• High Power Laser and Particle Beams
  • Vol. 32, Issue 4, 045101 (2020)
Sifu Chen, Ziping Huang, and Jinshui Shi
Author Affiliations
  • Institute of Fluid Physics, CAEP, Mianyang 621999, China
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    DOI: 10.11884/HPLPB202032.190424 Cite this Article
    Sifu Chen, Ziping Huang, Jinshui Shi. Basic types and technological implementation of charged particle accelerators[J]. High Power Laser and Particle Beams, 2020, 32(4): 045101 Copy Citation Text show less
    Simple classification of charged particle accelerators(modified from Ref.[10])
    Fig. 1. Simple classification of charged particle accelerators(modified from Ref.[10])
    Principle of the high-voltage DC accelerators
    Fig. 2. Principle of the high-voltage DC accelerators
    Difficulties in accelerating repeatedly by electrostatic fields
    Fig. 3. Difficulties in accelerating repeatedly by electrostatic fields
    Repeated acceleration with time-varying electromagnetic fields
    Fig. 4. Repeated acceleration with time-varying electromagnetic fields
    Principle of the betatron and a schematic of the annular vacuum chamber
    Fig. 5. Principle of the betatron and a schematic of the annular vacuum chamber
    Diagram of the principle of multiple acceleration from professor G. Ising’s pioneer publication(1924)
    Fig. 6. Diagram of the principle of multiple acceleration from professor G. Ising’s pioneer publication(1924)
    Principle of the linear induction accelerator
    Fig. 7. Principle of the linear induction accelerator
    Alternating voltage and principle of phase stability
    Fig. 8. Alternating voltage and principle of phase stability
    A schematic of the Wideröe linac structure[28]
    Fig. 9. A schematic of the Wideröe linac structure[28]
    A pillbox cavity and the TM010 mode electric and magnetic fields in it[29]
    Fig. 10. A pillbox cavity and the TM010 mode electric and magnetic fields in it[29]
    A schematic of the Alvarez drift-tube linac structure[9]
    Fig. 11. A schematic of the Alvarez drift-tube linac structure[9]
    A schematic of the interdigital H-mode DTL[31]
    Fig. 12. A schematic of the interdigital H-mode DTL[31]
    Standing wave coupled cavity structures
    Fig. 13. Standing wave coupled cavity structures
    A schematic of a four-vane RFQ structure
    Fig. 14. A schematic of a four-vane RFQ structure
    Intuitive model of traveling wave acceleration
    Fig. 15. Intuitive model of traveling wave acceleration
    Disk-loaded waveguide structures
    Fig. 16. Disk-loaded waveguide structures
    Principle of laser wake field acceleration (LWFA) and the capillary discharge waveguide of Berleeley Lab Laser Accelerator (BELLA)[44]
    Fig. 17. Principle of laser wake field acceleration (LWFA) and the capillary discharge waveguide of Berleeley Lab Laser Accelerator (BELLA)[44]
    Schematic drawing of a classical cyclotron
    Fig. 18. Schematic drawing of a classical cyclotron
    Pole faces of the isochronous cyclotrons
    Fig. 19. Pole faces of the isochronous cyclotrons
    A spiral and a radial fixed-field alternating-gradient (FFAG) accelerator[54]
    Fig. 20. A spiral and a radial fixed-field alternating-gradient (FFAG) accelerator[54]
    Sketch of a microtron
    Fig. 21. Sketch of a microtron
    Sketch of the synchrotrons
    Fig. 22. Sketch of the synchrotrons
    Sketch of a combinative optical system
    Fig. 23. Sketch of a combinative optical system
    Rhodotron acceleration scheme
    Fig. 24. Rhodotron acceleration scheme
    Evolution of acceleration mechanism(modified from Ref.[3])
    Fig. 25. Evolution of acceleration mechanism(modified from Ref.[3])
    Sifu Chen, Ziping Huang, Jinshui Shi. Basic types and technological implementation of charged particle accelerators[J]. High Power Laser and Particle Beams, 2020, 32(4): 045101
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