Approaches to combat hypoxia in cancer therapy and the potential for in silico models in their evaluation

被引:20
作者
Forster, Jake C. [1 ,2 ]
Marcu, Loredana G. [3 ,4 ,5 ]
Bezak, Eva [2 ,4 ,5 ]
机构
[1] Queen Elizabeth Hosp, Dept Nucl Med, SA Med Imaging, Woodville South, SA 5011, Australia
[2] Univ Adelaide, Dept Phys, North Terrace, Adelaide, SA 5005, Australia
[3] Univ Oradea, Fac Sci, Oradea 410087, Romania
[4] Univ South Australia, Canc Res Inst, Adelaide, SA 5001, Australia
[5] Univ South Australia, Sch Hlth Sci, Adelaide, SA 5001, Australia
来源
PHYSICA MEDICA-EUROPEAN JOURNAL OF MEDICAL PHYSICS | 2019年 / 64卷
关键词
Hypoxic radiosensitizers; In silico oncology; Predictive models; Treatment optimization; Radiotherapy; Chemotherapy; CELL LUNG-CANCER; COMPUTER-SIMULATION; TUMOR OXYGENATION; MONTE-CARLO; RADIATION RESPONSE; NECK-CANCER; SOLID TUMOR; THEORETICAL SIMULATION; HYPERBARIC-OXYGEN; TARGETING HYPOXIA;
D O I
10.1016/j.ejmp.2019.07.006
中图分类号
R8 [特种医学]; R445 [影像诊断学];
学科分类号
1002 ; 100207 ; 1009 ;
摘要
Aim: The negative impact of tumour hypoxia on cancer treatment outcome has been long-known, yet there has been little success combating it. This paper investigates the potential role of in silico modelling to help test emerging hypoxia-targeting treatments in cancer therapy. Methods: A Medline search was undertaken on the current landscape of in silico models that simulate cancer therapy and evaluate their ability to test hypoxia-targeting treatments. Techniques and treatments to combat tumour hypoxia and their current challenges are also presented. Results: Hypoxia-targeting treatments include tumour reoxygenation, hypoxic cell radiosensitization with nitroimidazoles, hypoxia-activated prodrugs and molecular targeting. Their main challenges are toxicity and not achieving adequate delivery to hypoxic regions of the tumour. There is promising research toward combining two or more of these techniques. Different types of in silico therapy models have been developed ranging from temporal to spatial and from stochastic to deterministic models. Numerous models have compared the effectiveness of different radiotherapy fractionation schedules for controlling hypoxic tumours. Similarly, models could help identify and optimize new treatments for overcoming hypoxia that utilize novel hypoxia-targeting technology. Conclusion: Current therapy models should attempt to incorporate more sophisticated modelling of tumour angiogenesis/vasculature and vessel perfusion in order to become more useful for testing hypoxia-targeting treatments, which typically rely upon the tumour vasculature for delivery of additional oxygen, (pro) drugs and nanoparticles.
引用
收藏
页码:145 / 156
页数:12
相关论文
共 139 条
[1]   Blood Substitutes: Possibilities with Nanotechnology [J].
Alam, Feroz ;
Yadav, Neha ;
Ahmad, Murad ;
Shadan, Mariyam .
INDIAN JOURNAL OF HEMATOLOGY AND BLOOD TRANSFUSION, 2014, 30 (03) :155-162
[2]   Nanoparticles for Targeting Intratumoral Hypoxia: Exploiting a Potential Weakness of Glioblastoma [J].
Aldea, Mihaela ;
Florian, Ioan Alexandru ;
Kacso, Gabriel ;
Craciun, Lucian ;
Boca, Sanda ;
Soritau, Olga ;
Florian, Ioan Stefan .
PHARMACEUTICAL RESEARCH, 2016, 33 (09) :2059-2077
[3]   A patient-specific in vivo tumor and normal tissue model for prediction of the response to radiotherapy -: A computer simulation approach [J].
Antipas, V. P. ;
Stamatakos, G. S. ;
Uzunoglu, N. K. .
METHODS OF INFORMATION IN MEDICINE, 2007, 46 (03) :367-375
[4]   A spatio-temporal simulation model of the response of solid tumours to radiotherapy in vivo:: parametric validation concerning oxygen enhancement ratio and cell cycle duration [J].
Antipas, VP ;
Stamatakos, GS ;
Uzunoglu, NK ;
Dionysiou, DD ;
Dale, RG .
PHYSICS IN MEDICINE AND BIOLOGY, 2004, 49 (08) :1485-1504
[5]   Relative clinical effectiveness of carbon ion radiotherapy: theoretical modelling for H&N tumours [J].
Antonovic, Laura ;
Dasu, Alexandru ;
Furusawa, Yoshiya ;
Toma-Dasu, Iuliana .
JOURNAL OF RADIATION RESEARCH, 2015, 56 (04) :639-645
[6]   Clinical oxygen enhancement ratio of tumors in carbon ion radiotherapy: the influence of local oxygenation changes [J].
Antonovic, Laura ;
Lindblom, Emely ;
Dasu, Alexandru ;
Bassler, Niels ;
Furusawa, Yoshiya ;
Toma-Dasu, Iuliana .
JOURNAL OF RADIATION RESEARCH, 2014, 55 (05) :902-911
[7]   Enhancement of radiation effect on cancer cells by gold-pHLIP [J].
Antosh, Michael P. ;
Wijesinghe, Dayanjali D. ;
Shrestha, Samana ;
Lanou, Robert ;
Huang, Yun Hu ;
Hasselbacher, Thomas ;
Fox, David ;
Neretti, Nicola ;
Sun, Shouheng ;
Katenka, Natallia ;
Cooper, Leon N. ;
Andreev, Oleg A. ;
Reshetnyak, Yana K. .
PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA, 2015, 112 (17) :5372-5376
[8]   Correlation of a hypoxia based tumor control model with observed local control rates in nasopharyngeal carcinoma treated with chemoradiotherapy [J].
Avanzo, Michele ;
Stancanello, Joseph ;
Franchin, Giovanni ;
Sartor, Giovanna ;
Jena, Rajesh ;
Drigo, Annalisa ;
Dassie, Andrea ;
Gigante, Marco ;
Capra, Elvira .
MEDICAL PHYSICS, 2010, 37 (04) :1533-1544
[9]   Track structure modeling in liquid water: A review of the Geant4-DNA very low energy extension of the Geant4 Monte Carlo simulation toolkit [J].
Bernal, M. A. ;
Bordage, M. C. ;
Brown, J. M. C. ;
Davidkova, M. ;
Delage, E. ;
El Bitar, Z. ;
Enger, S. A. ;
Francis, Z. ;
Guatelli, S. ;
Ivanchenko, V. N. ;
Karamitros, M. ;
Kyriakou, I. ;
Maigne, L. ;
Meylan, S. ;
Murakami, K. ;
Okada, S. ;
Payno, H. ;
Perrot, Y. ;
Petrovic, I. ;
Pham, Q. T. ;
Ristic-Fira, A. ;
Sasaki, T. ;
Stepan, V. ;
Tran, H. N. ;
Villagrasa, C. ;
Incerti, S. .
PHYSICA MEDICA-EUROPEAN JOURNAL OF MEDICAL PHYSICS, 2015, 31 (08) :861-874
[10]   Modeling and computer simulations of tumor growth and tumor response to radiotherapy [J].
Borkenstein, K ;
Levegrün, S ;
Peschke, P .
RADIATION RESEARCH, 2004, 162 (01) :71-83