792
M. Dohlus et al.
127. Shinian Fu et al, Accelerator design for China Spallation Neutron Source, ICFA Beam
Dynamics Newsletter, pp. 120-123, April, (2011).
128. J. Wei et al, Injection choice for Spallation Neutron Source ring, Proc. of PAC01, (2001).
129. R. Damburg et al, Chapter 3, in: Rydberg states of atoms and molecules, Cambridge
University Press, pp 31-71, (2003).
130. G.H. Rees, Linac, beam line and ring studies for an upgrading of ISIS, Internal RAL note
GHR1/ASTeC/ December (2009).
131. The ESS (European Spallation Source) Project, Volume III, Technical Report, pp.2-4 to 2-56,
(2002).
132. M.A. Plum et al, SNS ring commissioning results, Proceedings of EPAC’06, MOPCH131
(2006).
133. C.R. Prior and G.H. Rees, Multi-turn injection and lattice design for HIDIF, Nuclear
Instruments and Methods, Physics Research A, 415 pages 357-362, (1998).
134. G.H. Rees, Direct proton injection for high power, short pulse, spallation source rings,
Internal RA note GHR1/ASTeC/ November (2016).
135. G. H. Rees, Non-isochronous & isochronous, non-scaling FFAG designs, Proc. of 18 th
International Conf. on Cyclotrons & their Applications, Sicily, MOP1197, p.189-192 (2007).
136. S. Machida, Parameters of a DF spiral ring for ISIS Hall, RAL note
smb://ISIS/Shares/Accelerator R&D/IBIS Meetings/ ISIS II FFAG Parameters.
137. L.M. Onishchenko: Cyclotrons, Phys. Part. Nucl. 39 (2008) 950.
138. E.O. Lawrence, N.E. Edlefsen: On the production of high speed protons, Science 72 (1930)
376.
139. H. Willax: Proposal for a 500 MeV Isochronous Cyclotron with Ring Magnet, Proc. Intern.
Conf. Sector-Focused Cyclotrons (1963) 386.
140. M. Seidel, et al.: Production of a 1.3 Megawatt Proton Beam at PSI, Proc. IPAC10, Kyoto,
Japan (2010) 1309-1313.
141. L.H. Thomas: The Path of Ions in the Cyclotron, Phys. Rev. 54 (1938) 580-598.
142. W. Joho: High Intensity Problems in Cyclotrons, Proc. 5th Intern. Conf. Cyclotrons and their
Applications, Caen (1981).
143. G. Dutto, et al.: TRIUMF High Intensity Cyclotron Development for ISAC, Proc. 17th Intern.
Conf. Cyclotrons and Their Applications, Tokyo (2004) 82–88.
144. M. Kase, et al.: Present Status of the RIKEN Ring Cyclotron, Proc. 17th Intern. Conf.
Cyclotrons and their Applications, Tokyo (2004) 160–162.
145. H. Okuno, et al.: Magnets for the RIKEN Superconducting RING Cyclotron, Proc. 17th Intern.
Conf. Cyclotrons and their Applications, Tokyo (2004) 373–377.
146. V. Yakovlev et al.: The Energy Efficiency of High Intensity Proton Driver Concepts, Proc.
IPAC’17, Copenhagen (2017) 4842-4847
147. List of Cyclotrons, Proc. 18th Intern. Conf. Cyclotrons and their Applications, Giardini Naxos
(2007).
148. S. Hofmann, G. Münzenberg: Rev. Mod. Phys. 72(3) (2000) 733.
149. Yu.Ts. Oganessian, V.K. Utyonkov, Rep. Prog. Phys. 78, (2015) 036301
150. S. Hofmann, J. Phys. G: Nucl. Part. Phys. 42 (2015) 114001
151. J.R. Alonso: Proc. EPAC’90, Nice (1990) 95.
152. H.W. Schreuder: Proc. EPAC’90, Nice (1990) 82.
153. I. Tanihata, et al.: Phys. Rev. Lett. 55(24) (1985) 2676.
154. P.G. Hansen, B. Jonson: Europhys. Lett. 4(4) (1987) 409.
155. H. Geissel, G. Muenzenberg, H. Weick: Nucl. Phys. A 701 (2002) 259.
156. U. Koester: Eur. Phys. J. A 15 (2002) 255.
157. http://www.iupap.org/wg/
158. C.E. Anderson, K.W. Ehlers: Rev. Sci. Instrum. 27 (1956) 809.
159. A.S. Pasuyk, Y.P. Tretiakov, S.K. Gorbacher: Dubna-Report 3370 (1967).
160. P. Spaedtke, et al.: Proc. LINAC’96, Geneva (1996) 163.
161. V.A. Monchinsky, L.V. Kalagin, A.I. Govorov: Laser Part. Beams 14 (1996) 439.
162. E.D. Donets: Rev. Sci. Instrum. 69(2) (1998) 614.
M. Dohlus et al.
127. Shinian Fu et al, Accelerator design for China Spallation Neutron Source, ICFA Beam
Dynamics Newsletter, pp. 120-123, April, (2011).
