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Online since: March 2012
Authors: Worapong Boonchouytan, Prapas Muangjunburee, Thanate Ratanawilai
Burger: Materials Science and Engineering.
Jung: Materials Science and Engineering.
Feng: Material Science and Engineering.
Nakata: Material Science and Engineering.
Mishra: Material Science and Engineering.
Jung: Materials Science and Engineering.
Feng: Material Science and Engineering.
Nakata: Material Science and Engineering.
Mishra: Material Science and Engineering.
Online since: September 2025
Authors: Constantin Csato, Florian Krippendorf, Michael Rueb, Hitesh Jayaprakash, Robert Koch
In: Materials Science Forum 1062 (2022), pp. 131–135
In: Materials Science Forum 858 (2016), pp. 531–534
In: Materials Science and Engineering: B 46.1 (1997), pp. 349–356
In: Materials Science Forum 897 (2017), pp. 403–406
In: Advanced Materials Research 126-128 (2010), pp. 423–428
In: Materials Science Forum 858 (2016), pp. 531–534
In: Materials Science and Engineering: B 46.1 (1997), pp. 349–356
In: Materials Science Forum 897 (2017), pp. 403–406
In: Advanced Materials Research 126-128 (2010), pp. 423–428
Online since: October 2006
v
PREFACE
Manufacturing would be considered as the most wide, interdisciplinary and controversial field of
Engineering.
This Volume of Materials Science Forum titled Advances in Materials Processing Technologies reports the latest developments and original applications, theoretical researches and case studies in one of the most relevant fields in manufacturing engineering: Materials Processing.
The papers included in this issue have been selected from those presented to the Materials Processing Symposium of the First Manufacturing Engineering Society International Conference (MESIC), hold in Calatayud (Spain) in September 2005.
We hope that all the papers here published can favour the future development of Manufacturing, the Engine of the Engineering.
This Volume of Materials Science Forum titled Advances in Materials Processing Technologies reports the latest developments and original applications, theoretical researches and case studies in one of the most relevant fields in manufacturing engineering: Materials Processing.
The papers included in this issue have been selected from those presented to the Materials Processing Symposium of the First Manufacturing Engineering Society International Conference (MESIC), hold in Calatayud (Spain) in September 2005.
We hope that all the papers here published can favour the future development of Manufacturing, the Engine of the Engineering.
Online since: June 2011
Authors: Yun Bo Xu, Wei Hua Sun, Di Wu, Guo Dong Wang, Zi Yong Hou, She E Hu
Microstructure and Mechanical Properties of ULCB Steels affected by advanced TMCP Technology
Ziyong HOU1, a, *, Yunbo XU1, b, Di WU1, c, Wei-hua SUN 2,
She-e HU 2 and Guodong WANG1, d
1State Key Laboratory of Rolling and Automation, Northeastern University,
Shenyang, Liaoning Province, 110819, CHINA
2Technical Center, Jinan Iron and Steel Group Company, Jinan 117000, CHINA,
a,*houzy525406@163.com, bxuyunbo@mail.neu.edu.cn, cwudi@mail.neu.edu.cn, dwanggd@mail.neu.edu.cn
Keywords: microstructure; ultra-high strength and toughness; advanced TMCP Technology; ULCB Steels.
In this paper, a novel high strength steel plate of HSLA type containing Cu with 910MPa yield strength and 1163MPa tensile strength has been developed using an advanced TMCP (thermo-mechanical control processing) technology.
From the engineering stress-strain curves yield strength (YS), ultimate tensile strength (UTS) and uniform elongation were obtained.
(1) Using an advanced TMCP technology, an ultra-high strength steel with the corresponding tensile strength, yield strength, yield ratio, elongation and impact value at -90 ℃ are 1163 MPa, 910 MPa, 0.78, 16.8.0% and 154 J, respectively
Forum Vol. 638-642(2010), p. 3188
In this paper, a novel high strength steel plate of HSLA type containing Cu with 910MPa yield strength and 1163MPa tensile strength has been developed using an advanced TMCP (thermo-mechanical control processing) technology.
From the engineering stress-strain curves yield strength (YS), ultimate tensile strength (UTS) and uniform elongation were obtained.
(1) Using an advanced TMCP technology, an ultra-high strength steel with the corresponding tensile strength, yield strength, yield ratio, elongation and impact value at -90 ℃ are 1163 MPa, 910 MPa, 0.78, 16.8.0% and 154 J, respectively
Forum Vol. 638-642(2010), p. 3188
Online since: September 2015
Authors: Dipti Samantaray, Santosh Kumar, Utpal Borah, Shaju K. Albert, A.K. Bhaduri, B. Aashranth
Microstructure Mapping: An approach to quantitative interpretation of microstructural evolution in Indian Fast Reactor Advanced Clad material during hot forging
Aashranth Ba*, Santosh Kumarb, Dipti Samantarayc, Shaju K Albertd,
Utpal Borahe and AK Bhadurif
Materials Technology Division, Indira Gandhi Centre for Atomic Research, Kalpakkam 603102, India
aaashranthb@igcar.gov.in,,bsantosh@igcar.gov.in,cdeepsaroj@igcar.gov.in,dshaju@igcar.gov.in, eborah@igcar.gov.in, fbhaduri@igcar.gov.in
Keywords: Austenitic stainless steel, hot forging, microstructure, instability map, µ-map
Abstract
In this paper, microstructural evolution of Indian Fast Reactor Advanced Clad (IFAC-1) steel during thermo-mechanical processing has been investigated.
