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BiBTeX citation export for TUPB013: Multipole Field Optimization of X-Band High Gradient Structure

@inproceedings{feng:sap2023-tupb013,
% --- JACoW template Dec 2024 ---
  author       = {B.Y. Feng and H.B. Chen and Q. Gao and X. Lin and J.R. Shi and H. Zha},
  title        = {{Multipole Field Optimization of X-Band High Gradient Structure}},
  booktitle    = {Proc. 14th Symp. Accel. Phys. (SAP'23)},
  eventdate    = {2023-07-10/2023-07-12},
  pages        = {108--110},
  eid          = {TUPB013},
  language     = {english},
  keywords     = {multipole, quadrupole, cavity, simulation, acceleration},
  venue        = {Xichang, China},
  series       = {Symposium on Accelerator Physics},
  number       = {14},
  publisher    = {JACoW Publishing},
  location     = {Geneva, Switzerland},
  date         = {2024-11},
  month        = {11},
  year         = {2024},
  isbn         = {978-3-95450-265-3},
  doi          = {10.18429/JACoW-SAP2023-TUPB013},
  url          = {https://jacow.org/sap2023/papers/tupb013.pdf},
  abstract     = {{The X-band constant gradient acceleration structure plays a crucial role in the VIGAS project. However, the presence of a multipole field component in the struc-ture’s coupler leads to an increase in ray bandwidth and a decrease in yield, ultimately affecting the quality of the generated rays. Through calculations, it has been determined that the quadrupole field component is particularly prominent in the original structure, ac-counting for 29.5\% of the fundamental mode strength. Therefore, it is necessary to modify the cavity struc-ture of the coupler. By altering the shape of the cavity to two staggered circles, the objective of reducing the quadrupole field is achieved. The optimized quadru-pole field component now accounts for approximately 0.3\% of the fundamental mode strength. Subsequently, the non-resonant perturbation method was employed to simulate and experimentally measure the magnitude of the multipole field component in the actual acceler-ation cavity.}},
}