Citations (20)
Keep up to date with the latest research on this topic with citation updates for this article.
Read on this site (11)
J.Y. Ostashevsky. (1993) Cell Recovery Kinetics for Split-dose, Multifractionated and Continuous Irradiation in the DSB Model. International Journal of Radiation Biology 63:1, pages 47-58.
Read now
Read now
J.Y. Ostashevsky. (1992) Cellular Recovery Kinetics for Postirradiation Treatments. International Journal of Radiation Biology 62:3, pages 337-351.
Read now
Read now
M. Kapiszewska, N.M.S. Reddy & C.S. Lange. (1991) Trypsin-induced Changes in Cell Shape and Chromatin Structure Result in Radiosensitization of Monolayer Chinese Hamster V79 Cells. International Journal of Radiation Biology 60:4, pages 635-646.
Read now
Read now
S. Antoku & S. Kura. (1990) Enhancement of Radiosensitivity of Cultured Mammalian Cells by Neocarzinostatin. II. Fixation of Potentially Lethal Damage. International Journal of Radiation Biology 58:4, pages 623-632.
Read now
Read now
T. Kosaka, I. Kaneko & F. Koide. (1990) Correlation between Non-repairable DNA Lesions and Fixation of Cell Damage by Hypertonic Solutions in Chinese Hamster Cells. International Journal of Radiation Biology 58:3, pages 417-425.
Read now
Read now
Hirotoshi Maki. (1989) Lethal Effect and Potentially Lethal Damage Recovery in Cultured Mammalian Cells Irradiated by Neutron-capture Beams. International Journal of Radiation Biology 55:3, pages 397-409.
Read now
Read now
N.M.S. Reddy, A.F.G. Stevenson & C.S. Lange. (1989) Trypsinization and the Radiosensitivity of Mitotic and Log Phase Chinese Hamster V79 Cells Exposed to 250 kVp X-rays. International Journal of Radiation Biology 55:1, pages 105-117.
Read now
Read now
Catharine M.L. West & James V. Moore. (1988) Cell Survival Characteristics of a Human Colon Adenocarcinoma Cell Line after Photodynamic Treatment: A Comparison of Photofrin II and TPPS. International Journal of Radiation Biology 54:4, pages 621-634.
Read now
Read now
N. Kubota & C.K. Hill. (1988) Repair of Potentially Mutagenic Damage, Sensitive to Anisotonic Treatment, in Actively Growing Chinese Hamster Cells. International Journal of Radiation Biology 54:2, pages 221-228.
Read now
Read now
George Iliakis. (1988) Radiation-induced Potentially Lethal Damage: DNA Lesions Susceptible to Fixation. International Journal of Radiation Biology 53:4, pages 541-584.
Read now
Read now
C. Sun, J.L. Redpath, M. Colman & E.J. Stanbridge. (1985) Repair of Potentially Lethal Radiation Damage in Confluent and Non-confluent Cultures of Human Hybrid Cells. International Journal of Radiation Biology and Related Studies in Physics, Chemistry and Medicine 49:3, pages 395-402.
Read now
Read now
Articles from other publishers (9)
Sudhir Chandna, B. S. Dwarakanath, Divya Khaitan, T. Lazar Mathew & Viney Jain. (2002) Low-Dose Radiation Hypersensitivity in Human Tumor Cell Lines: Effects of Cell–Cell Contact and Nutritional Deprivation. Radiation Research 157:5, pages 516-525.
Crossref
Crossref
Daiji Endoh, Toyo Okui, Yasuhiro Kon & Masanobu Hayashi. (2001) Hypertonic Treatment Inhibits Radiation-Induced Nuclear Translocation of the Ku Proteins G22p1 (Ku70) and Xrcc5 (Ku80) in Rat Fibroblasts. Radiation Research 155:2, pages 320-327.
Crossref
Crossref
Toyo Okui, Daiji Endoh & Masanobu Hayashi. (1999) Deficiency in fast repair process of potentially lethal damage induced by X-irradiation in fibroblasts derived from LEC strain rats. Mutation Research/DNA Repair 435:1, pages 81-88.
Crossref
Crossref
Dennis P. Heller & G.Peter Raaphorst. (1994) The kinetics of cellular recovery in exponential and plateau growth phase human glioma cells following γ-irradiation. International Journal of Radiation Oncology*Biology*Physics 30:2, pages 383-390.
Crossref
Crossref
Hiroshi Utsumi & Mortimer M. Elkind. (1994) Inhibitors of poly (ADP-Ribose) synthesis inhibit the two types of repair of potentially lethal damage. International Journal of Radiation Oncology*Biology*Physics 29:3, pages 577-578.
Crossref
Crossref
H. Utsumi & M. M. Elkind. (2006)
Human Melanoma Cells:
Relationship Between Their Radiosensitivity and the Repair of Potentially Lethal Damage
. Radiation Oncology Investigations 1:1, pages 29-33.
Crossref
Crossref
Hans Peter Rutz, Philippe A. Coucke & RenéO. Mirimanoff. (1991) A linear-quadratic model of cell survival considering both sublethal and potentially lethal radiation damage. Radiotherapy and Oncology 21:4, pages 273-276.
Crossref
Crossref
HIROSHI UTSUMI, MASAMITSU ICHIHASHI, TOORU KOBAYASHI & MORTIMER M. ELKIND. (2006) Sublethal and Potentially Lethal Damage Repair on Thermal Neutron Capture Therapy. Pigment Cell Research 2:4, pages 337-342.
Crossref
Crossref
Catharine M.L. West, Peter C. Keng & Robert M. Sutherland. (1988) Growth phase related variation in the radiation sensitivity of human colon adenocarcinoma cells. International Journal of Radiation Oncology*Biology*Physics 14:6, pages 1213-1219.
Crossref
Crossref