A quantitative formulation of the uncertainty principle, based on Deutsch's idea of using entropy as a measure of uncertainty to remove the inadequacies of the standard treatment, is presented. This uncertainty in general involves the resolution of the measuring device.
The Heisenberg uncertainty principle has a more precise formulation in terms of inequalities involving quantum entropies. Currently known entropic uncertainty relations are presented; they capture and extend Heisenberg's idea of the unpredictability of the outcomes of incompatible measurements. Distinct results are obtained for finite- and infinite-dimensional Hilbert spaces. Applications are surveyed, including the formulation of entanglement witnesses, current ideas about wave-particle duality, and the analysis of quantum cryptography.
In quantum mechanics, the uncertainty is fundamental concept, so its underlying meaning has been argued intensively due to its weird properties. On this account, there has been various fomulations expressing the uncertainty principle in dierent ways. In this paper, the new entropic uncertainty relations will be suggested showing dierent aspects of uncertainty as we consider successive measurements. Already, Deutsch and Unk suggested entropic uncertainty relations, so our work will be to modify it as focusing on another aspect (error-disurbance) of uncertainry. The uncertainty relations Heisenberg is the rst man who suggested the uncertainty principle. In 1927 [1], he proposed the uncertainty relation,