Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Synthesis lectures on quantum computing

Quantum Radar Cross Section

Marco O. Lanzagorta

Published Jan 1, 2012• 2 citations
Publisher
DOI
10.1007/978-3-031-02515-0_6

Related papers

Analysis and Simulation of Quantum Radar Cross Section

Liu, Kang, Xiao Xiao +3 more

Chinese Physics Letters•Jan 1, 2014•3 citations

Theoretical and computational analysis of the quantum radar cross section for simple geometrical targets

Matthew J. Brandsema, Ram M. Narayanan, Marco O. Lanzagorta

Quantum Information Processing•Dec 23, 2016•51 citations

Analysis of multi-photon quantum radar cross section for targets in atmospheric medium

Jie Hu, Huifang Li, Chenyang Xia +1 more

Quantum Information Processing•May 25, 2024•1 citation

The analysis of convergence of the bistatic multiphoton quantum radar cross section

Jie Hu, Huifang Li, Chenyang Xia

Quantum Information Processing•Oct 12, 2023•2 citations

The Computation of Quantum Radar cross section for the 2D Cardioid Target

Chonghua Fang, Shi Xinyang, Yuanpeng Yang

The quantum radar cross section (QRCS) is a measure of the ability of a quantum radar to detect an object. Clearly, it is particularly essential for the study of invisible weapon platforms. In our work, we have displayed the computation of QRCS and classical radar cross section (CRCS) for the 2D cardioid target. Finally, we discuss the sidelobe quantum impact between CRCS and QRCS.

IEEE MTT-S International Microwave Workshop Series on Advanced Materials and Processes for RF and THz Applications (IMWS-AMP)•Nov 27, 2022•0 citations

Quantum Radar Cross Section with two-photon entangled states

Sunghwa Kang, Jihwan Kim, Zaeill Kim +7 more

We study two-photon entangled states for quantum radar cross section (QRCS), which is an extension of a single-photon QRCS formula. Since signal-idler entanglement does not provide any enhancement of the QRCS [Brandsema's PhD Thesis (2017)], we focus on signal-signal entanglement and derive the corresponding biphoton QRCS. We show that it can provide an enhancement over the single-photon QRCS and two-photon separable QRCS, where the performance is evaluated for various two-dimensional target geometries in monostatic/bistatic configurations. Furthermore, using the double-Gaussian approximation, we derive QRCS formula for biphoton states with arbitrary degree of entanglement and compute the resulting scattering patterns.

quant-pharXiv:2606.05603•Jun 5, 2026•0 citations
We study two-photon entangled states for quantum radar cross section (QRCS), which is an extension of a single-photon QRCS formula. Since signal-idler entanglement does not provide any enhancement of the QRCS [Brandsema's PhD Thesis (2017)], we focus on signal-signal entanglement and derive the corresponding biphoton QRCS. We show that it can provide an enhancement over the single-photon QRCS and two-photon separable QRCS, where the performance is evaluated for various two-dimensional target geometries in monostatic/bistatic configurations. Furthermore, using the double-Gaussian approximation, we derive QRCS formula for biphoton states with arbitrary degree of entanglement and compute the resulting scattering patterns.