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138. R. J. Pasquinelli, “Twenty-five years of stochastic cooling experience at Fermilab,” in
International Workshop on Beam Cooling and Related Topics (COOL09) , Lanzhou, 2009.
139. G. Jackson et al., “Bunched beam stochastic cooling in the Fermilab Tevatron Collider,” in
International Conference on Particle Accelerators (PAC’93), Washington, 1993.
140. F. Caspers and D. Möhl, “Stochastic cooling in hadron colliders,” in 17th International
Conference on High-Energy Accelerators, Dubna, 1998.
141. M. Blaskiewicz et al., “Longitudinal solitons in RHIC,” in 2003 Particle Accelerator
Conference (PAC 2003), 2003.
142. J. Bosser et al., “LEAR MD report: bunched beam Schottky spectrum,” CERN, Geneva,
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143. J. Marriner et al., “Bunched beam cooling in the FNAL Antiproton Accumulator,” in 2nd
European Particle Accelerator Conference, Nice, 1990.
144. A. A. Mikhailichenko and M. S. Zolotorev, “Optical stochastic cooling,” Phys. Rev. Lett, vol.
71, p. 4146–4149, 1993.
145. A. Zholents and M. Zolotorev, “Transit time method of optical stochastic cooling,” Phys. Rev.
E, vol. 50, p. 3087, 1994.
146. W. A. Franklin et al., “Optical stochastic cooling experiment at the MIT-Bates South Hall
Ring,” in Workshop on Beam Cooling and Related Topics (COOL 07), Bad Kreuzbach, 2007.
147. M. Blaskiewicz, J. M. Brennan and F. Severino, “Operational stochastic cooling in the
Relativistic Heavy-Ion Collider,” Phys. Rev. Lett., vol. 100, p. 174802, 2008.
148. J. M. Brennan and M. Blaskiewicz, “Stochastic cooling in RHIC,” in Particle Accelerator
Conference (PAC 09), Geneva, 2009.
149. S. Antipov et al., “IOTA (Integrable Optics Test Accelerator): facility and experimental beam
physics program,” JINST, vol. 12, p. T03002, 2017.
150. S. van der Meer, “Stochastic stacking in the Antiproton Accumulator,” CERN, Geneva, 1978.
151. B. Autin et al., “Design study of a proton-antiproton colliding beam facility,” CERN, Geneva,
1978.
152. E. J. N. Wilson, “Design study of an antiproton collector for the antiproton accumulator
(ACOL),” 1983.
153. V. Lebedev and V. Shiltsev, Accelerator physics at the Tevatron Collider, New York: Springer,
2014.
154. R. J. Pasquinelli, “Implementation of stochastic cooling hardware at Fermilab’s Tevatron
Collider,” JINST, vol. 6, p. T08002, 2011.
155. S. Nagaitsev, L. Prost and A. Shemyakin, “Fermilab 4.3 MeV electron cooler,” JINST 10, vol.
10, no. 01, p. T01001, 2015.
156. G. L. Budker, “Experiences sur l’obtention d’un faisceau intense de protons par la methode
d’injection par echange de charges,” in Symposium International sur les anneaux de collisions
a electrons et positrons, Saclay, 26–30 septembre 1966, Saclay, 1967.
157. J. D. Jackson, Classical electrodynamics, New Work: John Wiley & Sons, 1975.
158. H. Poth, “Electron Cooling,” in CAS - CERN Accelerator School: Accelerator Physics,
Oxford, UK, 16 - 27 Sep 1985, Vols. CERN-1987-003-V-2, Geneva, CERN, 1987, pp. 534569.
159. Y. Derbenev and I. Meshkov, “Studies on electron cooling of heavy particle beams made by
the VAPP-NAP group at the Nuclear Physics Institute of the Siberian branch of the USSR
Academy of Science at Novosibirsk,” CERN, Geneva, 1977.
160. G. Budker et al., “Experimental studies of electron cooling,” Part. Accel., vol. 7, pp. 197-211,
1976.
161. H. Poth, “Electron cooling: theory, experiment, application,” Phys. Rep., vol. 196, p. 135,
1990.
162. A. Y. Larentev and I. N. Meshkov, “The computation of electron cooling process in a storage
ring,” in International Conference on Crystal Beams “Ettore Majorana”, Erice, 1996.
163. M. Chanel, “Ion accumulation for LHC,” in Workshop on Beam Cooling and Related Topics,
Bad Honnef, 2001.
