AAPM (1986). American Association of Physicists in Medicine. Protocol for Heavy Charged-Particle Therapy Beam Dosimetry. AAPM Report 16 (American Association of Physicists in Medicine, New York, NY).
2.
BichselH. and HiraokaT. (1992). Energy-loss of 70 Mev protons in elements. Nucl. Instrum. Methods Phys. Res. B, 66, 345–351.
3.
BredeH.J., GreifK.D., HeckerO., HeegP., HeeseJ., JonesD.T., KlugeH. and SchardtD. (2006). Absorbed dose to water determination with ionization chamber dosimetry and calorimetry in restricted neutron, photon, proton and heavy-ion radiation fields. Phys. Med. Biol., 51, 3667–3682.
4.
BrusascoC., VossB., SchardtD., KramerM. and KraftG. (2000). A dosimetry system for fast measurement of 3D depth-dose profiles in charged-particle tumor therapy with scanning techniques. Nucl. Instrum. Methods Phys. Res. B, 168, 578–592.
5.
CastriconiR., CioccaM., MirandolaA., SiniC., BroggiS., SchwarzM., FracchiollaF., MartisikovaM., AricoG., MettivierG. and RussoP. (2017). Dose–response of EBT3 radiochromic films to proton and carbon ion clinical beams. Phys. Med. Biol., 62, 377–393.
6.
DIN (2016). Deutsches Institut für Normung. Procedures of Dosimetry with Probe-Type Detectors for Proton and Ion Radiation – Part 1: Ionization Chambers. DIN 6801-1 (Beuth, Berlin).
7.
DingfelderM. (2014). Updated model for dielectric response function of liquid water. Appl. Radiat. Isot., 83, 142–147.
8.
DingfelderM., HantkeD., InokutiM. and ParetzkeH.G. (1998). Electron inelastic-scattering cross sections in liquid water. Radiat. Phys. Chem., 53, 1–18.
9.
EmfietzoglouD., Garcia-MolinaR., KyriakouI., AbrilI. and NikjooH. (2009). A dielectric response study of the electronic stopping power of liquid water for energetic protons and a new I-value for water. Phys. Med. Biol., 54, 3451–3472.
10.
FurukawaT., SaotomeN., InaniwaT., SatoS., NodaK. and KanaiT. (2008). Delivery verification using 3D dose reconstruction based on fluorescence measurement in a carbon beam scanning irradiation system. Med. Phys., 35, 2235–2242.
11.
GeithnerO., AndreoP., SobolevskyN., HartmannG. and JakelO. (2006). Calculation of stopping power ratios for carbon ion dosimetry. Phys. Med. Biol., 51, 2279–2292.
12.
GomaC., AndreoP. and SempauJ. (2013). Spencer-Attix water/medium stopping-power ratios for the dosimetry of proton pencil beams. Phys. Med. Biol., 58, 2509–2522.
HabererT., BecherW., SchardtD. and KraftG. (1993). Magnetic scanning system for heavy-ion therapy. Nucl. Instrum. Methods Phys. Res. A, 330, 296–305.
15.
HartmannG.H., JäkelO., HeegP., KargerC.P. and KriessbachA. (1999). Determination of water absorbed dose in a carbon ion beam using thimble ionization chambers. Phys. Med. Biol., 44, 1193–1206.
16.
HartmannB., TelsemeyerJ., HuberL., AckermannB., JakelO. and MartisikovaM. (2012). Investigations of a flat-panel detector for quality assurance measurements in ion beam therapy. Phys. Med. Biol., 57, 51–68.
17.
HenknerK., BasslerN., SobolevskyN. and JakelO. (2009). Monte Carlo simulations on the water-to-air stopping power ratio for carbon ion dosimetry. Med. Phys., 36, 1230–1235.
18.
IAEA (2000). International Atomic Energy Agency. Absorbed Dose Determination in External Beam Radiotherapy: An International Code of Practice for Dosimetry based on Standards of Absorbed Dose to Water. IAEA TRS-398 (International Atomic Energy Agency, Vienna).
19.
ICRU (1984). International Commission on Radiation Units and Measurements. Stopping Powers for Electrons and Positrons. ICRU Report 37 (International Commission on Radiation Units and Measurements, Bethesda, MD).
20.
ICRU (1993). International Commission on Radiation Units and Measurements. Stopping Powers and Ranges for Protons and Alpha Particles. ICRU Report 49 (International Commission on Radiation Units and Measurements, Bethesda, MD).
