High velocity compaction of ferrous powder

Cailiao Yanjiu Xuebao/Chinese Journal of Materials Research

Volumn 22, Issue 6, 2008, Pages 589-592

  Wang, Jianzhong ^a   Qu, Xuanhui ^a   Yin, Haiqing ^a   Zhou, Shengyu ^a  

^a UNIVERSITY OF SCIENCE AND TECHNOLOGY BEIJING   (China)

Author keywords

Green density; High velocity compaction; Impact energy; PM; Synthesizing and processing technics; Withdraw force

Indexed keywords

FATIGUE CRACK PROPAGATION; PERMANENT MAGNETS; VELOCITY;

GREEN DENSITY; HIGH VELOCITY COMPACTION; IMPACT ENERGY; PM; SYNTHESIZING AND PROCESSING TECHNICS; WITHDRAW FORCE;

COMPACTION;

EID: 58249136620     PISSN: 10053093     EISSN: None     Source Type: Journal    
DOI: None     Document Type: Article

References (18)

1. F. Richard, HVC punches PM to new mass production limits, Metal Powder Report, 57(9), 26(2002)
2. R.L. Orban, New research directions in powder metallurgy, Romanian Reports in Physics, 56(3), 505(2004)
3. Chi Yue, Guo Shiju, Meng Fei, Yang Xia, Zhang Heng, Lian Yudong, High velocity compaction in powder metallurgy, Powder Metallurgy Industry, 15(6), 41(2005)
4. Shen Yuanxun, Xiao Zhiyu, Wen Liping, Pan Guoru, Li Yuanyuan, Principle, characteristics and status of high velocity compaction in powder metallurgy, Powder Metallurgy Industry, 16(3), 19(2006)
5. Zhou Shengyu, Yin Haiqing, Qu Xuanhui, Research status of high velocity compaction technology in powder metallurgy, Materials Review, 21(7), 79(2007)
6. P. Skoglund, in 2001 International conference on Power Transmission Components, High density PM components by high velocity compaction, edited by A.Volker, Chu Chiulung, F. William, J. Jandeska, (Ypsilanti, Metal Powder Industries Federation, 2001) p.16
7. P. Skoglund, High density PM parts by high velocity compaction, Powder Metallurgy, 44(3), 199(2001)
8. P. Skoglund, in Advance in Powder Metallurgy & Particulate Materials-2002, High-Density PM Components by High Velocity Compaction, edited by A.Volker, Chu Chiulung, F.William, J.Jandeska, (New Jersey, Metal Powder Industries Federation, 2002) p.1
9. E. Caroline, Höganäs promotes potential of high velocity compaction, Metal Powder Report, 56(9), 6(2001)
10. F. Dore, L. Lazzarotto, S. Bourdin, High velocity compaction: overview of materials, applications and potential, Materials Science Forum, 534-536, 293(2007)
11. E. Torsten, L. Ppetri, Residual stresses in green bodies of steel powder after conventional and high speed compaction, Materials Science Forum, 407(404), 77(2002)
12. B. Barendvanden, F. Christer, L. Tomas, Industrial implementation of high velocity compaction for improved properties, Powder Metallurgy, 49(2), 107(2006)
13. P. Jonsèn, H-A. Häggblad, L. Troive, J. Furuberg, S. Allroth, P. Skoglund, Green body behavior of high velocity pressed metal powder, Materials Science Forum, 534-536, 289(2007)
14. C. Aslund, in Euro PM 2004 Conference Proceedings, High velocity compaction (HVC) of stainless steel gas atomized powder, edited by D.Herbert, R.Raimund, (Shrewsbury UK, EPMA, 2004) p.533
15. A. Bruska, S. Bengt, K. Leif, Development of a high-velocity compaction process for polymer powders, Polymer Testing, 24(4), 909(2005)
16. D. Jauffrès, O. Lame, G. Vigier, F. Dorè, Microstructural origin of physical and mechanical properties of ultra high molecular weight polyethylene processed by high velocity compaction, Polymer, 48(21), 6374(2007)
17. Huang Peiyun, Principles of Powder Metallurgy (Beijing, The press of Metallurgical Industry, 1997) p.170
18. Wu Chengyi, Zhang Liying, Mechanical principles of Powder Forming (Beijing, The press of Metallurgical Industry, 2003) p.6