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

Spatial Synchronism in Nonstationary Processes of the "Photon-echo" Type

Edward A. Manykin

Published May 1, 1968• 2 citations
OpenAlex

Related papers

Spatial synchronism of light (photon) echo for exciting pulses with a spherical wavefront

Sergey M. Zakharov, Edward A. Manykin

OptSp•Aug 1, 1978•0 citations

Nonstationary-image scale transformations by photon-echo signals

Sergey M. Zakharov, Edward A. Manykin

Journal of Experimental and Theoretical Physics•May 1, 1989•0 citations

Contribution to the Theory of Nonstationary Process of the Photon-echo Type in Crystals with Ferromagnetic Impurities

Sergey M. Zakharov, Edward A. Manykin, Е. В. Онищенко

Journal of Experimental and Theoretical Physics•Jan 1, 1971•2 citations

Photon echo in nonlinear processes

Махвиладзе Тариэль Михайлович, Сарычев Михаил Евгеньевич

Журнал Экспериментальной и Теоретической Физики•Nov 1, 1975•1 citation

Optical magnetic resonances induced by the interference of reactive components in the near radiation-field zone of atoms in a glow discharge of a mixture of even neon isotopes

Э. Г. Сапрыкин

Four types of anomalous optical magnetic resonances shifted with respect to the zero magnetic field and with different shapes are found in radiation of a glow discharge in a mixture of even neon isotopes placed in a swept longitudinal magnetic field. This testifies to the manifestation of collective processes of synchronous light emission by oscillators belonging to isotopically different spatially separated atoms in discharge plasma. The origin of resonances is associated with nonstationary interference of reactive fields in the near radiation-field zones of emission of atoms, averaged over the lifetime of the fields (interference), while different types of resonances are associated with different methods of synchronization of the phases of the fields.

Journal of Experimental and Theoretical Physics•Feb 1, 2016•3 citations

Optical echo memory based on photonic crystal cavities

Xue-Yan Xing, Xia-Xia Li, Yuhui Chen +1 more

Like internet, connecting quantum computers together to build a full quantum network will enhance the ability to process quantum information. On-chip quantum memories can possess the essential functionalities in building a quantum network, including synchronizing a large number of quantum computers and implementing long-distance quantum communication. However, owning mainly to the constraints imposed by the micro-photonic structures themselves, on-chip quantum memories cannot satisfy the requirement for constructing the full quantum network for the incompatibility of their memory property and integration property. We here propose to build an on-chip quantum memory by using spatial-phase-mismatching effect in photonic crystal cavities. In this scenario, not only is the large orbital angular momentum of photonic crystal cavities utilized to realize photon-echo type memory, but also the light-matter enhancement of a photonic cavity is used to achieve a high-efficiency quantum storage.

Acta Physica Sinica•Jan 1, 2022•0 citations
Four types of anomalous optical magnetic resonances shifted with respect to the zero magnetic field and with different shapes are found in radiation of a glow discharge in a mixture of even neon isotopes placed in a swept longitudinal magnetic field. This testifies to the manifestation of collective processes of synchronous light emission by oscillators belonging to isotopically different spatially separated atoms in discharge plasma. The origin of resonances is associated with nonstationary interference of reactive fields in the near radiation-field zones of emission of atoms, averaged over the lifetime of the fields (interference), while different types of resonances are associated with different methods of synchronization of the phases of the fields.
Like internet, connecting quantum computers together to build a full quantum network will enhance the ability to process quantum information. On-chip quantum memories can possess the essential functionalities in building a quantum network, including synchronizing a large number of quantum computers and implementing long-distance quantum communication. However, owning mainly to the constraints imposed by the micro-photonic structures themselves, on-chip quantum memories cannot satisfy the requirement for constructing the full quantum network for the incompatibility of their memory property and integration property. We here propose to build an on-chip quantum memory by using spatial-phase-mismatching effect in photonic crystal cavities. In this scenario, not only is the large orbital angular momentum of photonic crystal cavities utilized to realize photon-echo type memory, but also the light-matter enhancement of a photonic cavity is used to achieve a high-efficiency quantum storage.