Powder metallurgy approach for production of innovative radioactive waste forms

Dennis D. Keiser; D. C. Crawford; S. Bhaduri; J. G. Huang; O. N. Senkov; F. H. Froes; C. F. Yolton

Powder metallurgy approach for production of innovative radioactive waste forms

Dennis D. Keiser
, D. C. Crawford
, S. Bhaduri
, J. G. Huang
, O. N. Senkov
, F. H. Froes
, C. F. Yolton

Nuclear Science & Technology

Research output: Contribution to conference › Paper › peer-review

Abstract

The feasibility of employing a powder metallurgy approach to produce a single, metal-matrix composite waste form rather than two separate forms consisting of a cast metal alloy ingot (such as Type 316SS+Zr) and a ceramic glass-bonded zeolite Na₁₂(AlO₂)₁₂(SiO₂)₁₂ has been investigated. This powder metallurgy approach consists of mixing the powder of the two separate waste forms together followed by compaction by hot isostatic pressing. Such a radioactive waste form would have the potential advantages of reducing the total waste volume, good thermal conductivity, stability, and surfaces with limited oxide layer formation.

Original language	English
Pages	112-119
Number of pages	8
State	Published - 1997
Event	Proceedings of the 1997 5th International Conference on Advanced Particulate Materials & Processes - West Palm Beach, FL, USA Duration: Apr 7 1997 → Apr 9 1997

Conference

Conference	Proceedings of the 1997 5th International Conference on Advanced Particulate Materials & Processes
City	West Palm Beach, FL, USA
Period	04/7/97 → 04/9/97

Cite this

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title = "Powder metallurgy approach for production of innovative radioactive waste forms",

abstract = "The feasibility of employing a powder metallurgy approach to produce a single, metal-matrix composite waste form rather than two separate forms consisting of a cast metal alloy ingot (such as Type 316SS+Zr) and a ceramic glass-bonded zeolite Na12(AlO2)12(SiO2)12 has been investigated. This powder metallurgy approach consists of mixing the powder of the two separate waste forms together followed by compaction by hot isostatic pressing. Such a radioactive waste form would have the potential advantages of reducing the total waste volume, good thermal conductivity, stability, and surfaces with limited oxide layer formation.",

author = "Keiser, \{Dennis D.\} and Crawford, \{D. C.\} and S. Bhaduri and Huang, \{J. G.\} and Senkov, \{O. N.\} and Froes, \{F. H.\} and Yolton, \{C. F.\}",

year = "1997",

language = "English",

pages = "112--119",

note = "Proceedings of the 1997 5th International Conference on Advanced Particulate Materials \& Processes ; Conference date: 07-04-1997 Through 09-04-1997",

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TY - CONF

T1 - Powder metallurgy approach for production of innovative radioactive waste forms

AU - Keiser, Dennis D.

AU - Crawford, D. C.

AU - Bhaduri, S.

AU - Huang, J. G.

AU - Senkov, O. N.

AU - Froes, F. H.

AU - Yolton, C. F.

PY - 1997

Y1 - 1997

N2 - The feasibility of employing a powder metallurgy approach to produce a single, metal-matrix composite waste form rather than two separate forms consisting of a cast metal alloy ingot (such as Type 316SS+Zr) and a ceramic glass-bonded zeolite Na12(AlO2)12(SiO2)12 has been investigated. This powder metallurgy approach consists of mixing the powder of the two separate waste forms together followed by compaction by hot isostatic pressing. Such a radioactive waste form would have the potential advantages of reducing the total waste volume, good thermal conductivity, stability, and surfaces with limited oxide layer formation.

AB - The feasibility of employing a powder metallurgy approach to produce a single, metal-matrix composite waste form rather than two separate forms consisting of a cast metal alloy ingot (such as Type 316SS+Zr) and a ceramic glass-bonded zeolite Na12(AlO2)12(SiO2)12 has been investigated. This powder metallurgy approach consists of mixing the powder of the two separate waste forms together followed by compaction by hot isostatic pressing. Such a radioactive waste form would have the potential advantages of reducing the total waste volume, good thermal conductivity, stability, and surfaces with limited oxide layer formation.

UR - https://www.scopus.com/pages/publications/0031360484

M3 - Paper

AN - SCOPUS:0031360484

SP - 112

EP - 119

T2 - Proceedings of the 1997 5th International Conference on Advanced Particulate Materials & Processes

Y2 - 7 April 1997 through 9 April 1997

ER -

Powder metallurgy approach for production of innovative radioactive waste forms

Abstract

Conference

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