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

Physics Letters A

Coherent manipulation of bright spatio-temporal soliton intensity in an amplified atomic medium

Zareen Abdulhameed Khan, Abdul Majeed, Zeeshan Ali, Amir Ali

Published Aug 4, 2026• 0 citations
Publisher
DOI
10.1016/j.physleta.2026.132055

Related papers

Coherent manipulation of optical spatio-temporal solitons in four-level sodium atomic medium

Shehzad Khan, Dumitru Baleanu, Sara Syed +1 more

Chaos Solitons & Fractals•Mar 7, 2026•2 citations

Coherent manipulation of localized bright and dark symmetric solitons occurs in a two-level duplicated atomic medium

Tahir Khan, Muhammad Asif, Abdul Jabar +1 more

Chaos Solitons & Fractals•Apr 8, 2026•1 citation

Coherent Manipulation of Optical Soliton in Four Level N-type Atomic Medium

Shehzad Khan, Muhammad Saeed, Meraj Ali Khan +2 more

International Journal of Theoretical Physics•Jul 27, 2024•3 citations

Coherent manipulation of vectorial soliton beam in sodium like atomic medium

Bakht Amin Bacha, Saeed Ahmad, Rashid Ahmad +1 more

Chaos Solitons & Fractals•Apr 11, 2024•14 citations

Gaussian Pulse Propagation via Bright and Dark Solitons through an Atomic Medium

Afsar Ali, Bakht Amin Bacha, Umer Wahid +1 more

Journal of Russian Laser Research•Mar 1, 2021•4 citations

Coherent control of dark and bright spatio-temporal solitons of SPPs at a silver silica nano-composite interface with gain-assisted atomic medium

Naseem Elahi, Muhammad Ikram, Najm Uddin +4 more

This article investigates the coherent control of spatio-temporal bright and dark soliton pulses along with the associated intensity of surface plasmon polariton (SPP) waves at the interface of silver-silica nano-composite materials and a gain-assisted medium. A considerable control over SPPs soliton pulses is revealed by varying the position, time, and characteristics of the applied driving fields. The strength of solitonic pulses can vary based on system factors, potentially increasing, decreasing, or remaining constant over time. Periodic dark and bright solitons are also observed, with intensity patterns exhibiting exponential decay over time. When dispersion and nonlinearity are compared, stable solitons may maintain a constant intensity level of 60%. Moreover, the strength of surface plasmon polaritons (SPPs) can be adjusted between 0 and 100%. This adjustment is achieved by modifying external fields, allowing for either complete enhancement or total suppression of the SPPs. These findings provide a solid foundation for the development of active, compact, and fast photonic devices. They bridge the gap between light-matter interactions at the quantum level and the advancement of integrated nano-photonic devices. Such devices encompass applications in nano-scale sensing, logic gates, electrochemical sensing, optical switching, and biomedical imaging.

Scientific Reports•Apr 20, 2026•0 citations
This article investigates the coherent control of spatio-temporal bright and dark soliton pulses along with the associated intensity of surface plasmon polariton (SPP) waves at the interface of silver-silica nano-composite materials and a gain-assisted medium. A considerable control over SPPs soliton pulses is revealed by varying the position, time, and characteristics of the applied driving fields. The strength of solitonic pulses can vary based on system factors, potentially increasing, decreasing, or remaining constant over time. Periodic dark and bright solitons are also observed, with intensity patterns exhibiting exponential decay over time. When dispersion and nonlinearity are compared, stable solitons may maintain a constant intensity level of 60%. Moreover, the strength of surface plasmon polaritons (SPPs) can be adjusted between 0 and 100%. This adjustment is achieved by modifying external fields, allowing for either complete enhancement or total suppression of the SPPs. These findings provide a solid foundation for the development of active, compact, and fast photonic devices. They bridge the gap between light-matter interactions at the quantum level and the advancement of integrated nano-photonic devices. Such devices encompass applications in nano-scale sensing, logic gates, electrochemical sensing, optical switching, and biomedical imaging.