Laser-Assisted Simultaneous Transfer and Patterning of Vertically Aligned Carbon Nanotube Arrays on Polymer Substrates for Flexible Devices

In, Jung Bin; Lee, Daeho; Fornasiero, Francesco; Noy, Aleksandr; Grigoropoulos, Costas P.

doi:10.1021/nn302192y

Cited by 63 publications

(44 citation statements)

References 39 publications

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“…Percolating networks of highly conductive and mechanically durable 1D nanomaterials such as Ag NWs and CNTs can provide high flexibility and stretchability when deposited on or embedded in polymeric or elastomeric substrates such as polyimide (PI) or polydimethylsiloxane (PDMS). Such networks of nanomaterials can be either directly deposited on deformable substrates via drop casting or spray coating, or transferred from a rigid substrate using elastomeric stamps.…”

Section: Materials For Flexible and Stretchable Displaymentioning

confidence: 99%

Flexible and Stretchable Smart Display: Materials, Fabrication, Device Design, and System Integration

Koo

Kim

Shim

et al. 2018

Adv Funct Materials

438

278

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Recent technological advances in nanomaterials have driven the development of high-performance light-emitting devices with flexible and stretchable form factors. Deformability in such devices is mainly achieved by replacing the rigid materials in the device components with flexible nanomaterials and their assemblies (e.g., carbon nanotubes, silver nanowires, graphene, and quantum dots) or with intrinsically soft materials and their composites (e.g., polymers and elastomers). Downscaling the dimensions of the functional materials to the nanometer range dramatically decreases their flexural rigidity, and production of polymer/elastomer composites with functional nanomaterials provides light-emitting devices with flexibility and stretchability. Furthermore, monolithic integration of these light-emitting devices with deformable sensors furnishes the resulting display with various smart functions such as force/capacitive touch-based data input, personalized health monitoring, and interactive human-machine interfacing. These ultrathin, lightweight, and deformable smart optoelectronic devices have attracted widespread interest from materials scientists and device engineers. Here, a comprehensive review of recent progress concerning these flexible and stretchable smart displays is presented with a focus on materials development, fabrication techniques, and device designs. Brief overviews of an integrated system of advanced smart displays and cutting-edge wearable sensors are also presented, and, to conclude, a discussion of the future research outlook is given.

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Section: Materials For Flexible and Stretchable Displaymentioning

confidence: 99%

Flexible and Stretchable Smart Display: Materials, Fabrication, Device Design, and System Integration

Koo

Kim

Shim

et al. 2018

Adv Funct Materials

438

278

View full text Add to dashboard Cite

show abstract

“…In addition to liquid‐soluble (water or other chemical liquid) sacrificial layer, there is also a transfer method using laser to eliminate the sacrificial layer, [ 93 ] such as laser lift‐off (LLo), [ 97–99 ] laser microtransfer printing (LμTP), [ 100 ] laser pulse patterning, [ 101,102 ] and laser enhance adhesion, [ 103 ] which takes the advantages of high yield, success rate, and high efficiency.…”

Section: Techniques For Fabrication Of Deformable Curved Electronicsmentioning

confidence: 99%

Fabrication Techniques for Curved Electronics on Arbitrary Surfaces

Tian

Luo

et al. 2020

Adv Materials Technologies

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Curved electronics, which are better coordinated and blended with the natural world due to the characteristics of large contact area, high space adaptability, etc., have been widely used in a quantity of areas ranging from conformal curved antennas and sensors in detection and measurement, to artificial smart skin of aerospace. Recent developments in curved electronics have made an increasing progress to the historic drawbacks of conventional planar electronics, however significant challenges still exist. Here, the main kinds of conformal fabrication technologies, including transfer printing, assembly techniques, curved lithography, conformal inkjet printing, 3D printing, and laser direct writing, are reviewed to realize manufacturing deformable/undeformable electronics on curved or arbitrary surfaces. The processes and features of each technology are comprehensively summarized together with their progress and potential values. Finally, the challenges and opportunities for fabricating conformal electronics on arbitrary surfaces are also discussed.

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“…随后 , Hsieh等人 [26] 通过同样的方法将预先图案化的 VACNTs转移至PC基底上, 并研究了柔性基底上图案化VACNTs的光学特征. In等人 [27] [28,29] [4,6] . 切向黏附强度均呈上升趋势.…”

Section: 化学气相沉积法(Cvd)制备vacnts因高产量、unclassified

干黏附碳纳米管垂直阵列的转移及其黏附性能评价

Luo¹,

Li²,

Yao³

et al. 2015

Chin. Sci. Bull.

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Laser-Assisted Simultaneous Transfer and Patterning of Vertically Aligned Carbon Nanotube Arrays on Polymer Substrates for Flexible Devices

Cited by 63 publications

References 39 publications

Flexible and Stretchable Smart Display: Materials, Fabrication, Device Design, and System Integration

Flexible and Stretchable Smart Display: Materials, Fabrication, Device Design, and System Integration

Fabrication Techniques for Curved Electronics on Arbitrary Surfaces

干黏附碳纳米管垂直阵列的转移及其黏附性能评价

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