Some error occured while loading the Quick View. Please close the Quick View and try reloading the page.
This reference text covers the description, theory and history of room-sized or smaller ring accelerators and Paul traps for the exploration of advanced concepts and techniques in accelerator physics. The book describes the physics of five distinct small ring accelerators, or related devices, as case studies of scaled experiments to illustrate diverse accelerator and beam physics principles with potential applications to advanced larger machines: 1) small electron storage ring at University of Maryland; 2) larger electron/proton ring at Fermilab; 3) compact ion ring accelerator; 4) model fixed-field alternating gradient machine (a cyclotron/synchrotron-like device) that operated in the UK; and 5) Paul traps as RF (radio-frequency) very compact simulators of accelerators. The appendix summarizes basic scaling laws applicable to ring accelerators. It also includes a brief description of computer resources and examples for modelling accelerators.
Key Features
- Discusses the unique characteristics of five distinct machines for accelerator experiments that cannot be easily conducted in larger facilities
- Provides a concise but accurate presentation of key principles of beam and accelerator physics
- Describes the work of small groups from universities and/or national labs
- Contains an appendix summarizing key physics scaling laws applicable to accelerators, with worked examples
1 Space charge and other physics at the University of Maryland Electron Ring (UMER)
2 Space charge in the isochronous regime at the Small Isochronous Ring (SIR)
3 Nonlinear optics and other physics at the Integrable Optics Test Accelerator (IOTA)
4 Fixed-field alternating gradient (FFAG) accelerators and the Electron Model for Many Applications (EMMA)
5 Betatron resonances and space charge: Paul traps as model accelerators
Appendix A: Physics scaling of particle ring accelerators
Appendix B: Computer codes