References
1. Yamashita T, Kuramoto K-I, Akie H, Nakano Y, Nitani N, Nakamura T, Kusagaya K, Ohmichi
T (2002) Rock-like oxide fuels and their burning in LWRs. J Nucl Sci Technol 39(8):865–871
2. Miwa S, Osaka M, Usuki T, Sato I, Tanaka K, Hirosawa T, Yoshimachi H, Onose S (2011)
MgO-based inert matrix fuel for a minor actinide recycling in a fast reactor cycle. In: Proceedings of Global 2011, Makuhari, Japan, Dec 11–16, 2011
3. Messaoudi N, Tommasi J (2002) Fast burner reactor devoted to minor actinide incineration.
Nucl Technol 137:84–96
4. Hill RH, Khalil HS (2000) Physics studies for sodium cooled ATW blanket. In: Proceedings of
the IAEA technical committee meeting on core physics and engineering aspects of emerging
nuclear energy systems for energy generation and transmutation. Argonne National Laboratory
5. Beller DE, Van Tuyle GJ, Bennett D, Lawrence G, Thomas K, Pasamehtoglu K, Li N, Hill D,
Laidler J, Finck P (2001) The U.S. accelerator transmutation of waste program. Nucl Instrum
Methods Phys Res A 463:468–486
6. Heidet F, Kim TK, Taiwo TA (2013) Multiple-stage fuel cycle options based on subcritical
systems. In: Proceedings of the 2013 ANS Winter Meeting, Washington, DC, November 10–
14, 2013
7. Meyer MK et al (2001) Fuel design for the U.S. accelerator driven transmutation system.
Nuclear Application in the New Millennium (accApp-ADITTA ‘01), Reno, Nov 2001
8. Carmack WJ et al (2009) Metallic fuels for advanced reactor. J Nucl Mater 392:139–150
9. Stevenson CE (1987) The EBR-II fuel cycle story. American Nuclear Society, La Grange Park,
Illinois, USA
10. Arie K, Kawashima M, Araki Y, Sato M, Mori K, Nakayama Y, Ishiguma K, Fujiie Y (2007)
The sustainable system for global nuclear energy utilization. In: GLOBAL 2007, Boise, ID,
September 9–13, 2007
11. Arie K, Kawashima M, Oomori T, Okita T, Kotake S, Fujiie Y (2013) Role of fast reactor and
its cycle to reduce nuclear waste burden, In: GLOBAL 2013, Salt Lake City, UT, September
29–October 3, 2013
12. Hayes S et al (2009) Status of transuranic bearing metallic fuel development. In: Global 2009,
Paris, September 6–11, 2009
13. OECD-NEA (2000) Nuclear Energy Agency, Organisation for Economic and Co-operation
Development (NEA, OECD), Paris, France
14. Derstine KL (1984) DIF3D: a code to solve one-,two- and three-dimensional finite difference
diffusion theory problems. ANL-82-64, Argonne National Laboratory
15. Hazama T et al (2009) SLAROM-UF: ultra fine group cell calculation code for fast reactor:
version 20090113. JAEA-Review 2009-003
16. Shibata K, Iwamoto O, Nakagawa T, Iwamoto N, Ichihara A, Kunieda S, Chiba S, Furutaka K,
Otuka N, Ohsawa T, Murata T, Matsunobu H, Zukeran A, Kamada S, Katakura J (2011)
JENDL-4.0: a new library for nuclear science and engineering. J Nucl Sci Technol 48(1):1–30
