RNA-dependent DNA polymerase (reverse transcriptase)

Baltimore, D.: RNA-dependent DNA-polymerase in virions of RNA Tumor Viruses. Nature226, 1209 (1970)Google Scholar

Bauer, G.: Isolierung und Eigenschaften einer neuen Reversen Transkriptase im Hühner-system. Dissertation. Universität München 1976Google Scholar

Bauer, G., Hofschneider, P.H.: An RNA-dependent DNA polymerase, different from the known viral reverse transcriptases, in the chicken system. Proc. Natl. Acad. Sci. USA73, 3025 (1976)Google Scholar

Bauer, G., Jilek, G., Hofschneider, P.H.: A new, not virus related reverse transcriptase in the chicken system. In: Modern Trends in Human Leukemia II (eds. R. Neth et al., pp. 515. München: J. F. Lehmanns 1976Google Scholar

Bauer, G., Friis, R. R., Jilek, G., Hofschneider, P.H.: Purification and characterization of particles, containing RNA-dependent DNA polymerase, in the allantoic fluid of uninfected Leukosis virus-free chicken eggs. Submitted for publication.Google Scholar

Bauer, G., Jilek, G., Hofschneider, P. H.: Purification and further characterization of an. RNA-dependent DNA polymerase from the allantoic fluid of Leukosis virus-free chicken eggs. Submitted for publication.Google Scholar

Bobrow, S.N., Smith, R.G., Reitz, M.S., Gallo, R.C.: DNA-directed and RNA-primed synthesis in microsomal and mitochondrial fractions of normal human lymphocytes. Proc. Natl. Acad. Sci. USA69, 3228 (1972)Google Scholar

Duesberg, P.H., Wang, L.-H., Mellon, P., Mason, W.S., Vogt, P.K.: Towards a complete map of Rous sarcoma virus. In: Animal Virology (eds. D. Baltimore et al.), pp. 107. New York-San Francisco-London: Academic Press 1976Google Scholar

Fridlender, B., Fry, M., Bolden, A., Weissbach, A.: A new synthetic RNA-dependent DNA polymerase from human tissue culture cells. Proc. Natl. Acad. Sci. USA69, 452 (1972)Google Scholar

Gallo, R.C., Gallagher, R.E., Miller, N.R., Mondal, H., Saxinger, W.C., Mayer, R.J., Smith, R.G., Gillespie, D.H.: Relationship between components in primate RNA Tumor viruses and in the cytoplasma of human leukemic cells. Implications to leukemogenesis. Cold Spring Harbor Symposia on Quantitative Biology19, 933 (1975)Google Scholar

Gallo, R.C.: RNA Tumor Viruses and Leukemia: valuation of present results supporting their presence in human leukemias. In: Modern Trends in Human Leukemia II (eds. R. Neth et al.), pp. 431. München: J.F. Lehmanns 1976Google Scholar

Joho, R.H., Stoll, E., Friis, R.R., Billeter, M.A., Weissmann, C: A partial genetic map of Rous sarcoma virus RNA: Location of polymerase envelope and transformation markers. In: Animal Virology (eds. D. Baltimore et al.), pp. 127. New York-San Francisco-London: Academic Press 1976Google Scholar

Kang, C.Y., Temin, H.M.: Endogenous RNA-directed DNA polymerase activity in uninfected chicken embryos. Proc. Natl. Acad. Sci USA69, 1550 (1972)Google Scholar

Maia, J.C.C., Rougeon, F., Chapeville, F.: Chick embryo poly (rA: dT)-dependent DNA polymerase. FEBS Letters18, 130 (1971)Google Scholar

Margalith, M., Gerard, G.E., Green, M.: Studies an DNA polymerase activity contained in particles released from human embryo cell monolayers. BBA425, 305 (1976)Google Scholar

Mayer, R.J., Smith, R.G., Gallo, R.C.: Reverse transcriptase in normal τ rhesus monkey placenta. Science185, 864 (1974)Google Scholar

Penner, P.E., Cohen, L.H., Loeb, L.A.: RNA-dependent DNA-polymerase: Presence in normal human cells. BBRC42, 1228 (1971)Google Scholar

Penner, P.E., Cohen, L.M., Loeb, L.A.: RNA-dependent DNA-polymerase in human lymphocytes during gene activation by phythaemagglutinin. Nature New Biology232, 58, (1971)Google Scholar

Scolnick, E.M., Aaronson, S.A., Todaro, G.J., Parks, W.P.: RNA-dependent DNA polymerase activity in mammalian cells. Nature229, 318 (1971)Google Scholar

Spiegelmann, S.: Molecular evidence for the association of RNA Tumor Viruses with human mesenchymal malignancies. In: Modern Trends in Human Leukemia II (eds. R. Neth et al.), pp. 391. München: J.F. Lehmanns 1976Google Scholar

Stavrianopoulos, J.G., Karkas, J.D., Chargaff, E.: Nucleid acid polymerase of the developing chicken embryo: A DNA polymerase preferring a hybrid template. Proc. Natl. Acad. Sci. USA68, 2207 (1971)Google Scholar

Stavrianopoulos, J.G., Karkas, J.D., Chargaff, E.: DNA polymerase of chicken embryo: purification and properties. Proc. Natl. Acad. Sci. USA69, 1781 (1972)Google Scholar

Temin, H.M.: Nature of the provirus of Rous sarcoma. National Cancer Institute Monograph17, Avian Tumor Viruses, pp. 557 (1964 b)Google Scholar

Temin, H.M., Mizutani, S.: RNA-dependent DNA polymerase in virions of Rous sarcoma virus. Nature226, 1211 (1970)Google Scholar

Temin, H.M.: The protovirus hypothesis: Speculations on the significance of RNA-directed DNA synthesis for normal development and for carcinogenesis. J. Nat. Canc. Inst.46, III-VII (1971)Google Scholar

Temin, H.M.: The cellular and molecular biology of RNA Tumor Viruses, especially Avian Leukosis-Sarcoma Viruses, and their relatives. Advances in Cancer Research19, 47 (1974)Google Scholar

Tooze, J. (editor): The Molecular Biology of Tumor Viruses, second edition. New York: Cold Spring Harbor Laboratory 1977Google Scholar

Varmus, H.E., Stehelin, D., Spector, D., Tal, J., Fujita, D., Padgett, T., Roulland-Dussoix, D., Kung, H.-J., Bishop, J.M.: Distribution and function of defined regions of Avian tumor virus genomes in viruses and uninfected cells. In: Animal Virology (eds. D. Baltimore et al.), pp. 339. New York-San Francisco-London: Academic Press 1976.Google Scholar

Ward, D.C., Humphreys, K.C., Weinstein, I.B.: Synthetic RNA-dependent DNA polymerase activity in normal rat liver and hepatomas. Nature237, 499 (1972)Google Scholar

Weissbach, A.: Vertebrate DNA polymerases. Cell5, 101 (1975)Google Scholar