Sort by:
Publication Type:
Open access:
Publication Date:
Periodicals:
Search results
Online since: November 2020
It is the aim of the Asia-Pacific Conference on Silicon Carbide and Related Materials (APCSCRM) to provide a forum to discuss the recent progresses, exchange ideas, and boost the cooperation among the researchers, graduates and entrepreneurs from across the Asia-Pacific region.
As many as 45 invited talks and 26 contributed presentations were given, providing a stimulating overview of the latest advances in wide bandgap semiconductors technology.
China) Wei HUANG (Fudan University, China) Chih-Fang HUANG (National Tsing Hua University, Taiwan, China) Fengyi JIANG (Nanchang University, China) Peng JING (Institute of Semiconductors, CAS, China) Sooseong KIM (TRinno technology, Korea) Zhanping LAI (The 46th Research Institute of China Electronic Technology Group Corporation, China) Chwan-Ying LI (Hestia Power Inc., Taiwan, China) Kung-Yen LI (National Taiwan University, Taiwan, China) Shunfeng LI (Dongguan Institute of Opto-Electronics Peking University, China) Bingbing LIU (Jilin University, China) Calvin LIU (Globalwafers Co., Ltd., Taiwan, China) Guoyou LIU (Zhuzhou CRRC Times Electric Co., Ltd., China) Xinyu LIU (Institute of Microelectronics, CAS, China) Xuechao LIU (Shanghai Institute of Ceramics, CAS, China) Guoquan LU (Virginia Tech., USA) Hideharu MATSUURA (Osaka Electro-Communication University, Japan) Tokuyasu MIZUHARA (ROHM Semiconductor (Shanghai) Co., Ltd., Japan) Puqi NING (Institute of Electrical Engineering
, CAS, China) Chulmin OH (Korea Electronic Technology Institute, Korea) Tonghua PENG (TankeBlue Semiconductor Co., Ltd., China) Yufeng QIU (Global Energy Internet Institute, China) Mark RAMM (STR Group, Inc., Russia) Bo SHEN (Peking University, China) Guosheng SUN (Institute of Semiconductors, CAS, China) Tadatomo SUGA (Meishi University, Japan) Koukou SUU (ULVAC, Inc., Japan) Weihua TANG (Beijing University of Posts and Telecommunications, China) Jinyan WANG (Peking University, China) Junxi WANG (Institute of Semiconductors, CAS, China) Xuhui WEN (Institute of Electrical Engineering, CAS, China) Ke XU (Suzhou Nanowin Technology Co., Ltd., CAS, China) Kouji YAMAGUCHI (Fuji Electric Co., LTD., Japan) Anping ZHANG (Xi'an Jiaotong University, China) Degang ZHAO (Institute of Semiconductors, CAS, China) Q.
As many as 45 invited talks and 26 contributed presentations were given, providing a stimulating overview of the latest advances in wide bandgap semiconductors technology.
China) Wei HUANG (Fudan University, China) Chih-Fang HUANG (National Tsing Hua University, Taiwan, China) Fengyi JIANG (Nanchang University, China) Peng JING (Institute of Semiconductors, CAS, China) Sooseong KIM (TRinno technology, Korea) Zhanping LAI (The 46th Research Institute of China Electronic Technology Group Corporation, China) Chwan-Ying LI (Hestia Power Inc., Taiwan, China) Kung-Yen LI (National Taiwan University, Taiwan, China) Shunfeng LI (Dongguan Institute of Opto-Electronics Peking University, China) Bingbing LIU (Jilin University, China) Calvin LIU (Globalwafers Co., Ltd., Taiwan, China) Guoyou LIU (Zhuzhou CRRC Times Electric Co., Ltd., China) Xinyu LIU (Institute of Microelectronics, CAS, China) Xuechao LIU (Shanghai Institute of Ceramics, CAS, China) Guoquan LU (Virginia Tech., USA) Hideharu MATSUURA (Osaka Electro-Communication University, Japan) Tokuyasu MIZUHARA (ROHM Semiconductor (Shanghai) Co., Ltd., Japan) Puqi NING (Institute of Electrical Engineering
, CAS, China) Chulmin OH (Korea Electronic Technology Institute, Korea) Tonghua PENG (TankeBlue Semiconductor Co., Ltd., China) Yufeng QIU (Global Energy Internet Institute, China) Mark RAMM (STR Group, Inc., Russia) Bo SHEN (Peking University, China) Guosheng SUN (Institute of Semiconductors, CAS, China) Tadatomo SUGA (Meishi University, Japan) Koukou SUU (ULVAC, Inc., Japan) Weihua TANG (Beijing University of Posts and Telecommunications, China) Jinyan WANG (Peking University, China) Junxi WANG (Institute of Semiconductors, CAS, China) Xuhui WEN (Institute of Electrical Engineering, CAS, China) Ke XU (Suzhou Nanowin Technology Co., Ltd., CAS, China) Kouji YAMAGUCHI (Fuji Electric Co., LTD., Japan) Anping ZHANG (Xi'an Jiaotong University, China) Degang ZHAO (Institute of Semiconductors, CAS, China) Q.
