ACCELERATORS FOR HADRONTHERAPY

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Transcription:

ACCELERATORS FOR HADRONTHERAPY Alberto Degiovanni CERN-BE IVICFA s Fridays: Medical Physics Valencia, 31.10.2014

Introduction: the icon of hadrontherapy Position of the Bragg peak depends on beam energy 200 (400) MeV/u protons (carbon ions) are needed to reach 30 cm of depth 45+ centres in operation, >100 000 patients treated (mostly with protons) http://www.hollandptc.nl/english/faq/ IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 2

What accelerators are used/studied for hadrontherapy? IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 3

LINear ACcelerators: The beginnings IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 4

Conventional X-ray therapy electrons X X Courtesy of Elekta 2000 patients/year every in 1 million inhabitants Courtesy of Elekta IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 5

Conventional X-ray therapy electrons X X 2000 patients/year every in 1 million inhabitants Courtesy of Elekta In the world radiation oncologists use 20 000 electron linacs 50% of all the existing accelerators of energy larger than 1 MeV IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 6

1991: first all-linac approach to proton therapy review paper IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 7

1994: cyclinac approach to proton therapy review paper IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 8

The rationale of proton and carbon tumour therapy IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 9

X-rays have two problems : 1. they irradiate unwanted close-by critical organs 2. they cannot cure radioresistant tumours (about 5%) X-rays protons or carbon ions IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 10

Advantages of hadrontherapy: 1. normal tissues are spared 9 X-rays beams 4 protons or carbon ions beams Courtesy PSI -- Villigen IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 11

Advantages of hadrontherapy: 2. radioresistant tumours can be controlled 9 X-rays beams 4 protons or carbon ions beams Courtesy PSI -- Villigen A carbon ion produces along the track 25 times more ionizations than a proton causing a great number of clustered unrepairable Double Strand Breaks that are not repaired and can kill radioresistant cells IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 12

The present: A.D.A.M. and the Linac for Image Guided Hadron Therapy - LIGHT IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 13

3 GHz LIBO accelerating unit built and tested by TERA CERN INFN This Unit has accelerated protons from 62 to 74 MeV at the same 3 GHz frequency of electron linacs Mario Weiss LInac BOoster Side Coupled Linac Basic unit: half-cell IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 14

First Unit of LIGHT built and power tested by A.D.A.M.: 2011 3 GHz klystron 10 MW A.D.A.M. = Applications of Detectors and Accelerators to Medicine 41 MeV Linac for Image Guided Hadron Therapy 30 MeV IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 15

The all-linac LIGHT is being built at CERN by A.D.A.M. RFQ SCDTL CCL LIGHT 1 150 MeV 2 230 MeV 3 230 MeV IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 16

The all-linac LIGHT is being built at CERN by A.D.A.M. CCL proton pulses @ 200 Hz SCDTL L. Picardi - ENEA RFQ 750 Mhz M. Vretenar et al - CERN IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 17

The cyclinac PERLA to be built in Tuscany by TERA: Protontherapy and Exotic Nuclei from Linked Accelerators 1.7 m 24-230 MeV CCL- LIGHT by A.D.A.M. 2 treatment areas for children gantry 24 MeV cyclotron by ACSI (Canada) radiopharmacy IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 18

Unique properties of a linac beam: fast and active energy variation dn(e) / N(E) K4 K5 K6 K7 K8 K9 K 10 K 11 125 160 140 176 196 215 230 111 84 98 70 MeV Energy [MeV] IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 19

The dose deposition depth can be adjusted every 3 ms The linac pulses 200-300 times per second source linac CCL (TERA ) spot depth: ± 3 mm every pulse To follow moving organs in 4D - with spot scanning, motion feedback and more than 10 paintings - the beam time structure of linacs is better than the ones of cyclotrons and synchrotrons IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 20

ENEA (FrascatI) is building IMPLART= Intensity Modulated Proton Linear Accelerator for RadioTherapy L. Picardi, C. Ronsivalle et al. 150 MeV protons IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 21

ENEA (FrascatI) is building IMPLART= Intensity Modulated Proton Linear Accelerator for RadioTherapy IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 22

