Critical volume model analysis of lung complication data from different strains of mice

International Journal of Radiation Biology

Volumn 81, Issue 1, 2005, Pages 77-88

  Stavrev, P ^a   Stavreva, N ^a   Sharplin, J ^a   Fallone, B G ^a   Franko, A ^a  

^a CROSS CANCER INSTITUTE   (Canada)

Author keywords

Critical volume; NTCP models; Population and individual dose response; Radiation pneumonitis; Radiosensitivity

Indexed keywords

ANIMAL EXPERIMENT; ANIMAL MODEL; ANIMAL TISSUE; ARTICLE; BIOLOGICAL MODEL; CELL COUNT; CONTROLLED STUDY; CRITICAL VOLUME NORMAL TISSUE COMPLICATION PROBABILITY MODEL; DOSE RESPONSE; HISTOLOGY; LUNG COMPLICATION; LUNG INJURY; LUNG INSUFFICIENCY; LUNG STRUCTURE; LUNG VOLUME; MAXIMUM LIKELIHOOD METHOD; MOUSE; MOUSE STRAIN; NONHUMAN; PRIORITY JOURNAL; PROBABILITY; RADIATION PNEUMONIA; RADIOSENSITIVITY; RESPIRATORY DISTRESS; STRAIN DIFFERENCE;

ANIMALIA;

EID: 18744382784     PISSN: 09553002     EISSN: 13623095     Source Type: Journal    
DOI: 10.1080/09553000400027910     Document Type: Article

References (28)

1. Bennett DE, Million RR, Ackerman LV. 1969. Bilateral radiation penumonitis, a complication of the radiotherapy of bronchogenic carcinoma. (Report and analysis of seven cases with autopsy.), Cancer 23: 1001-1018.
2. Down JD, Steel GG. 1983. The expression of early and late damage after thoracic irradiation: a comparison between CBA and C57B1 mice. Radiation Research 96: 603-610.
3. Franko AJ, Sharplin J. 1993. Assessment of radiation-induced lung injury in mice using carbon monoxide uptake: correlation with histologically visible damage. Radiation Research 133: 245-251.
4. Franko AJ, Sharplin J. 1994. Development of fibrosis after lung irradiation in relation to inflammation and lung function in a mouse strain prone to fibrosis. Radiation Research 140: 347-355.
5. Franko AJ, Sharplin J, Ward WF, Hinz JM. 1991. The genetic basis of strain-dependent differences in the early phase of radiation injury in mouse lung. Radiation Research 126: 349-356.
6. Jackson A, Kutcher GJ, Yorke ED. 1993. Probability of radiation-induced complications for normal tissues with parallel architecture subject to non-uniform irradiation. Medical Physics 20: 613-625.
7. Jennings F, Arden A. 1962. Development of radiation pneumonitis: time and dose factors. Archives of Pathology 74: 351-360.
8. Kallman P, Agren A, Brahme A. 1992. Tumour and normal tissue responses to fractionated non-uniform dose delivery. International Journal of Radiation Biology 62: 249-262.
9. Lyman JT. 1985. Complication probability as assessed from dose-volume histograms. Radiation Research Supplement 8: S13-S19.
10. Niemierko A, Goitein M. 1993. Modeling of normal tissue response to radiation: the critical volume model. International Journal of Radiation Oncology, Biology, Physics 25: 135-145.
11. Olsen DR. 1990. In: 9th Annual European Society of Therapeutic Radiology and Oncology Meeting, Montecatini Terme, Italy.
12. Olsen DR, Kambestad BK, Kristoffersen DT. 1994. Calculation of radiation induced complication probabilities for brain, liver and kidney, and the use of a reliability model to estimate critical volume fractions. British Journal of Radiology 67: 1218-1225.
13. Rubin P, Casarett G. 1968. Clinical radiation pathology. Saunders: Philadelphia.
14. Schultheiss TE, Orton CG, Peck RA. 1983. Models in radiotherapy: volume effects. Medical Physics 10: 410-415.
15. Sharplin J, Franko AJ. 1982. Irradiation of mouse lungs causes a dose-dependent increase in lung weight. International Journal of Radiation Oncology, Biology and Physics 8: 1065-1069.
16. Sharplin J, Franko AJ. 1989a. A quantitative histological study of strain-dependent differences in the effects of irradiation on mouse lung during the early phase. Radiation Research 119: 1-14.
17. Sharplin J, Franko AJ. 1989b. A quantitative histological study of strain-dependent differences in the effects of irradiation on mouse lung during the intermediate and late phases. Radiation Research 119: 15-31.
18. Stavrev P, Stavreva N, Niemierko A, Goitein M. 2001a. The application of biological models to clinical data. Physica Medica 17: 71-82.
19. Stavrev P, Stavreva N, Niemierko A, Goitein M. 2001b. Generalization of a model of tissue response to radiation based on the idea of functional subunits and binomial statistics. Physics in Medicine and Biology 46, 1501-1518.
20. Thames HD, Hendry JH, Moore JV, Ang KK, Travis EL. 1989. The high steepness of dose - response curves for late-responding normal tissues. Radiotherapy and Oncology 15: 49-53.
21. Travis EL, Tucker SL. 1986. The relationship between functional assays of radiation response in the lung and target cell depletion. British Journal of Cancer Supplement 7: 304-319.
22. Tucker SL, Liao ZX, Travis EL. 1997. Estimation of the spatial distribution of target cells for radiation pneumonias in mouse lung. International Journal of Radiation Oncology, Biology and Physics 38: 1055-1066.
23. Van Dyk J, Keane TJ, Kan S, Rider WD, Fryer CJ. 1981. Radiation pneumonitis following large single dose irradiation: a re-evaluation based on absolute dose to lung. International Journal of Radiation Oncology, Biology, Physics 7: 461-467.
24. Warren S, Spencer J. 1940. Radiation reaction in the lung. American Journal of Roentgenology 43: 682-701.
25. Withers HR, Taylor JM, Maciejewski B. 1988. Treatment volume and tissue tolerance. International Journal Radiation Oncology, Biology, Physics 14: 751-759.
26. Wolbarst AB, Chin LM, Svensson GK. 1982. Optimization of radiation therapy: integral-response of a model biological system. International Journal Radiation Oncology, Biology, Physics 8: 1761-1769.
27. Yeh HC, Schum GM, Duggan MT. 1979. Anatomic models of the tracheobronchial and pulmonary regions of the rat. Anatomical Record 195: 483-492.
28. Yorke ED, Kutcher GJ, Jackson A, Ling CC. 1993. Probability of radiation-induced complications in normal tissues with parallel architecture under conditions of uniform whole or partial organ irradiation. Radiotherapy and Oncology 26: 226-237.