Online since: January 2014
Authors: Quan An Li, Hui Zhen Jiang, Lei Lei Chen, Xiao Ya Chen
Effects of Nd on Mechanical Properties of Magnesium Alloy AZ91
Huizhen Jianga, Quan-an Li, Xiaoya Chen, Leilei Chen
School of Materials Science and Engineering, Henan University of Science and technology,
Luoyang 471023, China
aemail: jhzjiayou@163.com
Keywords: Nd; Magnesium Alloy; Microstructure; Mechanical Propertie
Abstract.
The phase analysis of the alloys was completed by D8 Advance X-ray diffract meter (XRD).
Materials Science and Engineering A, Vol. 302(2001), p. 37
Materials Science Forum, Vol. 419-422(2003), p. 57
The phase analysis of the alloys was completed by D8 Advance X-ray diffract meter (XRD).
Materials Science and Engineering A, Vol. 302(2001), p. 37
Materials Science Forum, Vol. 419-422(2003), p. 57
Online since: June 2012
Authors: Pan Yu, Hui Yan
Research on layering model in the Service-oriented Network Management architecture
Hui Yan 1, a, Pan Yu 1,b
1school of computer science & engineering,xi'an technological university, xi'an, 710032
ahui79xi@163.com, bpanyu75@163.com
Keywords: layering model,service-oriented, active network,network management,active code.
Active Network [1] is a century in the mid 90 s American Defense Advanced Research Projects Agency aiming at the shortcomings of computer Network and puts forward a new type of Network solutions.
Programmable intermediate point for a new generation of network management provides advanced technical support.
At present, many organizations and institutions such as OIF (Optical Internetworking Forum) are in research the service-oriented network management of each aspect, but it is still in the initial stage, This design the active nets technology application to service-oriented network management is not but have the innovation, and also to have certain technology of the foundation.
Compared with the traditional network management model such as now mainstream model CMIP (Common Management Information Protocol), which is based on international standards organization ISO of the OSI layer open seven interconnection protocol, mainly used for OSI network system structure or the Internet engineering task group of SNMP (simple network management protocol), which is based on TCP/IP network management of the protocol.
Active Network [1] is a century in the mid 90 s American Defense Advanced Research Projects Agency aiming at the shortcomings of computer Network and puts forward a new type of Network solutions.
Programmable intermediate point for a new generation of network management provides advanced technical support.
At present, many organizations and institutions such as OIF (Optical Internetworking Forum) are in research the service-oriented network management of each aspect, but it is still in the initial stage, This design the active nets technology application to service-oriented network management is not but have the innovation, and also to have certain technology of the foundation.
Compared with the traditional network management model such as now mainstream model CMIP (Common Management Information Protocol), which is based on international standards organization ISO of the OSI layer open seven interconnection protocol, mainly used for OSI network system structure or the Internet engineering task group of SNMP (simple network management protocol), which is based on TCP/IP network management of the protocol.