21.
ICRU (1998). International Commission on Radiation Units and Measurements. Clinical Proton Dosimetry Part I: Beam Production, Beam Delivery and Measurement of Absorbed Dose. ICRU Report 59 (International Commission on Radiation Units and Measurements, Bethesda, MD).
22.
ICRU (2005). International Commission on Radiation Units and Measurements. Stopping of Ions Heavier than Helium. ICRU Report 73, J. ICRU Vol. 5(1) (Oxford University Press, Oxford).
23.
ICRU (2007). International Commission on Radiation Units and Measurements. Prescribing, Recording, and Reporting Proton-Beam Therapy. ICRU Report 78, J. ICRU Vol. 7(2) (Oxford University Press, Oxford).
24.
ICRU (2009). International Commission on Radiation Units and Measurements. Errata and Addenda for ICRU Report 73, Stopping of Ions Heavier than Helium. ICRU Report 73, J. ICRU Vol. 5(1) (Oxford University Press, Oxford).
25.
ICRU (2016). International Commission on Radiation Units and Measurements. Key Data for Ionizing-Radiation Dosimetry: Measurement Standards and Applications. ICRU Report 90, J. ICRU Vol. 14(1) (Oxford University Press, Oxford).
26.
JäkelO., HartmannG.H., HeegP. and SchardtD. (2000). Effective point of measurement of cylindrical ionization chambers for heavy charged particles. Phys. Med. Biol., 45, 599–607.
27.
JäkelO., JacobC., SchardtD., KargerC.P. and HartmannG.H. (2001). Relation between carbon ion ranges and x-ray CT numbers. Med. Phys., 28, 701–703.
28.
JäkelO., HartmannG.H., KargerC.P., HeegP. and VatnitskyS. (2004). A calibration procedure for beam monitors in a scanned beam of heavy charged particles. Med. Phys., 31, 1009–1013.
29.
KanaiT., EndoM., MinoharaS., MiyaharaN., Koyama-itoH., TomuraH., MatsufujiN., FutamiY., FukumuraA., HiraokaT., FurusawaY., AndoK., SuzukiM., SogaF. and KawachiK. (1999). Biophysical characteristics of HIMAC clinical irradiation system for heavy-ion radiation therapy. Int. J. Radiat. Oncol. Biol. Phys., 44, 201–210.
30.
KanaiT., FukumuraA., KusanoY., ShimboM. and NishioT. (2004). Cross-calibration of ionization chambers in proton and carbon beams. Phys. Med. Biol., 49, 771–781.
31.
KargerC.P., JäkelO. and HartmannG.H. (1999). A system for three-dimensional dosimetric verification of treatment plans in intensity-modulated radiotherapy with heavy ions. Med. Phys., 26, 2125–2132.
32.
KargerC.P., JäkelO., PalmansH. and KanaiT. (2010). Dosimetry for ion beam radiotherapy. Phys. Med. Biol., 55, R193–R234.
33.
KohnoR., NishioT., MiyagishiT., HiranoE., HottaK., KawashimaM. and OginoT. (2006). Experimental evaluation of a MOSFET dosimeter for proton dose measurements. Phys. Med. Biol., 51, 6077–6086.
34.
KumazakiY.A., AkagiT., YabouT., SugaD., HishikawaY. and TeshimaT. (2007). Determination of the mean excitation energy ofwater from proton beam ranges. Radiat. Meas., 42, 1683–1691.
35.
KusanoY., KanaiT., KaseY., MatsufujiN., KomoriM., KanematsuN., ItoA. and UchidaH. (2007a). Dose contributions from large-angle scattered particles in therapeutic carbon beams. Med. Phys., 34, 193–198.
36.
KusanoY., KanaiT., YonaiS., KomoriM., IkedaN., TachikawaY., ItoA. and UchidaH. (2007b). Field-size dependence of doses of therapeutic carbon beams. Med. Phys., 34, 4016–4022.
37.
LitovchenkoP.G., BarabashL.I., RosenfeldA.B., KhivrichV.I., ZinetsO.S., KutsV.I., MarusanI.A., PetrovV.I., SluchenkovG.F., KovalG.N., FominychV.I., BelovodskiyL.F., DumikA.I. and KiblikV.Y. (1990). Mos structure for emergency-gamma and proton dosimetry. Radiat. Prot. Dosim., 33, 179–182.
