In order to create polarization based entanglement networks of W₄ state, we propose an optical setup, which uses only four horizontally polarized photons as resource which implies no entanglement requirement as a resource. This setup can generate target state deterministically, by operating several quantum optical gates, which can be realized with current photonics technology. The setup we propose is composed of one Not, two Hadamard, five Controlled Not (CNot) and one Toffoli gate
The information-carrying capacity of a single photon can be vastly expanded by exploiting its multip...
Polarization-entangled photon pair states (PESs) are indispensable in several quantum protocols that...
We propose a fully optical method to perform any quantum computation by supplying the prescriptions ...
In order to create polarization based entanglement networks of W-4 state, we propose an optical setu...
In order to create polarization based entanglement networks of W4 state, we propose an optical setup...
In large quantum systems, multipartite entanglement can be found in many inequivalent classes. Prepa...
Abstract: We present two schemes for generating four-photon states: one for direct GHZ state generat...
We propose a simple experimental scheme to prepare a type of four-photon entangled state |χ〉 that ha...
An entangler is proposed for generating χ-type polarization-entangled state using an EPR entangler, ...
Creation of large-scale W state quantum networks is a key step for realization of various quantum in...
We show how to prepare four-photon polarization entangled states based on some Einstein-Po...
We propose an optical scheme to prepare large-scale entangled networks of W states. The scheme works...
Increasing the information-carrying capacity of a single photon may be achieved by utilizing multipl...
Tripartite entangled states, such as Greenberger-Horne-Zeilinger and W states, are typically generat...
Abstract. We present experimental results of deterministic linear optical Controlled-NOT and SWAP ga...
The information-carrying capacity of a single photon can be vastly expanded by exploiting its multip...
Polarization-entangled photon pair states (PESs) are indispensable in several quantum protocols that...
We propose a fully optical method to perform any quantum computation by supplying the prescriptions ...
In order to create polarization based entanglement networks of W-4 state, we propose an optical setu...
In order to create polarization based entanglement networks of W4 state, we propose an optical setup...
In large quantum systems, multipartite entanglement can be found in many inequivalent classes. Prepa...
Abstract: We present two schemes for generating four-photon states: one for direct GHZ state generat...
We propose a simple experimental scheme to prepare a type of four-photon entangled state |χ〉 that ha...
An entangler is proposed for generating χ-type polarization-entangled state using an EPR entangler, ...
Creation of large-scale W state quantum networks is a key step for realization of various quantum in...
We show how to prepare four-photon polarization entangled states based on some Einstein-Po...
We propose an optical scheme to prepare large-scale entangled networks of W states. The scheme works...
Increasing the information-carrying capacity of a single photon may be achieved by utilizing multipl...
Tripartite entangled states, such as Greenberger-Horne-Zeilinger and W states, are typically generat...
Abstract. We present experimental results of deterministic linear optical Controlled-NOT and SWAP ga...
The information-carrying capacity of a single photon can be vastly expanded by exploiting its multip...
Polarization-entangled photon pair states (PESs) are indispensable in several quantum protocols that...
We propose a fully optical method to perform any quantum computation by supplying the prescriptions ...