17. Kittel JH et al (1971) Plutonium and plutonium alloys as nuclear fuel materials. Nucl Eng Des
15:373–440
18. ASM Alloy Phase Diagram Center (2007) ASM International, Materials Park. (http://www.
asminternational.org/AsmEnterprise/APD)
19. Hecker SS, Stan M (2008) Properties of plutonium and its alloys for use as fast reactor fuels. J
Nucl Mater 383:112–118
20. Wade DC, Fujita EK (1989) Trends versus reactor size of passive reactivity shutdown and
control performance. Nucl Sci Eng 103:182
21. Kawaguchi K et al (2007) Conceptual study of measures again heat generation for TRU fuel
fabrication system. In: Global 2007, Boise, ID, September 2007
15 Development of Uranium-Free TRU Metallic Fuel Fast Reactor Core
167
1. Yamashita T, Kuramoto K-I, Akie H, Nakano Y, Nitani N, Nakamura T, Kusagaya K, Ohmichi
T (2002) Rock-like oxide fuels and their burning in LWRs. J Nucl Sci Technol 39(8):865–871
2. Miwa S, Osaka M, Usuki T, Sato I, Tanaka K, Hirosawa T, Yoshimachi H, Onose S (2011)
MgO-based inert matrix fuel for a minor actinide recycling in a fast reactor cycle. In: Proceedings of Global 2011, Makuhari, Japan, Dec 11–16, 2011
3. Messaoudi N, Tommasi J (2002) Fast burner reactor devoted to minor actinide incineration.
Nucl Technol 137:84–96
4. Hill RH, Khalil HS (2000) Physics studies for sodium cooled ATW blanket. In: Proceedings of
the IAEA technical committee meeting on core physics and engineering aspects of emerging
nuclear energy systems for energy generation and transmutation. Argonne National Laboratory
5. Beller DE, Van Tuyle GJ, Bennett D, Lawrence G, Thomas K, Pasamehtoglu K, Li N, Hill D,
Laidler J, Finck P (2001) The U.S. accelerator transmutation of waste program. Nucl Instrum
Methods Phys Res A 463:468–486
6. Heidet F, Kim TK, Taiwo TA (2013) Multiple-stage fuel cycle options based on subcritical
systems. In: Proceedings of the 2013 ANS Winter Meeting, Washington, DC, November 10–
14, 2013
7. Meyer MK et al (2001) Fuel design for the U.S. accelerator driven transmutation system.
Nuclear Application in the New Millennium (accApp-ADITTA ‘01), Reno, Nov 2001
8. Carmack WJ et al (2009) Metallic fuels for advanced reactor. J Nucl Mater 392:139–150
9. Stevenson CE (1987) The EBR-II fuel cycle story. American Nuclear Society, La Grange Park,
Illinois, USA
10. Arie K, Kawashima M, Araki Y, Sato M, Mori K, Nakayama Y, Ishiguma K, Fujiie Y (2007)
The sustainable system for global nuclear energy utilization. In: GLOBAL 2007, Boise, ID,
September 9–13, 2007
11. Arie K, Kawashima M, Oomori T, Okita T, Kotake S, Fujiie Y (2013) Role of fast reactor and
its cycle to reduce nuclear waste burden, In: GLOBAL 2013, Salt Lake City, UT, September
29–October 3, 2013
12. Hayes S et al (2009) Status of transuranic bearing metallic fuel development. In: Global 2009,
Paris, September 6–11, 2009
13. OECD-NEA (2000) Nuclear Energy Agency, Organisation for Economic and Co-operation
Development (NEA, OECD), Paris, France
14. Derstine KL (1984) DIF3D: a code to solve one-,two- and three-dimensional finite difference
diffusion theory problems. ANL-82-64, Argonne National Laboratory
15. Hazama T et al (2009) SLAROM-UF: ultra fine group cell calculation code for fast reactor:
version 20090113. JAEA-Review 2009-003
16. Shibata K, Iwamoto O, Nakagawa T, Iwamoto N, Ichihara A, Kunieda S, Chiba S, Furutaka K,
Otuka N, Ohsawa T, Murata T, Matsunobu H, Zukeran A, Kamada S, Katakura J (2011)
JENDL-4.0: a new library for nuclear science and engineering. J Nucl Sci Technol 48(1):1–30
17. Kittel JH et al (1971) Plutonium and plutonium alloys as nuclear fuel materials. Nucl Eng Des
15:373–440
18. ASM Alloy Phase Diagram Center (2007) ASM International, Materials Park. (http://www.
asminternational.org/AsmEnterprise/APD)
19. Hecker SS, Stan M (2008) Properties of plutonium and its alloys for use as fast reactor fuels. J
Nucl Mater 383:112–118
20. Wade DC, Fujita EK (1989) Trends versus reactor size of passive reactivity shutdown and
control performance. Nucl Sci Eng 103:182
21. Kawaguchi K et al (2007) Conceptual study of measures again heat generation for TRU fuel
fabrication system. In: Global 2007, Boise, ID, September 2007
15 Development of Uranium-Free TRU Metallic Fuel Fast Reactor Core
167