ACLIP INFN Naple-Milan-Bari Cyclotrons and Their Applications 2007, Eighteenth International Conference V. G. Vaccaro et al. ACLIP: A 3GHz SIDE COUPLED LINAC FOR PROTONTHERAPY TO BE USED AS A BOOSTER FOR 30 MEV CYCLOTRON Assembly of the first module Particle Accelerator Conference 2009, V. G. Vaccaro et al. RF HIGH POWER TESTS ON THE FIRST MODULE OF THE ACLIP LINAC The ACLIP module high power RF test set IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 23

IMPULSE study (PSI-TERA) IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 24

Studies for the future: high-gradient hadron structures IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 25

Test cavities at 3 and 5.7 GHz have been built and tested by TERA in collaboration with CLIC group (W.Wuensch et al) IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 26

Test cavities at 3 and 5.7 GHz have been built and tested by TERA Break Down Rate / m ( 2 μs pulses) max electric field (MV) max magnetic field (ka/m) (max modified Poynting vector) ½ (MW/mm 2 ) ½ max temperature rise (K) A. Degiovanni, High Gradient Proton Linacs for Medical Applications, PhD Thesis 6069 EPFL IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 27

Test cavities at 3 and 5.7 GHz have been built and tested by TERA Break Down Rate / m ( 2 μs pulses) max electric field (MV) Power Flow Model Grudiev-Wuensch max magnetic field (ka/m) (max modified Poynting vector) ½ (MW/mm 2 ) ½ max temperature rise (K) A. Degiovanni, High Gradient Proton Linacs for Medical Applications, PhD Thesis 6069 EPFL IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 28

The future high-gradient linac: TULIP TUrning LInac for Protontherapy IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 29

TULIP by TERA with to-day technology: 30 MV/m present technology : 30 MV/m Int. Particle Accel. Conf. 2013, A. Degiovanni et al. DESIGN OF A FAST-CYCLING HIGH-GRADIENT ROTATING LINAC FOR PROTONTHERAPY IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 30

New high-gradient backward TW structure NEW bwtw 50 MV/m BDR = 10-6 m -1 (20% more power for same gradient) PROPOSED by A. GRUDIEV /CLIC financed by KT With recirculation: I. SYRATCHEV OLD SW CCL 30 MV/m BDR = 10-6 m -1 accelerating cavities coupling cavities IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 31

CLIC technology : 50 MV/m prototype is being built by CERN and TERA TULIP 2-0 by CERN and TERA LINAC Conference 2014, S. Benedetti et al. RF DESIGN OF A NOVEL BACKWARD TRAVELLING WAVE LINAC FOR PROTON THERAPY IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 32

New compact RFQ design at CERN 750 MHz RFQ 4 MODULES 40 kev-5 MeV in 2 m Modulation machining test on a minor vane RFQ Module 3D model LINAC Conference 2014, M. Vretenar et al. A COMPACT HIGH-FREQUENCY RFQ FOR MEDICAL APPLICATIONS IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 33

The future high-efficiency linac: CABOTO CArbon BOoster for Therapy in Oncology IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 34

The cyclinac CABOTO runs at 300 Hz hor. hor. hor. vert. beam beam beam 33m 32 kl 70 MeV/u 400 MeV/u IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 35

The all-linac CABOTO runs at 300 Hz hor. hor. hor. vert. beam beam beam 33m 32 kl 70 MeV/u 400 MeV/u IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 36

The all-linac CABOTO runs at 300-400 Hz and consumes 1 MW 33 meters 32 klystrons Novel Multi Beam Klystrons IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 37

Summary 3 GHz linacs produce hadron beams that are better suited than those of cyclotrons and synchrotrons to treat moving organs with the multi-painting spot scanning technique Low-velocity SCDTL and high-velocity CCL accelerating structures have been built and tested by ENEA, TERA and INFN The CERN Spin-off company A.D.A.M. is building at CERN an all-linac facility that will be transferred to an hospital to treat patients TERA and the CERN CLIC group are developing high-gradient and highefficiency structures with the support of the Knowledge Transfer group In future this will lead to TULIP, a compact proton linac rotating around the patient, and to CABOTO, a high-efficiency linac for the therapy of deep-seated radioresistant tumours with carbon ions IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 38

ACKNOWLEDGMENTS THANK YOU FOR YOUR ATTENTION! IVICFA, Valencia, 31.10.14 - Alberto Degiovanni - 39