High velocity compaction of ferrous powder

Powder Technology

Volumn 192, Issue 1, 2009, Pages 131-136

  Wang, J Z ^a   Qu, X H ^a   Yin, H Q ^a   Yi, M J ^a   Yuan, X J ^a  

^a UNIVERSITY OF SCIENCE AND TECHNOLOGY BEIJING   (China)

Author keywords

Green density; High velocity compaction (HVC); Iron powder; Powder metallurgy (PM); Shock wave

Indexed keywords

CROSS-SECTION IMAGES; EJECTION FORCES; GREEN COMPACTS; GREEN DENSITY; GREEN STRENGTHS; HIGH VELOCITY COMPACTION (HVC); IMPACT VELOCITIES; SEM; SPRING BACKS; UNIVERSAL TESTING MACHINES;

ALUMINUM POWDER METALLURGY; COMPACTION; COMPUTER CONTROL SYSTEMS; COMPUTER TESTING; IMPACT STRENGTH; IRON; IRON POWDER; IRON POWDER METALLURGY; METALLURGY; PERMANENT MAGNETS; SCANNING ELECTRON MICROSCOPY; SHOCK WAVES; STEEL POWDER METALLURGY; VELOCITY; WAVES;

POWDERS;

EID: 61849173529     PISSN: 00325910     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.powtec.2008.12.007     Document Type: Article

References (18)

1. Hauer F.R. HVC punches PM to new mass production limits. Metal Powder Report 57 (2002) 26-30
2. Grant C.E. Höganäs promotes potential of high velocity compaction. Metal Powder Report 56 (2001) 6
3. Skoglund P., Kejzelman M., and Hauer I. Proceedings of the 2002 World Congress on Powder Metallurgy and Particulate Materials, USA (2002) 85
4. Doremus P., Duwa F., Francois P., Puente G., and Allibert C.H. Proceedings of the 2002 World Congress on Powder Metallurgy and Particulate Materials, USA (2002) 96
5. Skagerstrand A. Proceedings of the 2002 World Congress on Powder Metallurgy and Particulate Materials, USA (2002) 111
6. Jonsén P., Häggblad H.Å., Troive L., Furuberg J., Allroth S., and Skoglund P. Green body behavior of high velocity pressed metal powder. Materials Science Forum 534-536 (2007) 289-292
7. Sethi G., Hauck E., and German R.M. High velocity compaction compared with conventional compaction. Materials Science and Technology 22 (2006) 955-959
8. Skoglund P. Advance in Powder Metallurgy & Particulate Materials-2002, USA (2002) 1
9. Aslund C. Euro PM 2004 Conference Proceedings, UK (2004) 533
10. Ericsson T., and Luukkonen P. Residual stresses in green bodies of steel powder after conventional and high speed compaction. Materials Science Forum 407 (2002) 77-82
11. Souriou D., Goeuriot P., Bonnefoy O., Thomas G., Drapier S., Bourdin S., and Lazzarotto L. Comparison of conventional and high velocity compaction of alumina powders. Advances in Science and Technology 45 (2006) 893-898
12. Azhdar B., Stenberg B., and Kari L. Determination of springback gradient in the die on compacted polymer powders during high-velocity compaction. Polymer Testing 25 (2006) 114-123
13. Jauffrès D., Lame O., Vigier G., and Doré F. Microstructural origin of physical and mechanical properties of ultra high molecular weight polyethylene processed by high velocity compaction. Polymer 48 (2007) 6374-6383
14. Hokamoto K., Tanaka S., Fujita M., Itoh S., Meyers M.A., and Chen H.-C. High temperature shock consolidation of hard ceramic powders. Physica B: Condensed Matter 239 (1997) 1-5
15. Wang L.L. Foundation of Stress Waves (2005) 20
16. Li Y.Y., Nagi T.L., Zhang D.T., Long Y., and Xia W. Effect of die wall lubrication on warm compaction powder metallurgy. Journal of Materials Processing Technology 129 (2002) 354-358
17. Wang P.X. Powder Metallurgy (1997) 142
18. Shen Y.X., Xiao Z.Y., Wen L.P., Pan G.R., and Li Y.Y. Principle, characteristics and status of high velocity compaction in powder metallurgy. Powder Metallurgy Industry 16 (2006) 19-23