Online since: August 2007
Authors: Sergey V. Dobatkin, Ondrej Stejskal, Jozef Zrník
It is
especially the ECAP that generates interest among investigators since it is one of the advanced
methods of severe plastic deformation used for metallic materials to produce massive billets with
ultrafine grained structure.
The engineering stressstrain curves were constructed.
The more advanced dynamic recovery and dynamic recrystallization are the processes, which actually participated in structure transformation process.
Sci.Forum, 63-72,1998, p. 284
Engineering stress-strain curves: a) solutioned AISI 1010 steel; b) ECAP AISI 1010 steel; c) ECAP AISI 1045 steel.
The engineering stressstrain curves were constructed.
The more advanced dynamic recovery and dynamic recrystallization are the processes, which actually participated in structure transformation process.
Sci.Forum, 63-72,1998, p. 284
Engineering stress-strain curves: a) solutioned AISI 1010 steel; b) ECAP AISI 1010 steel; c) ECAP AISI 1045 steel.
Online since: March 2017
Authors: Hisaki Watari, Shinichi Nishida, Toshio Haga, Kentaro Okamura
References
[1] T.Haga, K.Akitsu, S.Kumai, H.Watari, A single roll caster for aluminum alloy strip, Advanced Materials Research. 382(2012) 368-371
[2] T.Haga, K.Akitsu, S.Kumai, H.Watari, Roll casting of aluminum alloy strip by a single roll caster equipped with a scraper, Advanced Materials Research. 445(2012) 307-312
[3] T.Haga, K.Akitsu, K.Kamakura,S.Kumai, H.Watari, Single roll caster equipped with a scraper, Key Engineering Materials. 504-506(2012) 1243-1248
[4] T.Haga, H.Tsuge, T.Ishihara, S.Kumai, H.Watari, A vertical type tandem twin roll caster for clad strip equipped with a scraper, Key Engineering Materials. 611-612(2014) 623-628
Haga, Casting of Clad Strip by a Twin Roll Caster Materials, Science Forum. 794-796 (2014) 772-777
[2] T.Haga, K.Akitsu, S.Kumai, H.Watari, Roll casting of aluminum alloy strip by a single roll caster equipped with a scraper, Advanced Materials Research. 445(2012) 307-312
[3] T.Haga, K.Akitsu, K.Kamakura,S.Kumai, H.Watari, Single roll caster equipped with a scraper, Key Engineering Materials. 504-506(2012) 1243-1248
[4] T.Haga, H.Tsuge, T.Ishihara, S.Kumai, H.Watari, A vertical type tandem twin roll caster for clad strip equipped with a scraper, Key Engineering Materials. 611-612(2014) 623-628
Haga, Casting of Clad Strip by a Twin Roll Caster Materials, Science Forum. 794-796 (2014) 772-777
Online since: June 2008
Authors: Rintaro Ueji, Kazutoshi Kunishige, Kenji Harada, Akihiko Takemura
Strain Rate Sensitivity of 31Mn-3Al-3Si TWIP steel
with Partially Recrystallized Fine Grained Structure
Rintaro Uejia, Kenji Haradab, Akihiko Takemurac and Kazutoshi Kunishiged
Department of Advanced Materials Science, Faculty of Engineering, Kagawa University,
2217-20, Hayashi-cho, Takamatsu, Kagawa, 761-0396, Japan.
Introduction TWIP (twinning induced plasticity) steel is one of the advanced steels for automotive use because of the attractive mechanical properties at high strain rates.
ε σ &ln ln ∂ ∂ =m (1) ∂ ∂ = σ ε&ln * TMkv B (2) where Bk , T and M are Boltzmann constant, temperature and Taylor factor (3.06 for the FCC metals[12]), respectively. m-value is well-known as engineering parameter; whereas the activation volume makes it easy to discuss the strain rate sensitivity with dislocation theory.
Forum Vol.561-565 (2007) p.107 [8] R.
Introduction TWIP (twinning induced plasticity) steel is one of the advanced steels for automotive use because of the attractive mechanical properties at high strain rates.
