Strain sensing behaviors of stretchable conductive polymer composites loaded with different dimensional conductive fillers

2018 ◽  
Vol 168 ◽  
pp. 388-396 ◽  
Author(s):  
Jianwen Chen ◽  
Hua Li ◽  
Qizhou Yu ◽  
Yanming Hu ◽  
Xihua Cui ◽  
...  
Keyword(s):  
Polymer Composites ◽  
Conductive Polymer ◽  
Strain Sensing ◽  
Conductive Polymer Composites ◽  
Conductive Fillers

Easily fabricated and lightweight PPy/PDA/AgNW composites for excellent electromagnetic interference shielding

Nanoscale ◽  
2017 ◽  
Vol 9 (46) ◽  
pp. 18318-18325 ◽  
Author(s):  
Yan Wang ◽  
Fu-qiang Gu ◽  
Li-juan Ni ◽  
Kun Liang ◽  
Kyle Marcus ◽  
...  
Keyword(s):  
Polymer Composites ◽  
Electromagnetic Interference ◽  
Conductive Polymer ◽  
Electromagnetic Interference Shielding ◽  
Conductive Polymer Composites ◽  
Conductive Fillers ◽  
Potential Use

Conductive polymer composites (CPCs) containing nanoscale conductive fillers have been widely studied for their potential use in various applications.

Towards tunable resistivity–strain behavior through construction of oriented and selectively distributed conductive networks in conductive polymer composites

2014 ◽  
Vol 2 (26) ◽  
pp. 10048-10058 ◽  
Author(s):  
Hua Deng ◽  
Mizhi Ji ◽  
Dongxue Yan ◽  
Sirui Fu ◽  
Lingyan Duan ◽  
...  
Keyword(s):  
Polymer Blends ◽  
Polymer Composites ◽  
Conductive Polymer ◽  
Strain Sensing ◽  
Strain Behavior ◽  
Conductive Polymer Composites

We present a new way of combining polymer blends and pre-stretching to design strain sensing polymer composites. Fibrillization and “slippage” between conductive phases are proposed to explain the resistivity–strain behavior.

Electrically conductive polymer composites for smart flexible strain sensors: a critical review

2018 ◽  
Vol 6 (45) ◽  
pp. 12121-12141 ◽  
Author(s):  
Hu Liu ◽  
Qianming Li ◽  
Shuaidi Zhang ◽  
Rui Yin ◽  
Xianhu Liu ◽  
...  
Keyword(s):  
Polymer Composites ◽  
Polymer Composite ◽  
Critical Review ◽  
Conductive Polymer ◽  
Phase Morphology ◽  
Strain Sensors ◽  
Electrically Conductive ◽  
Conductive Polymer Composite ◽  
Conductive Polymer Composites ◽  
Conductive Fillers

Electrically conductive polymer composite-based smart strain sensors with different conductive fillers, phase morphology, and imperative features were reviewed.

scholarly journals Optimization of Molding Parameters Using Taguchi Method to Increase the Electrical Conductivity and Tensile Strength of Conductive Polymer Composites

2018 ◽  
Vol 221 ◽  
pp. 01001
Author(s):  
H Suherman ◽  
P Pulungan ◽  
Y Yovial ◽  
Irmayani
Keyword(s):  
Electrical Conductivity ◽  
Tensile Strength ◽  
Taguchi Method ◽  
Polymer Composites ◽  
Conductive Polymer ◽  
Epoxy Composites ◽  
Molding Temperature ◽  
Conductive Polymer Composites ◽  
Conductive Fillers

The focus of this research is to increase the electrical conductivity and tensile strength of conductive polymer composites (CPCs) materials using Taguchi method. The efforts made is by optimizing the molding parameters, using two different size of conductive fillers, ie G25 (25 μm) and G13 (13 μm) in producing CPCs material. The molding parameters used are molding time and molding temperature. S/N ratio is use to obtain the optimum molding parameters, ie the larger is better. The results showed that Taguchi method L9 (23) succeeded in increasing the electrical conductivity and tensile strength of G25/G74/epoxy and G13/G74/epoxy composites. The highest electrical conductivity and tensile strength is on G13/G74/epoxy composites, ie 3.51 S/cm and 155.50 N/mm2 respectively.

scholarly journals Miniaturization effect of electroosmotic self-propulsive microswimmer powered by biofuel cell

2019 ◽  
Vol 6 (1) ◽  
Author(s):  
Toshiro Yamanaka ◽  
Fumihito Arai
Keyword(s):  
Theoretical Model ◽  
Femtosecond Laser ◽  
Polymer Composites ◽  
Open Circuit Potential ◽  
Vascular System ◽  
Conductive Polymer ◽  
Open Circuit ◽  
Biofuel Cell ◽  
Remarkable Feature ◽  
Conductive Polymer Composites

AbstractFor future medical microrobotics, we have proposed the concept of the electroosmotic self-propulsive microswimmer powered by biofuel cell. According to the derived theoretical model, its self-propulsion velocity is inversely proportional to the length of the microswimmer, while it is proportional to the open circuit potential generated by the biofuel cell which does not depend on its size. Therefore, under conditions where those mechanisms work, it can be expected that the smaller its microswimmer size, the faster its self-propulsion velocity. Because of its remarkable feature, this concept is considered to be suitable as propulsion mechanisms for future medical microrobots to move inside the human body through the vascular system, including capillaries. We have already proved the mechanisms by observing the several 10 μm/s velocity of 100 μm prototypes fabricated by the optical photolithography using several photomasks and alignment steps. However, the standard photolithography was not suitable for further miniaturization of prototypes due to its insufficient resolution. In this research, we adopted femtosecond-laser 3D microlithography for multi-materials composing of the conductive polymer composites and nonconductive polymer composite and succeeded in fabricating 10 μm prototypes. Then we demonstrated more than 100 μm/s velocity of the prototype experimentally and proved its validity of the smaller and faster feature.

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