  Efficient certification and quantification of high dimensional entanglement
of composite systems are challenging both theoretically as well as
experimentally. Here, we demonstrate that several entanglement detection
methods can be implemented efficiently in a Mach-Zehnder Interferometric
set-up. In particular, we demonstrate how to measure the linear entropy and the
negativity of bipartite systems from the visibility of Mach-Zehnder
interferometer using single copy of the input state. Our result shows that for
any two qubit pure bipartite state, the interference visibility is a direct
measure of entanglement. We also propose how to measure the mutual
predictability experimentally from the intensity patterns of the
interferometric set-up without having to resort to local measurements of
mutually unbiased bases. Furthermore, we show that the entanglement witness
operator can be measured in a interference setup and the phase shift is
sensitive to the separable or entangled nature of the state. Our proposals
bring out the power of Interferometric set-up in entanglement detection of pure
and several mixed states which paves the way towards design of entanglement
meter.