38.
LomaxA.J., BohringerT., BolsiA., CorayD., EmertF., GoiteinG., JermannM., LinS., PedroniE., RutzH., StadelmannO., TimmermannB., VerweyJ. and WeberD.C. (2004). Treatment planning and verification of proton therapy using spot scanning: initial experiences. Med. Phys., 31, 3150–3157.
39.
LourencoA., ThomasR., HomerM., BouchardH., RossommeS., RenaudJ., KanaiT., RoyleG. and PalmansH. (2017). Fluence correction factor for graphite calorimetry in a clinical high-energy carbon-ion beam. Phys. Med. Biol., 62, N134.
40.
LührA., HansenD.C., JakelO., SobolevskyN. and BasslerN. (2011). Analytical expressions for water-to-air stopping-power ratios relevant for accurate dosimetry in particle therapy. Phys. Med. Biol., 56, 2515–2533. a.
41.
LührA., HansenD.C., SobolevskyN., PalmansH., RossommeS. and BasslerN. (2011). Fluence correction factors and stopping power ratios for clinical ion beams. Acta Oncol., 50, 797–805. b.
42.
MartisikovaM. and JäkelO. (2010). Dosimetric properties of Gafchromic EBT films in monoenergetic medical ion beams. Phys. Med. Biol., 55, 3741–3751.
43.
MartisikovaM., HesseB., NairzO. and JäkelO. (2009). “Performance of a flatpanel detector in scanned ion beams,” p. 132 in Proceedings of the 48th Meeting of the Particle Therapy Co-Operative Group (PTCOG), (German Medical Science GMS Publishing House, Düsseldorf).
44.
MartisikovaM., HesseB.M., NairzO. and JäkelO. (2011). Test of an amorphous silicon detector in medical proton beams. Nucl. Instrum. Methods Phys. Res. A, 633, s259–s261.
45.
MartisikovaM., HartmannB., HesseB.M., BronsS., AckermannB. and JakelO. (2012). Characterization of a flat-panel detector for ion beam spot measurements. Phys. Med. Biol., 57, 485–497.
46.
MartisikovaM., BronsS., HesseB.M. and JakelO. (2013). High-resolution fluence verification for treatment plan specific QA in ion beam radiotherapy. Phys. Med. Biol., 58, 1725–1738.
47.
McEwenM., DeWerdL., IbbottG., FollowillD., RogersD.W., SeltzerS. and SeuntjensJ. (2014). Addendum to the AAPM's TG‐51 protocol for clinical reference dosimetry of high‐energy photon beams. Med. Phys., 41, 041501.
48.
MedinJ. and AndreoP. (1997). Monte Carlo calculated stopping-power ratios, water/air, for clinical proton dosimetry (50–250 MeV). Phys. Med. Biol., 42, 89–105.
49.
Osinga-BlättermannJ., BronsS., GreilichS., JäkelO. and KraussA. (2017). Direct determination of k Q for Farmer-type ionization chambers in a clinical scanned carbon ion beam using water calorimetry. Phys. Med. Biol., 62, 2033–2054.
50.
PalmansH. (2006). Perturbation factors for cylindrical ionization chambers in proton beams. Part I: corrections for gradients. Phys. Med. Biol., 51, 3483–3501.
51.
PalmansH. and VerhaegenF. (2000). On the effective point of measurement of cylindrical ionization chambers for proton beams and other heavy charged particle beams. Phys. Med. Biol., 45, L20–L23.
52.
PalmansH., VerhaegenF., DenisJ.M., VynckierS. and ThierensH. (2001). Experimental p(wall) and p(cel) correction factors for ionization chambers in low-energy clinical proton beams. Phys. Med. Biol., 46, 1187–1204.
53.
ParodiK., MairaniA., BronsS., HaschB.G., SommererF., NaumannJ., JakelO., HabererT. and DebusJ. (2012). Monte Carlo simulations to support start-up and treatment planning of scanned proton and carbon ion therapy at a synchrotron-based facility. Phys. Med. Biol., 57, 3759–3784.
54.
PaulH. (2006). A comparison of recent stopping power tables for light and medium-heavy ions with experimental data, and applications to radiotherapy dosimetry. Nucl. Instrum. Methods Phys. Res. B, 247, 166–172.
