Page 384 - Standard Handbook Petroleum Natural Gas Engineering VOLUME2
P. 384
350 Reservoir Engineering
129. Jones, F. O., and Owens, W. W., “A Laboratory Study of Low-Permeability
Gas Sands,”J. Pet. Tech. (Sept. 1980), pp. 1631-1640.
130. Wei, K. K., Morrow, N. R., and Brower, K. R., ‘The Effect of Fluid, Con-
fining Pressure, and Temperature on Absolute Permeabilities of Low-
Permeability Sandstones,” SPE Formation Evaluutiora (Aug. 1986), pp. 413-423.
131. Fatt, I., “The Effect of Overburden Pressure on Relative Permeability,” Tmns,
AIME (1953), pp. 325-326.
132. Bruce, W. A., and Welge, H. J., “The Restored-State Method for Deter-
mination of Oil in Place and Connate Water,” Drill. and Prod ha., API
(1947), pp. 166-174.
133. Craig, F. F., Jr., “The Reservoir Engineering Aspects of Waterflooding,”
Monograph Series, SPE, Dallas, Vol. 3 (1971).
134. Muskat, M., et al., ‘Flow of Gas-Liquid Mixtures through Sands,” Truns.,
AIME (1937), pp. 69-96.
135. Hassler, G. L., Rice, R. R., and Leeman, E. H., “Investigations on the
Recovery of Oil from Sandstones by Gas Drive,” Trans., AIME (1936),
pp. 116-137.
136. Botset, H. G., “Flow of Gas-Liquid Mixtures through Consolidated Sand,”
Trans., AIME, Vol. 136 (1940), pp. 91-105.
137. Leverett, M. C., and Lewis, W. B., “Steady Flow of Gas-Oil Water Mixtures
through Unconsolidated Sands,” Tmns., AIME, Vol. 142 (1941), pp. 107-116.
138. Krutter, H., and Day, R. J., “Air Drive Experiments on Long Horizontal
Consolidated Cores,” Pet. Tech., T. P. 1627 (Nov. 1943).
139. Osoba, J. S., et al., “Laboratory Measurements of Relative Permeability,”
Trans., AIME, Vol. 192 (1951), pp. 47-56.
140. Caudle, B. H., Slobod, R. L., and Brownscombe, E. R., “Further Develop-
ments in the Laboratory Determination of Relative Permeability,” Trans.,
AIME, Vol. 192 (1951), pp. 145-150.
141. Geffen, J. M., et al., “Experimental Investigation of Factors Affecting
Laboratory Relative Permeability Measurements,” Trans., AIME, Vol. 192
(1951), pp. 99-110.
142. Richardson, J. G., et al., “Laboratory Determination of Relative Permeability,”
Trans., AIME, Vol. 195 (1952), pp. 187-196.
143. Owens, W. W., Parrish, D. R., and Lamoreaw, W. E., “An Evaluation of a
Gas-Drive Method for Determining Relative Permeability Relationships,”
Tmns., AIME, Vol. 207 (1956), pp. 275-280.
144. Hassler, G. L., “Method and Apparatus for Permeability Measurements,” U.S.
Patent No. 2,345,935.
145. Brownscombe, E. R, Slobod, R. L., and Caudle, B. H., “Relative Permeability
of Cores Desaturated by Capillary Pressure Method,” Drill. 6’ Prod. Pmc.,
API (1949), pp. 302-315.
146. Gates, J. I., and Tempelaar-Lietz, W., “Relative Permeabilities of California
API
Cores by the Capillary Pressure Method,” Drill. 6’ Prod h., (1950),
pp. 285-302.
147. Leas, W. J., Jenks, L. H., and Russell, C. D., “Relative Permeability to Gas,”
Trans., AIME, Vol. 189 (1950), pp. 65-72.
148. Rapoport, L. A., and Leas, W. J., “Relative Permeability to Liquid in Liquid-
Gas Systems,” Tmns., AIME, Vol. 192 (1951), pp. 83-98.
149. Fatt, I., and Dykstra, H., “Relative Permeability Studies,” Trans., AIME,
Vol. 192 (1951), pp. 249-256.
150. Corey, A. T., ‘The Interrelation Between Gas and Oil Relative Permeabilities,”
Prod Monthly, Vol. 19 (Nov. 1954), pp. 38-41.
151. Loomis, A. G., and Crowell, D. C., ”Relative Permeability Studies: Gas-Oil
and Waterail Systems,” Bull. 599, U.S. Bur. of Mines, Washington, 1962.