The response of wheat plants to different osmotic stress levels varied among the different organs root, shoot and spike and the situation of these organs with application of two Cu ++ levels 5 mM and 25 mM as CuSO 4 . The sensitivity of root organ was related with reduction in fresh, dry matter and length. This resulted from reduction of soluble sugar reflected a reduction in water uptake and K + content of the cell sap. In the moderate organ spike, the reduction in fresh, dry matter and length were concomitant with the accumulation of soluble sugar and a huge accumulation of soluble protein. In the higher organ shoot, this related with more water uptake which in turn induced an accumulation of soluble protein and cofactor K + content. It can be recorded that shoot was higher Na + accumulation than root and spike. Data also showed further stimulatory effect on growth parameters by Cu ++ applications with either concentration (7.5 mM and 25 mM). Irrigat ing the soil with either 7.5 or 25 mM CuSO 4 induced a huge accumulation in soluble sugar, soluble protein and nitrate reductase. Cupper treatment with either concentration 7.5 mM or 25 mM induced a marked decrease in Na + content at all OSL and has no significant change in the accumulation of K + in both shoot and spike whereas induced a huge accumulation in root organ. The synthesis of protein bands with molecular weight 32.3 KDa at - 1.5 MPa NaCl level treated with either 7.5 mM or 25 mM Cu ++ concentrations was induced. Also the appearance of protein band with molecular weight 37KDa induced only at Cu ++ treatments with 25 mM concentration in both control and under different osmotic levels (0.0, - 0.3 MPa, - 0.9 MPa, - 1.5 MPa NaCl).
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