PaulH., GeithnerO. and JäkelO. (2007). The influence of stopping powers upon dosimetry for radiation therapy with energetic ions. Sabin J.R., Brandäs E. (Eds). Adv Quantum Chem, 52, 289–306. a.
57.
PaulH., GeithnerO. and JakelO. (2007). The ratio of stopping powers of water and air for dosimetry applications in tumor therapy. Nucl. Instrum. Methods Phys. Res. B, 256, 561–564. b.
58.
RossommeS., PalmansH., ThomasR., LeeN., DuaneS., BaileyM., ShipleyD., BertrandD., RomanoF. and CirroneP. (2013). Reference dosimetry for light-ion beams based on graphite calorimetry. Radiat. Prot. Dosimetry, 62, 5365–5382.
59.
RossommeS., HopfgartnerJ., LeeN., DelorA., ThomasR., RomanoF., FukumuraA., VynckierS. and PalmansH. (2016). Ion recombination correction in carbon ion beams. Med. Phys., 43, 4198–4208.
60.
SakamaM., KanaiT., KaseY., KomoriM., FukumuraA. and KohnoT. (2005). Responses of a diamond detector to high-LET charged particles. Phys. Med. Biol., 50, 2275–2289.
61.
SakamaM., KanaiT. and FukumuraA. (2008). Development of a portable graphite calorimeter for radiation dosimetry. Igaku Butsuri, 28, 1–14.
62.
SakamaM., KanaiT., FukumuraA. and AbeK. (2009). Evaluation of w values for carbon beams in air, using a graphite calorimeter. Phys. Med. Biol., 54, 1111–1130.
63.
Sanchez-ParcerisaD., GemmelA., JakelO., ParodiK. and RietzelE. (2012). Experimental study of the water-to-air stopping power ratio of monoenergetic carbon ion beams for particle therapy. Phys. Med. Biol., 57, 3629–3641.
64.
SchneiderU., PedroniE. and LomaxA. (1996). The calibration of CT Hounsfield units for radiotherapy treatment planning. Phys. Med. Biol., 41, 111–124.
65.
SchulzR.J., VenkataramananN. and HuqM.S. (1990). The thermal defect of A-150 plastic and graphite for low-energy protons. Phys. Med. Biol., 35, 1563–1574.
66.
Shiomi-TsudaN., SakamotoN., OgawaH., TanakaM., SaithoM. and KitobaU. (1999). Stopping powers of N2 and O2 for protons from 4.0 to 13.0 MeV. Nucl. Instrum. Methods Phys. Res. B, 149, 17–24.
67.
SihverL., SchardtD. refand KanaiT. (1998). Depth-dose distributions of high-energy carbon, oxygen and neon beams in water. Jpn. J. Med. Phys., 18, 1–21.
68.
SpielbergerB., ScholzM., KramerM. and KraftG. (2001). Experimental investigations of the response of films to heavy-ion irradiation. Phys. Med. Biol., 46, 2889–2897.
69.
SpielbergerB., ScholzM., KramerM. and KraftG. (2002). Calculation of the x-ray film response to heavy charged particle irradiation. Phys. Med. Biol., 47, 4107–4120.
70.
SpielbergerB., KramerM. and KraftG. (2003). Three-dimensional dose verification with x-ray films in conformal carbon ion therapy. Phys. Med. Biol., 48, 497–505.
71.
TorikoshiM., MinoharaS., KanematsuN., KomoriM., KanazawaM., NodaK., MiyaharaN., ItohH., EndoM. and KanaiT. (2007). Irradiation system for HIMAC. J. Radiat. Res., 48, A15–A25.
72.
VynckierS., BonnettD.E. and JonesD.T. (1991). Code of practice for clinical proton dosimetry. Radiother. Oncol., 20, 53–63.
73.
VynckierS., BonnettD.E. and JonesD.T. (1994). Supplement to the code of practice for clinical proton dosimetry. ECHED (European Clinical Heavy Particle Dosimetry Group). Radiother. Oncol., 32, 174–179.
74.
YajimaK., KanaiT., KusanoY. and ShimojyuT. (2009). Development of a multi-layer ionization chamber for heavy-ion radiotherapy. Phys. Med. Biol., 54, N107–N114.
75.
ZieglerJ.F., BiersackJ.P. and ZieglerM.D. (2008). SRIM – The Stopping Power and Range of Ions in Matter (SRIM Co., Chester, MD, USA).