Summary
Bean and barley plants were cultured in nutrient solutions and subsequently treated to include a control and 10 me of NaCl, NaNO3, Na2SO4, or NaHCO3 added per liter. The content of P32, Ca45, Fe59, Rb86, Sr90, Ru106, Cs137, or Ce144 in the shoots was determined after an 8-hour period on treatment.
The presence of added bicarbonate very significantly reduced the content of all radioisotopes studied except Cs137. This reduction was more severe in bean plants, particularly for P32 and Fe59. A slight reduction was observed in the content of P32 and Ca45 in beans cultured on NaNO3-treated solutions and of P32, Ca45, and Sr90 by beans cultured on Na2SO4 treatments. The shoot content of Ca45 was reduced in barley cultured on NaCl, NaNO3, and Na2SO4 treatments. Barley appeared to be more tolerant of the bicarbonate anion than was the bean plant.
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References
Arnon, D. I., The physiology and biochemistry of phosphorus in green plants.In: Soil and Fertilizer Phosphorus in Crop Nutrition, W. H. Pierre and A. G. Norman, Ed. Pp. 1–42. Academic Press, Inc. N.Y. (1953).
Arnon, D. I., Fratzke, W. E., and Johnson, C. M., Hydrogen ion concentration in relation to absorption of inorganic nutrients by higher plants. Plant Physiol.17, 515–524 (1942).
Brown, J. W. and Wadleigh, C. H., Influence of sodium bicarbonate on the growth and chlorosis of garden beets. Botan. Gaz.116, 201–209 (1955).
Buehrer, T. F., The physico-chemical relationships of soilphosphates. Ariz. Univ. Agr. Expt. Sta. Tech. Bull.42, 153–212 (1932).
Chambers, R., Micrurgical studies on propoplasm. Biol. Rev. Cambridge Phil. Soc.24, 246–265 (1949).
Gauch, H. G. and Wadleigh, C. H., Salt tolerance and chemical composition of Rhodes and Dallis grasses grown in sand culture. Botan. Gaz.112, 259–271 (1951).
Graf, G. E. and Aronoff, S., Carbon dioxide fixation by roots. Science121, 211–212 (1955).
Hagen, C. E. and Hopkins, H.T., Ionic species in orthophosphate absorption by barley roots. Plant Physiol.30, 193–199 (1955).
Heller, V. G., Hageman, R. H., and Hartman, E. L., Sand culture studies of the use of saline and alkaline waters in greenhouses. Plant Physiol.15, 727–733 (1940).
Hoagland, D. R., The absorption of ions by plants. Soil Sci.16, 225–246 (1923).
Jacobs, M. H., The production of intracellular acidity by neutral and alkaline solutions containing carbon dioxide. Am. J. Physiol.53, 457–463 (1920).
Kadry, L. T., Soil-plant relations of the bicarbonate anion to lime-induced chlorosis. Ph. D. thesis, Dept. of Soil Chemistry, Utah State Agr. College (1955).
Lindsay, W. L. and Thorne, D. W., Bicarbonate ion and oxygen level as related to chlorosis. Soil Sci.77, 271–279 (1954).
Lunt, O. R., Kohl, H. C., and Kofranek, A. M., Effects of bicarbonate and other constituents of irrigation water on the growth of azaleas. Proc. Am. Soc. Hort. Sci.68, 537–544 (1956).
McGeorge, W. T., Electrodialysis as a measure of phosphate availability in soils and the relation of soil reaction and ionization of phosphate to phosphate assimilation. Ariz. Univ. Agr. Expt. Sta. Tech. Bull.38, 592–630 (1932).
McGeorge, W. T., Nutrient interrelations in lime-induced chlorosis as revealed by seedling tests and field experiments. Ariz. Univ. Agr. Expt. Sta. Bull.116, 295–338 (1948).
Miller, G. W. and Thorne, D. W., Effect of bicarbonate ion on the respiration of excised roots. Plant Physiol.31, 151–155 (1956).
Olsen, C., The significance of concentration for the rate of ion absorption by higher plants in water culture. IV. The influence of hydrogen ion concentration. Physiol. Plantarum6, 848–858 (1953).
Olsen, S. R., Inorganic phosphorus in alkaline and calcareous soils.In: Soil and Fertilizer Phosphorus in Crop Nutrition, W. H. Pierre and A. G. Norman, Ed. Pp. 89–122. Academic Press. Inc. N.Y. (1953).
Porter, L. K. and Thorne, D. W., Interrelation of carbon dioxide and bicarbonate ion in causing plant chlorosis. Soil Sci.79, 373–382 (1955).
Rabinowitch, E. L., Photosynthesis and Related Processes. II. Interscience Publishers, Inc. N.Y. (1956).
Romney, E. M., Effects of calcium and strontium on plant uptake of Sr90 and stable strontium from nutrient solutions and soils. Univ. Calif. Los Angeles. Report 374. (1956).
Small, J., Modern Aspects of pH. Bailliere, Tindall and Cox, London. (1954).
Steward, F. C. and Preston, C., Effects of pH and the components of bicarbonate and phosphate buffered solutions on the metabolism of potato discs and their ability to absorb ions. Plant Physiol.16, 481–519 (1941).
Umbreit, W. W., Burris, R. H., and Stauffer, J. F., Manometric Techniques and Tissue Metabolism. Burgess Publ. Co., Minneapolis. (1949).
Wadleigh, C. H. and Brown, J. W., The chemical status of bean plants afflicted with bicarbonate-induced chlorosis. Botan. Gaz.113, 373–392 (1952).
Wadleigh, C. H. and Brown, J. W., Influence of sodium bicarbonate on mineral composition of red garden beets. Proc. Am. Soc. Sugar Beet Technologists54–57 (1952).
Wildman, S. G. and Cohen, M., The chemistry of plant cytoplasm.In: Handbuch der Pflanzen Physiologie, Springer Verlag, Berlin, 243–300 (1955).
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This work was conducted under contract AT-04-1-GEN-12 between the University of California and the Atomic Energy Commission, and the data in this paper were partially taken from a dissertation presented by J. A. Goss to the Graduate School of the University of California at Los Angeles in partial fulfillment of the requirements for the degree of Doctor of Philosophy in Botany.
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Goss, J.A., Romney, E.M. Effects of bicarbonate and some other anions on the shoot content of P32, Ca45 Fe59, Rb86, Sr90, Ru106, Cs137, and Ce144 in bean and barley plants. Plant Soil 10, 233–241 (1959). https://doi.org/10.1007/BF01416370
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DOI: https://doi.org/10.1007/BF01416370