Excitation Function Measurements of Alpha-Induced Reaction on Natural. . .
253
(a) nat Ti(a,X) 51 Cr
(b) nat Cu(a,X) 66 Ga
䢲
䢴䢲䢲
䢶䢲䢲
䢸䢲䢲
䣖䣪䣫䣵䢢䣹䣱䣴䣭䢪䣵䣪䣱䣴䣶䢫
䣕䢰䣖䣣䣭䣣䣥䣵䢢䣧䣶䢢䣣䣮䢰䣝䢸䣟
䣃䢰䣔䢰䣗䣵䣯䣣䣰䢢䣧䣶䢢䣣䣮䢰䣝䢹䣟
䣈䢰䣕䣼䣧䣮䣧䣥䣵䣧䣰䣻䣫䢢䣧䣶䢢䣣䣮䢰䣝䢺䣟
䣏䢰䣕䣪䣣䣪䣫䣦䢢䣧䣶䢢䣣䣮䢰䣝䢻䣟
䣋䣃䣇䣃䢢䣴䣧䣥䣱䣯䣯䣧䣰䣦䣧䣦䣝䢳䢲䣟
䣖䣇䣐䣆䣎䢯䢴䢲䢳䢹䣝䢳䢳䣟
䣥䣴䣱䣵䣵䢢䣵䣧䣥䣶䣫䣱䣰䣝䣯䣤䣟
䢲
䢲
䢳䢲
䢴䢲
䢵䢲
䢶䢲
䢷䢲
䢲
䢴䢲䢲
䢶䢲䢲
䢸䢲䢲
䢺䢲䢲
䢳䢲䢲䢲
䣖䣪䣫䣵䢢䣹䣱䣴䣭䢪䣮䣱䣰䣩䢫
䣖䣪䣫䣵䢢䣹䣱䣴䣭䢪䣵䣪䣱䣴䣶䢫
䣃䢰䣔䢰䣗䣵䣯䣣䣰䢢䣧䣶䢢䣣䣮䢰䣝䢴䣟
䣏䢰䣕䢰䣗䣦䣦䣫䣰䢢䣧䣶䢢䣣䣮䢰䣝䢵䣟
䣚䢰䣒䣧䣰䣩䢢䣧䣶䢢䣣䣮䢰䣝䢷䣟
䣃䢰䣊䣧䣴䣯䣣䣰䣰䣧䢢䣧䣶䢢䣣䣮䢰䣝䢶䣟
䣋䣃䣇䣃䢢䣴䣧䣥䣱䣯䣯䣧䣰䣦䣧䣦䣝䢳䢲䣟
䣖䣇䣐䣆䣎䢯䢴䢲䢳䢹䣝䢳䢳䣟
䣥䣴䣱䣵䣵䢢䣵䣧䣥䣶䣫䣱䣰䣝䣯䣤䣟
䣣䣮䣲䣪䣣䢢䣧䣰䣧䣴䣩䣻䣝䣏䣧䣘䣟
䢳䢲
䢴䢲
䢵䢲
䢶䢲
䢷䢲
䣣䣮䣲䣪䣣䢢䣧䣰䣧䣴䣩䣻䣝䣏䣧䣘䣟
Fig. 2 Measured excitation function with other experimental data, IAEA recommended data and
TENDL-2017 data
recommended data. The present results will be useful as benchmark data to evaluate
nuclear data and investigate the accuracy of calculation codes.
Acknowledgement The authors express their gratitude to the accelerator staff of NIRS-930 for
generous support during this experiment. This work was supported by JSPS KAKENHI Grant
Number JP17K07010.
References
1. J.F. Ziegler, The stopping and range of ions in matter (SRIM). http://www.srim.org. Last
accessed 5 July 2016
2. A.R. Usman et al., Excitation functions of alpha particles induced nuclear reactions on natural
titanium in the energy range of 10.4-50.2 MeV. Nucl. Instrum. Methods B 399, 34–47 (2017)
3. M.S. Uddin et al., Excitation functions of alpha particle induced reactions on nat Ti up to 40
MeV. Nucl. Instrum. Methods B 380, 15–19 (2016)
4. A. Hermanne et al., Excitation functions of nuclear reactions induced by alpha particles up to
42 MeV on nat Ti for monitoring purposes and TLA. Nucl. Instrum. Methods B 152, 187–201
(1999)
5. X. Peng et al., Excitation functions for the reactions induced by alpha-particle impact of natural
titanium. Nucl. Instrum. Methods B 140, 9–12 (1998)
6. S. Takacs et al., Crosschecking of alpha particle monitor reactions up to 50 MeV. Nucl. Instrum.
Methods B 397, 33–38 (2017)
7. A.R. Usman et al., Production cross-sections of radionuclides from α-induced reactions on
natural copper up to 50MeV. Appl. Radiat. Isotopes 114, 104–113 (2016)
8. F. Szelecsenyi et al., Alpha beam monitoring via nat Cu + alpha processes in the energy range
from 40 to 60 MeV. Nucl. Instrum. Methods B 184, 589–596 (2001)
