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Bulletin of the American Physical Society

Shaping the Phase of a Single Photon

Joerg Bochmann, Holger Specht, Martin Muecke, Christian Noelleke, Stephan Ritter, Eden V. Figueroa, David L. Moehring, Gerhard Rempe

Published May 23, 2009• 0 citations
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Abstract We observe the single-photon interference by a single-photon source generated from a spontaneous four-wave mixing process in a cold 85 Rb atomic ensemble. By adjusting the coupling and pump power, we obtain two distinguished temporal modes for single photons. Through an unbalance Mach–Zehnder interferometer, these temporally shaped single photons interfere with themselves and produce constructive or destructive interference according to the phase in the single-photon wave packet. The interferometric results of these temporally shaped single photons match well with the theoretical simulation.
Abstract By applying phase modulation across different frequencies, metasurfaces possess the ability to manipulate the temporal dimension of photons at the femtosecond scale. However, there remains a fundamental challenge to shape the single wavepacket at the nanosecond scale by using of metasurfaces. Here, it is proposed that the single photon temporal shape can be converted through the multi‐photon wavepacket interference on a single metasurface. By selecting appropriate input single‐photon temporal shapes and metasurfaces beam splitting ratio, controllable photon shape conversion can be achieved with high fidelity. For examples, photons with an exponentially decaying profile can be shaped into a Gaussian profile; by tuning the relative time delays of input photons, Gaussian‐shaped photons can be transformed into exponentially decaying or rising profiles through the same metasurface. The proposed mechanism provides a compact way for solving the temporal shape mismatch issues in quantum networks, facilitating the realization of high‐fidelity on‐chip quantum information processing.