Citation: Jn. Pearson et al., DIFFERENTIAL TRANSPORT OF ZN, MN AND SUCROSE ALONG THE LONGITUDINAL AXIS OF DEVELOPING WHEAT GRAINS, Physiologia Plantarum, 97(2), 1996, pp. 332-338
Citation: Rj. Reid et al., MEMBRANE FLUXES AND COMPARATIVE TOXICITIES OF ALUMINUM, SCANDIUM AND GALLIUM, Journal of Experimental Botany, 47(305), 1996, pp. 1881-1888
Citation: Z. Rengel et Rd. Graham, UPTAKE OF ZINC FROM CHELATE-BUFFERED NUTRIENT SOLUTIONS BY WHEAT GENOTYPES DIFFERING IN ZINC EFFICIENCY, Journal of Experimental Botany, 47(295), 1996, pp. 217-226
Citation: Z. Rengel, CARBONIC-ANHYDRASE ACTIVITY IN LEAVES OF WHEAT GENOTYPES DIFFERING INZN EFFICIENCY, Journal of plant physiology, 147(2), 1995, pp. 251-256
Citation: Z. Rengel et Rd. Graham, WHEAT GENOTYPES DIFFER IN ZN EFFICIENCY WHEN GROWN IN CHELATE-BUFFERED NUTRIENT SOLUTION, Plant and soil, 176(2), 1995, pp. 307-316
Citation: Z. Rengel et Rd. Graham, WHEAT GENOTYPES DIFFER IN ZN EFFICIENCY WHEN GROWN IN CHELATE-BUFFERED NUTRIENT SOLUTION .2. NUTRIENT-UPTAKE, Plant and soil, 176(2), 1995, pp. 317-324
Citation: Z. Rengel et Rd. Graham, IMPORTANCE OF SEED ZN CONTENT FOR WHEAT GROWTH ON ZN-DEFICIENT SOIL .1.. VEGETATIVE GROWTH, Plant and soil, 173(2), 1995, pp. 259-266
Citation: Z. Rengel et Rd. Graham, IMPORTANCE OF SEED ZN CONTENT FOR WHEAT GROWTH ON ZN-DEFICIENT SOIL .2. GRAIN-YIELD, Plant and soil, 173(2), 1995, pp. 267-274
Citation: B. Dong et al., EFFECTS OF HERBICIDE CHLORSULFURON ON GROWTH AND NUTRIENT-UPTAKE PARAMETERS OF WHEAT GENOTYPES DIFFERING IN ZN-EFFICIENCY, Plant and soil, 173(2), 1995, pp. 275-282
Citation: Z. Rengel, SULFHYDRYL-GROUPS IN ROOT-CELL PLASMA-MEMBRANES OF WHEAT GENOTYPES DIFFERING IN ZN EFFICIENCY, Physiologia Plantarum, 95(4), 1995, pp. 604-612
Citation: Jn. Pearson et Z. Rengel, UPTAKE AND DISTRIBUTION OF ZN-65 AND MN-54 IN WHEAT GROWN AT SUFFICIENT AND DEFICIENT LEVELS OF ZN AND MN .1. DURING VEGETATIVE GROWTH, Journal of Experimental Botany, 46(288), 1995, pp. 833-839
Citation: Jn. Pearson et Z. Rengel, UPTAKE AND DISTRIBUTION OF ZN-65 AND MN-54 IN WHEAT GROWN AT SUFFICIENT AND DEFICIENT LEVELS OF ZN AND MN .2. DURING GRAIN DEVELOPMENT, Journal of Experimental Botany, 46(288), 1995, pp. 841-845
Citation: Y. Tong et al., EFFECTS OF TEMPERATURE ON EXTRACTABLE MANGANESE AND DISTRIBUTION OF MANGANESE AMONG SOIL FRACTIONS, Communications in soil science and plant analysis, 26(11-12), 1995, pp. 1963-1977
Citation: Z. Rengel et al., TIME-COURSE OF BIOSYNTHESIS OF PHENOLICS AND LIGNIN IN ROOTS OF WHEATGENOTYPES DIFFERING IN MANGANESE EFFICIENCY AND RESISTANCE TO TAKE-ALL FUNGUS, Annals of botany, 74(5), 1994, pp. 471-477
Citation: Z. Rengel, EFFECTS OF AL, RARE-EARTH ELEMENTS, AND OTHER METALS ON NET CA-45(2+)UPTAKE BY AMARANTHUS PROTOPLASTS, Journal of plant physiology, 143(1), 1994, pp. 47-51
Citation: Jn. Pearson et Z. Rengel, DISTRIBUTION AND REMOBILIZATION OF ZN AND MN DURING GRAIN DEVELOPMENTIN WHEAT, Journal of Experimental Botany, 45(281), 1994, pp. 1829-1835
Citation: Z. Rengel et al., MANGANESE NUTRITION AND ACCUMULATION OF PHENOLICS AND LIGNIN AS RELATED TO DIFFERENTIAL RESISTANCE OF WHEAT GENOTYPES TO THE TAKE-ALL FUNGUS, Plant and soil, 151(2), 1993, pp. 255-263
Citation: Z. Rengel et V. Jurkic, EVALUATION OF TRITICUM-AESTIVUM GERMPLASM FROM CROATIA AND YUGOSLAVIAFOR ALUMINUM TOLERANCE, Euphytica, 66(1-2), 1993, pp. 111-116