9. M. Shahid et al., Measurement of excitation functions in alpha induced reactions on nat Cu.
Nucl. Instrum. Methods B 358, 160–167 (2015)
10. F. Tarkanyi et al., in Charged particle cross-section database for medical radioisotope
production: diagnostic radioisotopes and monitor reactions, IAEA-TECDOC-1211 (2001)
11. A.J. Koning et al., Modern nuclear data evaluation with the TALYS code system. Nucl. Data
Sheets 113, 2841–2934 (2012)
253
(a) nat Ti(a,X) 51 Cr
(b) nat Cu(a,X) 66 Ga
䢲
䢴䢲䢲
䢶䢲䢲
䢸䢲䢲
䣖䣪䣫䣵䢢䣹䣱䣴䣭䢪䣵䣪䣱䣴䣶䢫
䣕䢰䣖䣣䣭䣣䣥䣵䢢䣧䣶䢢䣣䣮䢰䣝䢸䣟
䣃䢰䣔䢰䣗䣵䣯䣣䣰䢢䣧䣶䢢䣣䣮䢰䣝䢹䣟
䣈䢰䣕䣼䣧䣮䣧䣥䣵䣧䣰䣻䣫䢢䣧䣶䢢䣣䣮䢰䣝䢺䣟
䣏䢰䣕䣪䣣䣪䣫䣦䢢䣧䣶䢢䣣䣮䢰䣝䢻䣟
䣋䣃䣇䣃䢢䣴䣧䣥䣱䣯䣯䣧䣰䣦䣧䣦䣝䢳䢲䣟
䣖䣇䣐䣆䣎䢯䢴䢲䢳䢹䣝䢳䢳䣟
䣥䣴䣱䣵䣵䢢䣵䣧䣥䣶䣫䣱䣰䣝䣯䣤䣟
䢲
䢲
䢳䢲
䢴䢲
䢵䢲
䢶䢲
䢷䢲
䢲
䢴䢲䢲
䢶䢲䢲
䢸䢲䢲
䢺䢲䢲
䢳䢲䢲䢲
䣖䣪䣫䣵䢢䣹䣱䣴䣭䢪䣮䣱䣰䣩䢫
䣖䣪䣫䣵䢢䣹䣱䣴䣭䢪䣵䣪䣱䣴䣶䢫
䣃䢰䣔䢰䣗䣵䣯䣣䣰䢢䣧䣶䢢䣣䣮䢰䣝䢴䣟
䣏䢰䣕䢰䣗䣦䣦䣫䣰䢢䣧䣶䢢䣣䣮䢰䣝䢵䣟
䣚䢰䣒䣧䣰䣩䢢䣧䣶䢢䣣䣮䢰䣝䢷䣟
䣃䢰䣊䣧䣴䣯䣣䣰䣰䣧䢢䣧䣶䢢䣣䣮䢰䣝䢶䣟
䣋䣃䣇䣃䢢䣴䣧䣥䣱䣯䣯䣧䣰䣦䣧䣦䣝䢳䢲䣟
䣖䣇䣐䣆䣎䢯䢴䢲䢳䢹䣝䢳䢳䣟
䣥䣴䣱䣵䣵䢢䣵䣧䣥䣶䣫䣱䣰䣝䣯䣤䣟
䣣䣮䣲䣪䣣䢢䣧䣰䣧䣴䣩䣻䣝䣏䣧䣘䣟
䢳䢲
䢴䢲
䢵䢲
䢶䢲
䢷䢲
䣣䣮䣲䣪䣣䢢䣧䣰䣧䣴䣩䣻䣝䣏䣧䣘䣟
Fig. 2 Measured excitation function with other experimental data, IAEA recommended data and
TENDL-2017 data
recommended data. The present results will be useful as benchmark data to evaluate
nuclear data and investigate the accuracy of calculation codes.
Acknowledgement The authors express their gratitude to the accelerator staff of NIRS-930 for
generous support during this experiment. This work was supported by JSPS KAKENHI Grant
Number JP17K07010.
References
1. J.F. Ziegler, The stopping and range of ions in matter (SRIM). http://www.srim.org. Last
accessed 5 July 2016
2. A.R. Usman et al., Excitation functions of alpha particles induced nuclear reactions on natural
titanium in the energy range of 10.4-50.2 MeV. Nucl. Instrum. Methods B 399, 34–47 (2017)
3. M.S. Uddin et al., Excitation functions of alpha particle induced reactions on nat Ti up to 40
MeV. Nucl. Instrum. Methods B 380, 15–19 (2016)
4. A. Hermanne et al., Excitation functions of nuclear reactions induced by alpha particles up to
42 MeV on nat Ti for monitoring purposes and TLA. Nucl. Instrum. Methods B 152, 187–201
(1999)
5. X. Peng et al., Excitation functions for the reactions induced by alpha-particle impact of natural
titanium. Nucl. Instrum. Methods B 140, 9–12 (1998)
6. S. Takacs et al., Crosschecking of alpha particle monitor reactions up to 50 MeV. Nucl. Instrum.
Methods B 397, 33–38 (2017)
7. A.R. Usman et al., Production cross-sections of radionuclides from α-induced reactions on
natural copper up to 50MeV. Appl. Radiat. Isotopes 114, 104–113 (2016)
8. F. Szelecsenyi et al., Alpha beam monitoring via nat Cu + alpha processes in the energy range
from 40 to 60 MeV. Nucl. Instrum. Methods B 184, 589–596 (2001)
9. M. Shahid et al., Measurement of excitation functions in alpha induced reactions on nat Cu.
Nucl. Instrum. Methods B 358, 160–167 (2015)
10. F. Tarkanyi et al., in Charged particle cross-section database for medical radioisotope
production: diagnostic radioisotopes and monitor reactions, IAEA-TECDOC-1211 (2001)
11. A.J. Koning et al., Modern nuclear data evaluation with the TALYS code system. Nucl. Data
Sheets 113, 2841–2934 (2012)