[1] K. Wook, L. Kyung, H. Sung, J. Shin and D. Shin. Prediction of output factor, range, and spread-out bragg peak for proton therapy, Medical Dosimetry, 36 (2011) 145–152.
[2] W. Newhause and R. Zhang. The physics of proton therapy, Physics in Medicine & Biology, 15 (2015) 155–209.
[3] Y. Lin, S. Mahon and H. Paganetti. Biological modeling of gold nanoparticle enhanced radiotherapy for proton therapy, Physics in Medicine and Biology, 60 (2015) 49–68.
[4] U. Amaldi and G. Kraft. Radiotherapy with beams of carbon ions, Rep Prog Phys, 68 (2005) 1861–1882.
[5] D. Kim, and Y. Lim. PREDICTION OF OUTPUT FACTOR, RANGE, AND SPREAD-OUT BRAGG PEAK FOR PROTON THERAPY, Medical Dosimetry, 36 (2011) 145–152.
[6] T. Bortfeld and W. Schlegel. An analytical approximation of depth dose distributions for therapeutic proton beams, IOPscience, 41 (1996) 1331–1339.
[7] S.A. Mahdipour and A.A. Mowlavi. Ion therapy for uveal melanoma in new human eye phantom based on GEANT4 toolkit, Medical Dosimetry, 41 (2016) 118–125.
[8] G. Cirrone, G. Cuttone and S. Enrico. Hadrontherapy: a Geant4-Based Tool for Proton/Ion-Therapy Studies, Progress in NUCLEAR SCIENCE and TECHNOLOGY, 2 (2011) 207212.
[9] B. Jia, S. Romano and F. Cirrone. Designing a range modulator wheel to spread-out the Bragg peak for a passive proton therapy facility, Nuclear Instruments and Methods in Physics Research A, 806 (2016) 101–108.
[10] B. Arfken, J. Weber and E. Harris. Mathematical methods for Physicists, Seventh edition, 7 (2013) 101–1200.
[11] S. Park, W. Jung, S. Tae, H. Hong and P. Sun. Variation of Bragg Curve Characteristic Induced by Changing the Position of Inhomogeneous Material: Geant4 Simulation Study. Journal of the Korean Physical Society, 58 (2011) 187–197.