The present study aims to provide a multi-parameter, quantitative interpretation of microstructural evolution in Indian Fast Reactor Advanced Clad (IFAC-1) steel.
Forum. 584-586 (2008) 673-678
Jayakumar, Thermal stability and thermal property characterisation of Fe–14.4Cr–15.4Ni–2.4Mo–2.36Mn–0.25Ti–1.02Si–0.042C–0.04P–0.005B (mass%) austenitic stainless steel (Alloy D9I), Nuclear Engineering and Design 255 (2013) 86– 96.
The present study aims to provide a multi-parameter, quantitative interpretation of microstructural evolution in Indian Fast Reactor Advanced Clad (IFAC-1) steel.
Forum. 584-586 (2008) 673-678
Jayakumar, Thermal stability and thermal property characterisation of Fe–14.4Cr–15.4Ni–2.4Mo–2.36Mn–0.25Ti–1.02Si–0.042C–0.04P–0.005B (mass%) austenitic stainless steel (Alloy D9I), Nuclear Engineering and Design 255 (2013) 86– 96.
Online since: July 2013
ICMSM2013 provided a forum
for academic scientists, leading engineers, industry researchers and scholar students to exchange
and share their experiences and research results.
ICMSM2013 aims to cover the recent advancement and trends in the area of new materials, advanced materials, advanced manufacturing technologies, and manufacturing systems and automation to facilitate knowledge sharing and networking interactions on emerging trends and new challenges.
The editor hopes this book will provide readers a broad overview of the latest advances on material science and manufacturing technologies.
ICMSM2013 aims to cover the recent advancement and trends in the area of new materials, advanced materials, advanced manufacturing technologies, and manufacturing systems and automation to facilitate knowledge sharing and networking interactions on emerging trends and new challenges.
The editor hopes this book will provide readers a broad overview of the latest advances on material science and manufacturing technologies.
Online since: January 1991
This capability accelernres material science to advance unlimitedly.
There is more room for REM to participate those advanced technology.
This requirement appeals for advanced processing technology to extract individual oxide or element.
As it is well recognised the importance of technology that could bring invaluable added value to natural resources, the Departmern of Mining and Metallurgical Engineering, Faculty of Engineering, Prince of Songkla University decides to organise this conference.
Boonsom SIRIBUMRUNGSUKHA Head of Department of Mining and Metallurgical Engineering Faculty of Engineering, Prince of Songkla University
There is more room for REM to participate those advanced technology.
This requirement appeals for advanced processing technology to extract individual oxide or element.
As it is well recognised the importance of technology that could bring invaluable added value to natural resources, the Departmern of Mining and Metallurgical Engineering, Faculty of Engineering, Prince of Songkla University decides to organise this conference.
Boonsom SIRIBUMRUNGSUKHA Head of Department of Mining and Metallurgical Engineering Faculty of Engineering, Prince of Songkla University
Online since: December 2004
Authors: Chuan Zhen Huang, Xing Ai, Chong Hai Xu
Ai
2,c
1
Department of Mechanical and Electronic Engineering, Shandong Institute of Light Industry, Jinan
250100, P R China
2
School of Mechanical Engineering, Shandong University, Jinan 250061, P R China
a
xch@sdili.edu.cn, bchuanzhenh@sdu.edu.cn, caixing@sdu.edu.cn
Keywords: Ceramic tool material, Thermal shock resistance, Material design, Machining
Abstract.
The impact number in Fig.2 indicates the number of Advances in Materials Manufacturing Science and Technology 24 intermittent cuts that can be sustained prior to fracture.
Conclusions With the optimum results achieved from the proposed model for the compositional design of the ceramic tool materials, an advanced 15.8%vol(W,Ti)C/24.8%volSiC/Al2O3 multiphase composite ceramic tool material is fabricated with expected thermal shock resistance of 68% higher than that of the pure alumina ceramic.
Lucchini: Wear Vol. 208 (1997), p. 67 Materials Science Forum Vols. *** 25 [3] S.
Richerson: Modern Ceramic Engineering (Marcel Dekker Publication, USA 1982) [15] H.D.
The impact number in Fig.2 indicates the number of Advances in Materials Manufacturing Science and Technology 24 intermittent cuts that can be sustained prior to fracture.
Conclusions With the optimum results achieved from the proposed model for the compositional design of the ceramic tool materials, an advanced 15.8%vol(W,Ti)C/24.8%volSiC/Al2O3 multiphase composite ceramic tool material is fabricated with expected thermal shock resistance of 68% higher than that of the pure alumina ceramic.