128. J. Wei et al, Injection choice for Spallation Neutron Source ring, Proc. of PAC01, (2001).
129. R. Damburg et al, Chapter 3, in: Rydberg states of atoms and molecules, Cambridge
University Press, pp 31-71, (2003).
130. G.H. Rees, Linac, beam line and ring studies for an upgrading of ISIS, Internal RAL note
GHR1/ASTeC/ December (2009).
131. The ESS (European Spallation Source) Project, Volume III, Technical Report, pp.2-4 to 2-56,
(2002).
132. M.A. Plum et al, SNS ring commissioning results, Proceedings of EPAC’06, MOPCH131
(2006).
133. C.R. Prior and G.H. Rees, Multi-turn injection and lattice design for HIDIF, Nuclear
Instruments and Methods, Physics Research A, 415 pages 357-362, (1998).
134. G.H. Rees, Direct proton injection for high power, short pulse, spallation source rings,
Internal RA note GHR1/ASTeC/ November (2016).
135. G. H. Rees, Non-isochronous & isochronous, non-scaling FFAG designs, Proc. of 18 th
International Conf. on Cyclotrons & their Applications, Sicily, MOP1197, p.189-192 (2007).
136. S. Machida, Parameters of a DF spiral ring for ISIS Hall, RAL note
smb://ISIS/Shares/Accelerator R&D/IBIS Meetings/ ISIS II FFAG Parameters.
137. L.M. Onishchenko: Cyclotrons, Phys. Part. Nucl. 39 (2008) 950.
138. E.O. Lawrence, N.E. Edlefsen: On the production of high speed protons, Science 72 (1930)
376.
139. H. Willax: Proposal for a 500 MeV Isochronous Cyclotron with Ring Magnet, Proc. Intern.
Conf. Sector-Focused Cyclotrons (1963) 386.
140. M. Seidel, et al.: Production of a 1.3 Megawatt Proton Beam at PSI, Proc. IPAC10, Kyoto,
Japan (2010) 1309-1313.
141. L.H. Thomas: The Path of Ions in the Cyclotron, Phys. Rev. 54 (1938) 580-598.
142. W. Joho: High Intensity Problems in Cyclotrons, Proc. 5th Intern. Conf. Cyclotrons and their
Applications, Caen (1981).
143. G. Dutto, et al.: TRIUMF High Intensity Cyclotron Development for ISAC, Proc. 17th Intern.
Conf. Cyclotrons and Their Applications, Tokyo (2004) 82–88.
144. M. Kase, et al.: Present Status of the RIKEN Ring Cyclotron, Proc. 17th Intern. Conf.
Cyclotrons and their Applications, Tokyo (2004) 160–162.
145. H. Okuno, et al.: Magnets for the RIKEN Superconducting RING Cyclotron, Proc. 17th Intern.
Conf. Cyclotrons and their Applications, Tokyo (2004) 373–377.
146. V. Yakovlev et al.: The Energy Efficiency of High Intensity Proton Driver Concepts, Proc.
IPAC’17, Copenhagen (2017) 4842-4847
147. List of Cyclotrons, Proc. 18th Intern. Conf. Cyclotrons and their Applications, Giardini Naxos
(2007).
148. S. Hofmann, G. Münzenberg: Rev. Mod. Phys. 72(3) (2000) 733.
149. Yu.Ts. Oganessian, V.K. Utyonkov, Rep. Prog. Phys. 78, (2015) 036301
150. S. Hofmann, J. Phys. G: Nucl. Part. Phys. 42 (2015) 114001
151. J.R. Alonso: Proc. EPAC’90, Nice (1990) 95.
152. H.W. Schreuder: Proc. EPAC’90, Nice (1990) 82.
153. I. Tanihata, et al.: Phys. Rev. Lett. 55(24) (1985) 2676.
154. P.G. Hansen, B. Jonson: Europhys. Lett. 4(4) (1987) 409.
155. H. Geissel, G. Muenzenberg, H. Weick: Nucl. Phys. A 701 (2002) 259.
156. U. Koester: Eur. Phys. J. A 15 (2002) 255.
157. http://www.iupap.org/wg/
158. C.E. Anderson, K.W. Ehlers: Rev. Sci. Instrum. 27 (1956) 809.
159. A.S. Pasuyk, Y.P. Tretiakov, S.K. Gorbacher: Dubna-Report 3370 (1967).
160. P. Spaedtke, et al.: Proc. LINAC’96, Geneva (1996) 163.
161. V.A. Monchinsky, L.V. Kalagin, A.I. Govorov: Laser Part. Beams 14 (1996) 439.
162. E.D. Donets: Rev. Sci. Instrum. 69(2) (1998) 614.