Room Temperature Uniaxial Die Compaction Behavior of Titanium Sponge Granules

Canadian Institute of Mining, Metallurgy and Petroleum
Amir Hadadzadeh Mark A. Whitney Mary A. Wells Stephen F. Corbin
Organization:
Canadian Institute of Mining, Metallurgy and Petroleum
Pages:
11
File Size:
1209 KB
Publication Date:
Jan 1, 2015

Abstract

In an effort to produce less expensive titanium sheet via roll compaction, the room temperature compaction behavior of titanium sponge granules (99.9% pure, Alfa Aesar) was studied under uniaxial die compaction. The titanium sponge granules were irregularly shaped, with a high degree of porosity, having a maximum particle size of 3mm. Manual die compaction was conducted using a Carver hand press, in a hardened tool steel die with 12.61 mm inner diameter. Uniaxial die compaction in a hardened tool steel die with 9.50 mm inner diameter was also performed using a Gleeble® 3500 thermal-mechanical simulation testing system which allowed for controlled deformation rates. Compaction behavior of the titanium sponge was studied using well-established compaction equations (Heckel, Panelli-Filho and Ge), and it was observed that compaction rate influences the room temperature compaction behavior of this material. The Heckel analysis of the titanium sponge showed that the behavior of the material could be analyzed in two compaction pressure regimes. In the low pressure regime (<100 MPa) the granules exhibited high compressibility, while; in the high pressure regime (>100 MPa) lower compressibility of the titanium sponge was observed.
Citation

APA: Amir Hadadzadeh Mark A. Whitney Mary A. Wells Stephen F. Corbin  (2015)  Room Temperature Uniaxial Die Compaction Behavior of Titanium Sponge Granules

MLA: Amir Hadadzadeh Mark A. Whitney Mary A. Wells Stephen F. Corbin Room Temperature Uniaxial Die Compaction Behavior of Titanium Sponge Granules. Canadian Institute of Mining, Metallurgy and Petroleum, 2015.

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