ε σ &ln ln ∂ ∂ =m (1) ∂ ∂ = σ ε&ln * TMkv B (2) where Bk , T and M are Boltzmann constant, temperature and Taylor factor (3.06 for the FCC metals[12]), respectively. m-value is well-known as engineering parameter; whereas the activation volume makes it easy to discuss the strain rate sensitivity with dislocation theory.
Forum Vol.561-565 (2007) p.107 [8] R.
Online since: January 2010
Authors: Wulf Pfeiffer, Johannes Wenzel
Frey: Materials Science Forum, Trans Tech Publications, Switzerland, Vols.
404-407, (2002), pp. 101-108
Frey: Ceramic forum international Cfi/Ber.
Köttritsch: SKF Polycer - New competitive engineering ceramics for advanced bearing applications.
Frey: Ceramic forum international Cfi/Ber.
Köttritsch: SKF Polycer - New competitive engineering ceramics for advanced bearing applications.
Online since: March 2008
Authors: R. Daniel, C. Mitterer, Klaus J. Martinschitz, C. Kirchlechner, G. Maier, Jozef Keckes
Keckes
1,a
1
Erich Schmid Institute for Materials Science, Austrian Academy of Sciences; Department of
Materials Physics, University of Leoben and Materials Center Leoben, Austria
2
Department of Physical Metallurgy and Materials Testing, University of Leoben and ChristianDoppler
Laboratory for Advanced Coatings, University of Leoben, Austria.
The optimization resides primarily in the engineering of coating nano-structure, residual stress state, interface properties and substrate pre-treatment [5-8].
Forum Vol. 524-525 (2006), p. 193 [14] C.
Forum Vol. 404-4 (2002), p. 127
The optimization resides primarily in the engineering of coating nano-structure, residual stress state, interface properties and substrate pre-treatment [5-8].
Forum Vol. 524-525 (2006), p. 193 [14] C.
Forum Vol. 404-4 (2002), p. 127
Online since: July 2005
Authors: H. Tsuda, T. Uchiyama, R. Oba, Y. Sunayama, Dong Ying Ju
., Hamamatsu-nishi, 1432-8611, Japan
2
Department of Material Science and Engineering, Saitama Institute of Technology,
Fusaiji 1690, Okabe, 369-0293, Saitama, Japan
3
Advanced Science Institute, Saitama Institute of Technology, Japan
a
ju@sit.ac.jp
Keywords: Water-jet, cavitation, Peening, Residual Stress, XRD and Surface Modification
Abstract.
Forum, Trans.
Forum, Trans.
Forum, Trans.
Forum, Trans.
Online since: December 2021
Authors: Andrey N. Dmitriev, Galina Yu. Vitkina, Roman V. Alektorov, Elena A. Vyaznikova, Alexey B. Shubin
Chesnokov, Methodical basis of investigation of influence of the iron ore materials and coke metallurgical characteristics on the blast furnace smelting efficiency, Advanced Materials Research, 602-604 (2013), 365-375
Vyaznikova, Processing of agglomerates and pellets containing various amounts of titanium dioxide, Materials Science Forum, 1026 (2021), 102-108
Vyaznikova, Physical-chemical and pyrometallurgical estimation of processing of complex ores with extraction of iron, vanadium, titanium, Defect and Diffusion Forum, 407 (2021), 41-50
Alektorov, Study of the main metallurgical characteristics of iron ore raw materials (sinter and pellets), IOP Conference Series: Materials Science and Engineering, 966 (2020), 347-362
Vyaznikova, Processing of agglomerates and pellets containing various amounts of titanium dioxide, Materials Science Forum, 1026 (2021), 102-108
Vyaznikova, Physical-chemical and pyrometallurgical estimation of processing of complex ores with extraction of iron, vanadium, titanium, Defect and Diffusion Forum, 407 (2021), 41-50
Alektorov, Study of the main metallurgical characteristics of iron ore raw materials (sinter and pellets), IOP Conference Series: Materials Science and Engineering, 966 (2020), 347-362