Pooling of dose responses animated: http://iangoddard.com/Linea...
National Academy of Sciences (2006). BEIR VII. http://www.nap.edu/read/11340
Solid-Cancer Dose Responses (adult and mixed age) Post-BEIR VII
Boice JD et al (2006). Mortality among Radiation Workers at Rocketdyne (Atomics International), 1948–1999, Radiat Res. 166(1 Pt 1):98-115. http://pubmed.gov/16808626
Cardis et al (2007). The 15-Country Collaborative Study of Cancer Risk among Radiation Workers in the Nuclear Industry: estimates of radiation-related cancer risks. Radiat Res. 167(4):396-416. http://pubmed.gov/17388693
Ronckers et al (2008). Multiple diagnostic X-rays for spine deformities and risk of breast cancer. Cancer Epidemiol Biomarkers Prev. 17(3):605-13. http://pubmed.gov/18349278
Muirhead et al (2009). Mortality and cancer incidence following occupational radiation exposure: third analysis of the National Registry for Radiation Workers. Br J Cancer. 13; 100(1): 206–212. http://pubmed.gov/19127272
Ozasa et al (2012). Studies of the Mortality of Atomic Bomb Survivors, Report 14, 1950–2003: An Overview of Cancer and Noncancer Diseases. Radiat Res. 177(3):229-43. http://pubmed.gov/22171960
Schonfeld et al (2013). Solid Cancer Mortality in the Techa River Cohort (1950–2007). Radiat Res. 179(2):183-9. http://pubmed.gov/23289384
Metz-Flemant et al (2013). Mortality associated with chronic external radiation exposure in the French combined cohort of nuclear workers. Occup Environ Med. 70(9):630-8. http://pubmed.gov/23716722
Kashcheev et al (2015). Incidence and mortality of solid cancer among emergency workers of the Chernobyl accident: assessment of radiation risks for the follow-up period of 1992–2009. Radiat Environ Biophys. 54(1):13-23. http://pubmed.gov/25315643
Davis et al (2015). Solid Cancer Incidence in the Techa River Incidence Cohort: 1956–2007. Radiat Res. 184(1):56-65. http://pubmed.gov/26121228
Sokolnikov et al (2015). Radiation Effects on Mortality from Solid Cancers Other than Lung, Liver, and Bone Cancer in the Mayak Worker Cohort: 1948–2008. PLoS One. 26;10(2):e0117784. http://pubmed.gov/25719381
Richardson et al (2015). Risk of cancer from occupational exposure to ionising radiation: retrospective cohort study of workers in France, the United Kingdom, and the United States (INWORKS). BMJ. 351:h5359. http://pubmed.gov/26487649
Solid-Cancer Dose Responses (children) Post-BEIR VII
Spycher et al (2015). Background ionizing radiation and the risk of childhood cancer: a census-based nationwide cohort study. Environ Health Perspect. 123(6):622-8. Shown @ 6:20 but not included in the pooled graph graph due to x axis being dose rate, not cumulative dose. http://pubmed.gov/25707026
Pearce et al (2012). Radiation exposure from CT scans in childhood and subsequent risk of leukaemia and brain tumours: a retrospective cohort study. Lancet. 380(9840):499-505. http://pubmed.gov/22681860
Mathews et al (2013). Cancer risk in 680,000 people exposed to computed tomography scans in childhood or adolescence: data linkage study of 11 million Australians. BMJ. 21;346:f2360. http://pubmed.gov/23694687
Kendall et al (2013). A record-based case–control study of natural background radiation and the incidence of childhood leukaemia and other cancers in Great Britain during 1980–2006. Leukemia. 27(1):3-9. http://pubmed.gov/22766784
Child-only leukemia graphs shown after 6:55 are from Pearce and Kendall above.
Pooled solid-cancer studies animation: http://iangoddard.com/Linea...
Note: the pooled graphs use the Excess Relative Risk (ERR) standard where baseline risk is valued @ 0. Included graphs using the Relative Risk (RR) standard, where baseline risk is valued @ 1, are fit into the pooled graph by the standard definition: ERR = RR - 1
In the case of Mathews et al (2013) (fitted @ 3:21), the y axis is Incidence Rate Ratio (IRR), which is equivalent to RR. Additionally, the x axis in Mathews is a count of CT scans. As per Table 8, the average scan in the 5-year-lag group whose graph I used (given it is between the 1- and 10-year lag groups) was 4.5 mSv, with the maximum data point representing a sub-group with an average of 3.5 scans, hence 15.75 mSv is the x-axis value for the highest-dose data point (see Mathews Fig 2 for the 1-year lag and Appendix Figures A(a,b) for the 5- and 10-year lag graphs http://bmj.com/content/bmj/...
... , of which I used the 5-year lag).