Flexible and conductive ITO electrode made on cellulose film by spin-coating

Khondoker, Mohammad Abu Hasan; Yang, Soon-Yong; Mun, Seong Cheol; Kim, Jaehwan

doi:10.1016/j.synthmet.2012.09.005

Cited by 19 publications

(9 citation statements)

References 30 publications

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“…However, it is still signicantly higher than those of cellulose composite conductive lms containing carbon nanotubes, ITO coating, polyaniline coating, ZnO etc. 3,17,[32][33][34][35][36] The conductivity of the RC-Cu lm is also better than polypyrrole-Ag nanocomposite modied cotton fabrics (4.82 Â 10 À3 S cm À1 ) and polyaniline-Ag coated cellulose composite ber (4.1 Â 10 À4 S cm À1 ). 35,37 The conductivities of cellulosebased materials vary by different preparation methods and matrix structures.…”

Section: Properties Of the Lmsmentioning

confidence: 97%

Constructing flexible cellulose–Cu nanocomposite film through in situ coating with highly single-side conductive performance

et al. 2014

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Section: Properties Of the Lmsmentioning

confidence: 97%

Constructing flexible cellulose–Cu nanocomposite film through in situ coating with highly single-side conductive performance

et al. 2014

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“…In addition, the oxides of metals can work as conductive agents. For example, indium tin oxide has a very high transparency and it is applied in monitors and photoelectronic materials (Hasan Khondoker et al 2012). The challenge of using metals in conductive materials is that they are hard to recycle.…”

Section: Metalsmentioning

confidence: 99%

Review of electrically conductive composites and films containing cellulosic fibers or nanocellulose

Zhang¹,

Dou²,

Pal³

et al. 2019

BioRes

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Strategic combinations of cellulosic materials with electrically conductive polymers or nanoconductors offer important potential advantages for technological advances, lightweight inexpensive products, applications of novel form factors, and more eco-friendly alternatives to certain forms of smart packaging and electronics. This review of the literature focuses on how such electrically conductive composite systems work, the roles that cellulosic materials can provide in such structures, processes by which electrically-conductive cellulose-based composites and films can be manufactured, and various potential applications that have been demonstrated. Several advantages of cellulose, such as ease of fabrication, compatibility with conductive agents, and sustainability, allow its integration with conductive agents in making conductive composites. Applications of electrically conducting cellulose-based composites for strain sensors, energy storage, solar cells, electrodes, supercapacitors, and smart packaging are discussed.

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“…Coating the substrate with a colloid solution that contains ITO crystalline particles is an alternative method to produce ITO films [16][17][18]. Because the coating method uses the crystallites, the film is not required to be annealed for crystallization.…”

Section: Introductionmentioning

confidence: 99%

Fabrication of ITO particles using a combination of a homogeneous precipitation method and a seeding technique and their electrical conductivity

Kobayashi

Takahashi

Maeda

et al. 2015

Journal of Asian Ceramic Societies

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The present work proposes a method to fabricate indium tin oxide (ITO) particles using precursor particles synthesized with a combination of a homogeneous precipitation method and a seeding technique, and it also describes their electronic conductivity properties. Seed nanoparticles were produced using a co-precipitation method with aqueous solutions of indium (III) chloride, tin (IV) chloride aqueous solution and sodium hydroxide. Three types of ITO nanoparticles were fabricated. The first type was fabricated using the co-precipitation method (c-ITO). The second and third types were fabricated using a homogeneous precipitation method with the seed nanoparticles (s-ITO) and without seeds (n-ITO). The as-prepared precursor particles were annealed in air at 500 • C, and their crystal structures were cubic ITO. The c-ITO nanoparticles formed irregular-shaped agglomerates of nanoparticles. The n-ITO nanoparticles had a rectangular-parallelepiped or quasi-cubic structure. Most s-ITO nanoparticles had a quasi-cubic structure, and their size was larger than the n-ITO particles. The volume resistivities of the c-ITO, n-ITO and s-ITO powders decreased in that order because the regular-shaped particles were made to strongly contact with each other.

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Flexible and conductive ITO electrode made on cellulose film by spin-coating

Cited by 19 publications

References 30 publications

Constructing flexible cellulose–Cu nanocomposite film through in situ coating with highly single-side conductive performance

Constructing flexible cellulose–Cu nanocomposite film through in situ coating with highly single-side conductive performance

Review of electrically conductive composites and films containing cellulosic fibers or nanocellulose

Fabrication of ITO particles using a combination of a homogeneous precipitation method and a seeding technique and their electrical conductivity

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