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THXC1 |
Innovation and Future of Compact Accelerator Technologies in Medicine and Industry |
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- E. Tanabe
AET, Kanagawa, Japan
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Funding: New Energy and Industrial Technology Development Organization, Japan
This talk reviews the history of compact accelerator development for cancer therapy, discusses current requirements for a computer controlled medical accelerator system equipped with imaging devices and a beam control system, presents a recently developed, next generation medical linear accelerator system based on X-band technology and robotics, demonstrates various industrial applications, and reviews the collaboration between academia and industry to bring these innovative technologies to market, create new businesses and benefit society.
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Slides THXC1 [31.731 MB]
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| THXC2 |
Ion Beam Therapy with Ions Heavier than Protons: Performance and Prospects |
3654 |
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- U. Linz
FZJ, Jülich, Germany
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Starting from a short discussion on the pros and cons of heavier ions for therapy, the presentation will concentrate on two aspects of the therapy with ions heavier than protons: technical equipment and choice of ion. As major components of an IBT facility, accelerator and gantry issues will dominate the part on equipment. Biophysical, medical, and economical considerations will be discussed in the part featuring the choice of the proper ion.
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Slides THXC2 [10.744 MB]
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| DOI • |
reference for this paper
※ https://doi.org/10.18429/JACoW-IPAC2015-THXC2
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THXC3 |
Ultrafast Electron Diffraction - Present Status and Future Advances |
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- O.J. Luiten
TUE, Eindhoven, The Netherlands
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In this review I will first discuss beam requirements for ultrafast electron diffraction, in particular the biggest challenge: what is needed for recording diffraction patterns of complex macromolecular crystals in a single, femtosecond shot. Subsequently I will discuss the present state of the art provided by bright photoemission guns, both non-relativistic DC guns and relativistic RF guns, in combination with RF bunch compression. Finally I will go into several more exotic methods that are being developed to achieve an even higher degree of spatial coherence and temporal resolution: sources based on laser plasma acceleration and ultracold sources based on photoionization of laser-cooled gases or on cryo-cooled semiconductors photocathodes.
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Slides THXC3 [18.513 MB]
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