Shinn-Shyong Tzeng

Tatung University

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Tse‐Hao Ko

Feng Chia University

Jiong-Shiun Hsu

National Formosa University

Pei-Lun Wang

National Yunlin University of Science and Technology

Kai-Hsuan Hung

University of Delaware

Yingjie Wu

Harbin Institute of Technology

Ting-Yu Wu

I-Shou University

Fa-Yen Chang

Tatung University

Wen‐Shyong Kuo

Feng Chia University

Yang-Li Fang

Tatung University

Ya-Ko Chih

Industrial Technology Research Institute

Cooperative Institutions

Tatung University

Feng Chia University

Industrial Technology Research Institute

National Taiwan University

National Yang Ming Chiao Tung University

Taiwan Power (Taiwan)

University of Delaware

National Tsing Hua University

National Chung Shan Institute of Science and Technology

National Taiwan University of Science and Technology

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Substrate Effect on the Diamond-Like Carbon Films Synthesized by RF Plasma Enhanced Chemical Vapor Deposition

Materials science forum (2007)

Shinn-Shyong Tzeng Wei Min Wu Jiong-Shiun Hsu

Diamond-like carbon (DLC) films were synthesized by RF plasma enhanced chemical vapor deposition using methane as carbon source. Effect of substrate on the growth of DLC films was investigated by using four different substrate materials, silicon wafer (100), glass, flat-polished and mirror-polished alumina. The carbon films were deposited at four different self-bias voltages (-157 V, -403 V, -500 V and -590 V) by changing the plasma power under fixed flow rate and working pressure. Raman analyses indicated that DLC films were deposited on silicon and glass substrates at the self-bias -403 V ~ -590 V, and polymer-like carbon films were obtained at -157 V. For the alumina substrates, different Raman results were observed for flat-polished and mirror-polished alumina substrates. The hardness of DLC films, deposited on silicon and glass substrates at the self-bias -403 V ~ -590 V, was within 16~20 GPa using nanoindentation technique.

Diamond-like carbon

Carbon fibers

10.4028/www.scientific.net/msf.539-543.3574

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Citations (1)

Processing and tensile characterization of composites composed of carbon nanotube-grown carbon fibers

Composites Part A Applied Science and Manufacturing (2009)

K. Hung W.S. Kuo Tse‐Hao Ko Shinn-Shyong Tzeng Changzeng Yan

10.1016/j.compositesa.2009.06.002

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Citations (83)

Formation of graphitic rods in carbon/carbon composites reinforced with carbon nanotubes

Carbon (2012)

Shinn-Shyong Tzeng Yuhong Lin

Rod

Reinforced carbon–carbon

Carbon fibers

10.1016/j.carbon.2012.10.010

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Citations (20)

Distribution of intercalant in copper chloride and iron chloride graphite intercalation compounds

Journal of materials research/Pratt's guide to venture capital sources (1999)

Shinn-Shyong Tzeng Mei-Hsueh Nien

Copper chloride

Carbon fibers

10.1557/jmr.1999.0043

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Citations (5)

The microstructural changes of carbon fiber pores in carbon–carbon composites during pyrolysis

Composites Science and Technology (2003)

Tse-Hao Ko Wen‐Shyong Kuo Shinn-Shyong Tzeng Ying‐Huang Chang

Carbon fibers

Reinforced carbon–carbon

10.1016/s0266-3538(03)00165-9

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Citations (16)

Effect of nitrogen in the reaction atmosphere on the microstructure of carbon nanofibers grown by thermal chemical vapor deposition

Journal of materials research/Pratt's guide to venture capital sources (2009)

Ting-Yu Wu Shinn-Shyong Tzeng

Carbon fibers

10.1557/jmr.2009.0350

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Citations (0)

Growth of carbon nanofibers on carbon fabric with Ni nanocatalyst prepared using pulse electrodeposition

Nanotechnology (2008)

Kai-Hsuan Hung Shinn-Shyong Tzeng Wen‐Shyong Kuo Bingqing Wei Tse‐Hao Ko

The pulse electrodeposition (PED) technique was utilized to deposit nanosized (≤10 nm) Ni catalysts on carbon fabric (CF). Via an in situ potential profile, the PED technique can control the Ni catalyst loading, which is an important parameter for the growth of carbon nanofibers (CNFs) on CF. The preparation of CNF-coated CF (carpet-like CF) was carried out in a thermal chemical vapor deposition system with an optimum loading of Ni catalysts deposited in the PED pulse range from 20 to 320 cycles. CNFs grown at 813 K using different pulse cycles had a narrow diameter distribution, around 15 ± 5 nm to 29 ± 7 nm; they have a hydrophobic surface, like lotus leaves. Transmission electron microscopy images confirmed the graphene structural transformation of CNFs with the growth temperature. Solid wire CNFs were initially grown at 813 K with graphene edges exposed on the external surface. At elevated growth temperatures (1073 and 1173 K), bamboo-like CNFs were obtained, with herringbone structures and intersectional hollow cores.

Carbon fibers

10.1088/0957-4484/19/29/295602

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Citations (21)

The role of electroless Ni–P coating in the catalytic graphitization of PAN-based carbon fibers

Carbon (2008)

Shinn-Shyong Tzeng Yu-Hun Lin

Carbon fibers

Electroless deposition

10.1016/j.carbon.2007.12.022

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Citations (15)

Journal of Materials Science (2001)

Shinn-Shyong Tzeng Pei-Lun Wang Tse‐Hao Ko

Copper chloride

10.1023/a:1004849117425

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Citations (3)

Carbon nanofibers grown on activated carbon fiber fabrics as electrode of supercapacitors

Physica Scripta (2007)

Tse‐Hao Ko Kai-Hsuan Hung Shinn-Shyong Tzeng Jin-Wei Shen Cheng-Hsin Hung

Carbon nanofibers (CNFs) were grown directly on activated carbon fiber fabric (ACFF), which was then used as the electrode of supercapacitors. Cyclic voltammetry and ac impedance were used to characterize the electrochemical properties of ACFF and CNF/ACFF electrodes in both aqueous and organic electrolytes. ACFF electrodes show higher specific capacitance than CNF/ACFF electrodes due to larger specific surface area. However, the spaces formed between the CNFs in the CNF/ACFF electrodes are more easily accessed than the slit-type pores of ACFF, and much higher electrical-double layer capacitance was obtained for CNF/ACFF electrodes.

Carbon fibers

10.1088/0031-8949/2007/t129/018

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Citations (13)