Conductive polyaniline-coated poly(p-phenylenetere phthamide) yarn-reinforced multiaxial composites for electromagnetic shielding

Hong, Jing; Hu, Chengye; Jin, Lihua; Han, Xiaopeng; Yao, Juming; Gil, Ignacio

doi:10.1177/1528083719883048

Cited by 3 publications

(1 citation statement)

References 28 publications

(39 reference statements)

Supporting

Mentioning

Contrasting

Order By: Relevance

“…Besides, PAni has special electronic properties, which can be reversibly controlled by the material's protonation/deprotonation processes (5). In addition, PAni has great potential for highend applications, such as electrodes (18,28,38,(75)(76)(77)(78)(79)(80)(81)(82)(83), batteries (15,(84)(85)(86)(87)(88)(89)(90)(91)(92)(93), microelectronics (94)(95)(96)(97)(98)(99)(100)(101)(102), electrochromic materials used in displays (103)(104)(105)(106)(107)(108)(109)(110), sensors (22,(111)(112)(113)(114)(115)(116)(117)(118), and electromagnetic shielding (119)(12...…”

Section: Introductionmentioning

confidence: 99%

Nanoparticles improving polyaniline electrical conductivity: A meta-analysis study

Souza¹,

Barradas²,

Caetano

et al. 2022

Braz J Exp Des Data Anal Inferential Stats

View full text Add to dashboard Cite

Polyaniline is a conductive polymer that attracts the attention of many researchers around the world. The history of this polymer begins in 1862 when Letheby first reported this material. Since then, a myriad of studies has been conducted onthis material, and new works continue to investigate the potential of this material. Polyaniline has been improved with the help of Nanotechnology. The use of nanofillers has been seen as a quick and economical way to modify materials, drivinginnovations based on new physical and chemical properties from the conductive polymer materials and nanoparticles joining. Several works address the use of different nanoparticles, which leads to the practical impossibility of sifting through all this information. Thus, this work proposes to systematically collect data in the literature and investigate which nanoparticles can increase the electrical conductivity of Polyaniline (PAni). The results obtained demonstrate that among the possiblenanofillers, graphene and carbon nanotubes have great prominence. Furthermore, the results of the meta-analysis prove that PAni's conductivity increases when this polymer is modified with the aforementioned nanofillers.

show abstract

Section: Introductionmentioning

confidence: 99%

Nanoparticles improving polyaniline electrical conductivity: A meta-analysis study

Souza¹,

Barradas²,

Caetano

et al. 2022

Braz J Exp Des Data Anal Inferential Stats

View full text Add to dashboard Cite

show abstract

Recent advances of preparing structure-enhanced conductive yarns to control their performance in potential applications

Saty,

Abdalla,

Sarkodie

et al. 2024

Textile Research Journal

View full text Add to dashboard Cite

There has been a recent transition from conventional textiles to smart and electronic textiles, mostly due to the rise of wearable technology. Functional yarns have been created to fulfil the varied application needs in various environments. Conductive yarns have attracted considerable interest because of their exceptional softness, comfort, and diverse capabilities, such as electromagnetic shielding and soft sensors. This paper presents a comprehensive examination of spinning techniques utilized for the production of conductive yarns, incorporating a range of conductive additives, conductive fabrics, and conventional electrical elements. The text emphasizes that the performance of conductive yarns is significantly affected by their structure, which is dictated by the geometrical configurations of their elements, and the spinning geometry, commonly known as the twisted triangle. The performance of conductive yarns is primarily determined by the concentration of conductive components in their structure. Moreover, this paper examines the possible uses of conductive fabrics in several technical domains. The mentioned applications encompass antistatic packaging, heating elements, wearable electronics, smart membrane technology, data storage and transmission, sensors, actuators, and protection against electromagnetic interference and electrostatic discharge. Conductive textiles possess a versatile character that presents a wide range of opportunities for progress in multiple industries. To summarize, this review thoroughly examines the spinning methods used to create conductive yarns, with a particular focus on the significance of yarn structure in influencing their performance. Furthermore, it emphasizes the wide range of technological applications in which conductive textiles can be utilized.

show abstract

Performance of Conductive Gloves When Using Electronic Devices in a Cold Environment : Manual Dexterity, Usability and Thermoregulatory Responses

Kwon¹,

Jung²,

Kim³

et al. 2020

FTRJ

View full text Add to dashboard Cite

Conductive polyaniline-coated poly(p-phenylenetere phthamide) yarn-reinforced multiaxial composites for electromagnetic shielding

Cited by 3 publications

References 28 publications

Nanoparticles improving polyaniline electrical conductivity: A meta-analysis study

Nanoparticles improving polyaniline electrical conductivity: A meta-analysis study

Recent advances of preparing structure-enhanced conductive yarns to control their performance in potential applications

Performance of Conductive Gloves When Using Electronic Devices in a Cold Environment : Manual Dexterity, Usability and Thermoregulatory Responses

Contact Info

Product

Resources

About