B. J. Holzer et al.
138. R. J. Pasquinelli, “Twenty-five years of stochastic cooling experience at Fermilab,” in
International Workshop on Beam Cooling and Related Topics (COOL09) , Lanzhou, 2009.
139. G. Jackson et al., “Bunched beam stochastic cooling in the Fermilab Tevatron Collider,” in
International Conference on Particle Accelerators (PAC’93), Washington, 1993.
140. F. Caspers and D. Möhl, “Stochastic cooling in hadron colliders,” in 17th International
Conference on High-Energy Accelerators, Dubna, 1998.
141. M. Blaskiewicz et al., “Longitudinal solitons in RHIC,” in 2003 Particle Accelerator
Conference (PAC 2003), 2003.
142. J. Bosser et al., “LEAR MD report: bunched beam Schottky spectrum,” CERN, Geneva,
1994.
143. J. Marriner et al., “Bunched beam cooling in the FNAL Antiproton Accumulator,” in 2nd
European Particle Accelerator Conference, Nice, 1990.
144. A. A. Mikhailichenko and M. S. Zolotorev, “Optical stochastic cooling,” Phys. Rev. Lett, vol.
71, p. 4146–4149, 1993.
145. A. Zholents and M. Zolotorev, “Transit time method of optical stochastic cooling,” Phys. Rev.
E, vol. 50, p. 3087, 1994.
146. W. A. Franklin et al., “Optical stochastic cooling experiment at the MIT-Bates South Hall
Ring,” in Workshop on Beam Cooling and Related Topics (COOL 07), Bad Kreuzbach, 2007.
147. M. Blaskiewicz, J. M. Brennan and F. Severino, “Operational stochastic cooling in the
Relativistic Heavy-Ion Collider,” Phys. Rev. Lett., vol. 100, p. 174802, 2008.
148. J. M. Brennan and M. Blaskiewicz, “Stochastic cooling in RHIC,” in Particle Accelerator
Conference (PAC 09), Geneva, 2009.
149. S. Antipov et al., “IOTA (Integrable Optics Test Accelerator): facility and experimental beam
physics program,” JINST, vol. 12, p. T03002, 2017.
150. S. van der Meer, “Stochastic stacking in the Antiproton Accumulator,” CERN, Geneva, 1978.
151. B. Autin et al., “Design study of a proton-antiproton colliding beam facility,” CERN, Geneva,
1978.
152. E. J. N. Wilson, “Design study of an antiproton collector for the antiproton accumulator
(ACOL),” 1983.
153. V. Lebedev and V. Shiltsev, Accelerator physics at the Tevatron Collider, New York: Springer,
2014.
154. R. J. Pasquinelli, “Implementation of stochastic cooling hardware at Fermilab’s Tevatron
Collider,” JINST, vol. 6, p. T08002, 2011.
155. S. Nagaitsev, L. Prost and A. Shemyakin, “Fermilab 4.3 MeV electron cooler,” JINST 10, vol.
10, no. 01, p. T01001, 2015.
156. G. L. Budker, “Experiences sur l’obtention d’un faisceau intense de protons par la methode
d’injection par echange de charges,” in Symposium International sur les anneaux de collisions
a electrons et positrons, Saclay, 26–30 septembre 1966, Saclay, 1967.
157. J. D. Jackson, Classical electrodynamics, New Work: John Wiley & Sons, 1975.
158. H. Poth, “Electron Cooling,” in CAS - CERN Accelerator School: Accelerator Physics,
Oxford, UK, 16 - 27 Sep 1985, Vols. CERN-1987-003-V-2, Geneva, CERN, 1987, pp. 534569.
159. Y. Derbenev and I. Meshkov, “Studies on electron cooling of heavy particle beams made by
the VAPP-NAP group at the Nuclear Physics Institute of the Siberian branch of the USSR
Academy of Science at Novosibirsk,” CERN, Geneva, 1977.
160. G. Budker et al., “Experimental studies of electron cooling,” Part. Accel., vol. 7, pp. 197-211,
1976.
161. H. Poth, “Electron cooling: theory, experiment, application,” Phys. Rep., vol. 196, p. 135,
1990.
162. A. Y. Larentev and I. N. Meshkov, “The computation of electron cooling process in a storage
ring,” in International Conference on Crystal Beams “Ettore Majorana”, Erice, 1996.
163. M. Chanel, “Ion accumulation for LHC,” in Workshop on Beam Cooling and Related Topics,
Bad Honnef, 2001.