Lucchini: Wear Vol. 208 (1997), p. 67 Materials Science Forum Vols. *** 25 [3] S.
Richerson: Modern Ceramic Engineering (Marcel Dekker Publication, USA 1982) [15] H.D.
Online since: December 2004
Authors: Chuan Zhen Huang, Ping Zhao, P.Q. Guo
Materials Science Forum Vols. *** (2004) pp.122-126
online at http://scientific.net
2004 Trans Tech Publications, Switzerland
Cutting Force Model for Contour Surface Machining of Gear Indexing
Cam with Flat End Milling
P.Q.
Zhao 2,c 1 Centre for Advanced Jet Engineering Technologies, School of Mechanical Engineering, Shandong University, Shandong 250061, China 2 School of Mechanical Engineering, Jinan University, Shandong 250022, China a yjs_gpq@ujn.edu.cn, bchuanzhenh@sdu.edu.cn, czhaoping2010@163.com Keywords: Cutting force model, Contour machining, Gear indexing cam, Flat end milling Abstract.
Gear Indexing Cam and Its Machining Process Materials Science Forum Vols. *** 123 Fig.1 Gear Indexing Cam and Its Machining Process As shown in Fig.1, indexing disc rotates around axis O while cam runs around its axis.
The position vector ir for a point on the edge i that corresponds to the angle iψ is shown as follows. 3i2it1iti sin cos ee e r h R R + + = ψ ψ (2) ω cam θ roller indexing disc cam stock cutter fω fθ O O a Advances in Materials Manufacturing Science and Technology 124 Where 1e , 2e , and 3e are the unit vectors pointed in the directions of the ix , iy and iz respectively, ih is the elevation of a point on the edge i . ih is proportional to itψR .
x y z tR tω ϕ ih i0β iψ ir r 1x 1y 1z iz ix iy T A R 1O O Materials Science Forum Vols. *** 125 [ ] [ ]T T kkdiaghtfk ART FFFF ),,1()( ar act art ∆=∆∆∆=∆ (9) where tF∆ is the tangential local cutting force, rF∆ is the radial axial cutting force, aF∆ is the axial cutting force. tk , rk and ak are the cutting pressure constant. )(ctf is the uncut chip thickness. ah∆ is axial dimension of differential disc.
Zhao 2,c 1 Centre for Advanced Jet Engineering Technologies, School of Mechanical Engineering, Shandong University, Shandong 250061, China 2 School of Mechanical Engineering, Jinan University, Shandong 250022, China a yjs_gpq@ujn.edu.cn, bchuanzhenh@sdu.edu.cn, czhaoping2010@163.com Keywords: Cutting force model, Contour machining, Gear indexing cam, Flat end milling Abstract.
Gear Indexing Cam and Its Machining Process Materials Science Forum Vols. *** 123 Fig.1 Gear Indexing Cam and Its Machining Process As shown in Fig.1, indexing disc rotates around axis O while cam runs around its axis.
The position vector ir for a point on the edge i that corresponds to the angle iψ is shown as follows. 3i2it1iti sin cos ee e r h R R + + = ψ ψ (2) ω cam θ roller indexing disc cam stock cutter fω fθ O O a Advances in Materials Manufacturing Science and Technology 124 Where 1e , 2e , and 3e are the unit vectors pointed in the directions of the ix , iy and iz respectively, ih is the elevation of a point on the edge i . ih is proportional to itψR .
x y z tR tω ϕ ih i0β iψ ir r 1x 1y 1z iz ix iy T A R 1O O Materials Science Forum Vols. *** 125 [ ] [ ]T T kkdiaghtfk ART FFFF ),,1()( ar act art ∆=∆∆∆=∆ (9) where tF∆ is the tangential local cutting force, rF∆ is the radial axial cutting force, aF∆ is the axial cutting force. tk , rk and ak are the cutting pressure constant. )(ctf is the uncut chip thickness. ah∆ is axial dimension of differential disc.
Online since: July 2015
Preface
The research on the advances in manufacturing and materials engineering has been playing a
vital role and has become indispensible for the growth of any nation.
Therefore, the main objective of organizing this conference is to provide an international technical forum for engineers, academicians, scientists and researchers alike to present results of recent research in the field of manufacturing and materials engineering.
The International Conference on Advances in Manufacturing and Materials Engineering (ICAMME'14) has been well attended by local and international participants from all over the world.
The aim of the conference is to address and cover a wide spectrum area of manufacturing and materials engineering.
It is expected that this proceeding will be a good archive for research findings and becoming reference and direction for future research in the field of manufacturing and materials engineering.
Therefore, the main objective of organizing this conference is to provide an international technical forum for engineers, academicians, scientists and researchers alike to present results of recent research in the field of manufacturing and materials engineering.
The International Conference on Advances in Manufacturing and Materials Engineering (ICAMME'14) has been well attended by local and international participants from all over the world.
The aim of the conference is to address and cover a wide spectrum area of manufacturing and materials engineering.
It is expected that this proceeding will be a good archive for research findings and becoming reference and direction for future research in the field of manufacturing and materials engineering.