Note to users. If you're seeing this message, it means that your browser cannot find this page's style/presentation instructions -- or possibly that you are using a browser that does not support current Web standards. Find out more about why this message is appearing, and what you can do to make your experience of our site the best it can be.

Site Tools

  • AAAS
  • Subscribe
  • Feedback

Site Search

Search Advanced

Science 17 May 1957:
Vol. 125. no. 3255, pp. 965 - 972
DOI: 10.1126/science.125.3255.965

Articles

Leukemia and Ionizing Radiation

E. B. Lewis 1

1 Professor of biology at the California Institute of Technology, Pasadena.

Leukemia in man can be induced by ionizing radiations and also occurs spontaneously. For the "average" individual in a population, the probability of developing radiation-induced leukemia is estimated to be 2 x 10–6 per rad (unit of absorbed dose of radiation) per year. The available data from four independent sources make it likely that this estimate is valid within a factor of about 3, giving a range from 0.7 x 10–6 to 6 x 10–6 per rad per year. It is pointed out that 10 to 20 percent of the spontaneous incidence of leukemia (Brooklyn, 1943-52) may result from radiation from natural background sources. It is estimated that a 5- to 10-percent increase in the current spontaneous incidence of leukemia would occur if the population were to reach and maintain a body level of Sr90 amounting to one-tenth of the "maximum permissible concentration."


THIS ARTICLE HAS BEEN CITED BY OTHER ARTICLES:
Edward B. Lewis, 1918-2004.
J. F. Crow and W. Bender (2004)
Genetics 168, 1773-1783
   Full Text »    PDF »
Cancer Risks among Radiologists and Radiologic Technologists: Review of Epidemiologic Studies.
S. Yoshinaga, K. Mabuchi, A. J. Sigurdson, M. M. Doody, and E. Ron (2004)
Radiology 233, 313-321
   Abstract »    Full Text »    PDF »
The development of protection standards for intakes of radionuclides (1955-2005).
J. W. Stather (2004)
Radiat Prot Dosimetry 109, 383-397
   Abstract »    Full Text »    PDF »
E. B. Lewis and the Bithorax Complex: Part II. From cis-trans Test to the Genetic Control of Development.
I. Duncan and G. Montgomery (2002)
Genetics 161, 1-10
   Full Text »    PDF »
Abdominal Implants of Strontium 90-Americium 241/Beryllium Sources: Simulation of Radiation Fields From Nuclear Powered Artificial Hearts.
R. B. Ponn, F. A. Molokhia, F. N. Huffman, G. W. Curtis, and J. C. Norman (1971)
Arch Surg 103, 701-704
   Abstract »    PDF »
Radiation Exposure in Air Travel.
H. J. Schaefer (1971)
Science 173, 780-783
   PDF »
Radiation Carcinogenesis: The Sequence of Events.
L. J. Cole and P. C. Nowell (1965)
Science 150, 1782-1786
   PDF »
A Methylhydrazine Derivative in Hodgkin's Disease and Other Malignant Neoplasms: Therapeutic and Toxic Effects Studied in 51 Patients.
K. W. BRUNNER and C. W. YOUNG (1965)
Ann Intern Med 63, 69-86
   Abstract »    PDF »
Irradiation Leukemogenesis.
J. S. Lawrence (1964)
JAMA 190, 1049-1054
   Abstract »    PDF »
Leukemia, Multiple Myeloma, and Aplastic Anemia in American Radiologists.
E. B. Lewis (1963)
Science 142, 1492-1494
   Abstract »    PDF »
Cancer: Relation of Prenatal Radiation to Development of the Disease in Childhood.
E. J. Sternglass (1963)
Science 140, 1102-1104
   Abstract »    PDF »
Life Shortening and Tumor Production by Strontium-90.
V. E. Archer and B. E. Carroll (1960)
Science 131, 1808-1809
   Abstract »    PDF »
Radiation Injury.
J. G. Kereiakes and A. T. Krebs (1960)
Arch Intern Med 105, 4-6
   Abstract »    PDF »
Environmental Radiation and Cancer: No threshold is demonstrable, and incidence may have rising inflection with intensity.
H. F. Blum (1959)
Science 130, 1545-1547
   PDF »
THE CLINICAL RADIOLOGIST AND THE PROBLEMS OF RADIATION HAZARDS.
W. G. Scott (1959)
JAMA 170, 421-428
   Abstract »    PDF »
Reviews of Internal Medicine: A Primer on Radiation Hazards for Physicians.
R. E. PETERSON, J. G. BARON, B. M. KENT, and T. C. EVANS (1959)
Arch Intern Med 103, 308-328
   Abstract »    PDF »
Hazard to Man of Carbon-14: What problems are encountered in the quantitative estimation of the biological hazards of carbon-14?.
J. R. Totter, M. R. Zelle, and H. Hollister (1958)
Science 128, 1490-1495
   PDF »
Chapter I: Physical Growth.
K. Jensen (1958)
Review of Educational Research 28, 375-391
   PDF »
Critique of the Linear Theory of Carcinogenesis: Present data on human leukemogenesis by radiation indicate that a nonlinear relation is more probable.
A. M. Brues (1958)
Science 128, 693-699
   Abstract »    PDF »
COMMON SENSE APPROACH TO THE PROBLEM OF GENETIC HAZARD DUE TO DIAGNOSTIC RADIOLOGY: REPORT BASED IN PART ON STUDY OF EXPOSURES IN A SMALL AMERICAN INDUSTRIAL CITY.
W. D. Norwood (1958)
JAMA 167, 1928-1935
   Abstract »    PDF »
MEDICINE'S GENETIC HORIZONS.
J. V. NEEL (1958)
Ann Intern Med 49, 472-476
   Abstract »    PDF »
IONIZING RADIATION AND A SENSE OF PROPORTION.
G. Tievsky (1958)
JAMA 166, 1667-1672
   Abstract »    PDF »
Leukemia in Hiroshima City Atomic Bomb Survivors.
N. WALD (1958)
Science 127, 699-700
   PDF »
THE DELAYED EFFECTS OF IONIZING RADIATION.
J. V. Neel (1958)
JAMA 166, 908-916
   Abstract »    PDF »
RADIATION DOSE TO GONADS FROM DIAGNOSTIC X-RAY EXPOSURE.
T. A. Lincoln and E. D. Gupton (1958)
JAMA 166, 233-239
   Abstract »    PDF »
Magnitude of Biological Hazard from Strontium-90.
H. B. Newcombe (1957)
Science 126, 549-551
   PDF »
The Genetic Hazards of Nuclear Radiations.
B. Glass (1957)
Science 126, 241-246
   PDF »



To Advertise     Find Products


Science. ISSN 0036-8075 (print), 1095-9203 (online)