section: Introductionmentioning

confidence: 99%

“…24 Textile materials with piezoelectric properties can be obtained in the form of yarns and filaments, woven fabric structures, knitted fabric structures, among other textile substrates. 25 The literature review conducted by Rashid et al 26 explains the application of piezoelectric coatings applied on textiles, with a focus on harvesting performance, piezoelectric performance, piezosensors and piezoelectric coating methods. Dolez 27 lead a state-of-the-art in energy harvesters for ST applications.…”

Section: Introductionmentioning

confidence: 99%

Recent advances in piezoelectric textile materials: A brief literature review

Maestri

Ferreira

Bachmann

et al. 2023

Journal of Engineered Fibers and Fabrics

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Smart textiles (ST) can be defined as materials capable of detecting an external stimulus, responding, and adapting its behavior according to the stimulus obtained. The field of study and development of these materials is extensive, and ST can be seen in areas such as health, transport, security, civil construction, and sports. Piezoelectric textiles are part of the ST category and are characterized due the ability to generate electrical energy from mechanical stimulus, and vice versa. Therefore, the main objective of this review is to present the current research on piezoelectric ST. In addition, the study highlights the process of obtaining materials with piezoelectric properties and the challenges and limitations, seeking to understand the contribution of the development of these materials in the field of wearable electronic devices. Thus, the main challenge in developing piezoelectric textiles is in the ability to supply energy to electronic devices to be applied in various fields such as motion detection, acoustics, impact absorption, among others. Moreover, piezoelectric ST is remarkably promising for the development of wearable electronic textiles (e-textiles) that consequently impact the creation of new functional materials that enable renewable sources to offer a positive contribution in the daily society.

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MXene Hydrogels for Soft Multifunctional Sensing: A Synthesis‐Centric Review

Amara,

Xu,

Hussain

et al. 2024

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Intelligent wearable sensors based on MXenes hydrogels are rapidly advancing the frontier of personalized healthcare management. MXenes, a new class of transition metal carbon/nitride synthesized only a decade ago, have proved to be a promising candidate for soft sensors, advanced human–machine interfaces, and biomimicking systems due to their controllable and high electrical conductivity, as well as their unique mechanical properties as derived from their atomistically thin layered structure. In addition, MXenes’ biocompatibility, hydrophilicity, and antifouling properties render them particularly suitable to synergize with hydrogels into a composite for mechanoelectrical functions. Nonetheless, while the use of MXene as a multifunctional surface or an electrical current collector such as an energy device electrode is prevalent, its incorporation into a gel system for the purpose of sensing is vastly less understood and formalized. This review provides a systematic exposition to the synthesis, property, and application of MXene hydrogels for intelligent wearable sensors. Specific challenges and opportunities on the synthesis of MXene hydrogels and their adoption in practical applications are explicitly analyzed and discussed to facilitate cross gemination across disciplines to advance the potential of MXene multifunctional sensing hydrogels.

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Flexible piezoelectric coatings on textiles for energy harvesting and autonomous sensing applications: a review

Cited by 10 publications

References 234 publications

Liquid Metal‐Coated Textile with P(AAm‐co‐AA) Ionogel Encapsulation to Mitigate Electromagnetic Radiation Pollution

Liquid Metal‐Coated Textile with P(AAm‐co‐AA) Ionogel Encapsulation to Mitigate Electromagnetic Radiation Pollution

Recent advances in piezoelectric textile materials: A brief literature review

MXene Hydrogels for Soft Multifunctional Sensing: A Synthesis‐Centric Review

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