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

Journal of Nanoelectronics and Optoelectronics

Effect of Magnetic Field on Optical Bistability and Lasing Without Inversion

Mojde Eghbalpour, Saeed Batebi, HAMID RAHIMPOUR SOLEIMANI

Published Aug 1, 2018• 0 citations
Publisher
DOI
10.1166/jno.2018.2355

Related papers

Effect of electron-spin relaxation on optical bistability and lasing without population inversion in a three-level V type quantum system

Mojde Eghbalpour, Roghaye Karimi, Saeed Batebi +1 more

Optik•Dec 2, 2015•2 citations

Polarization dependence of optical bistability in the presence of external magnetic field

Seyyed Hossein Asadpour, HAMID RAHIMPOUR SOLEIMANI

Optics Communications•Aug 9, 2013•13 citations

Optical bistability and lasing without inversion in a system of driven two-level atoms with incoherent injection

Guo Qin Ge, Ying Wu, Xueli Luo +1 more

We have studied a laser system in which initially incoherent atoms are injected into a cavity and directly driven by a coherent pump field. Here we show that such a system can display optical bistability in the absence of population inversion. Two disconnected branches of the solutions are obtained for lasing action. They correspond to the inversion branch and inversionless branch, respectively. Also, a mechanism is proposed here to produce higher-power lasing by the inversionless laser.

Physical Review A•Aug 1, 1995•14 citations

Optical Bistability in a Magnetic Semiconductor

Sukanta Kumar Tripathy, S. Ananda Rao

Journal of Optics•Jun 1, 2003•1 citation

Local-field enhancement of lasing without inversion

Jonathan P. Dowling, Charles M. Bowden

Quantum Electronics and Laser Science Conference•May 2, 1993•0 citations

Optical bistability: Constant input

Paul Mandel

Introduction Usage has reserved the expression optical bistability mostly for coherently driven passive systems. An atomic system is called passive when there is no population inversion. This is the case, for example, of a system at thermal equilibrium. On the contrary, the laser that we have described in Chapter 1 is a driven active system, because a population inversion is created. The laser equations we have studied so far describe an incoherently driven laser. However, nothing prevents driving a lasing cavity with a coherent field emitted by another laser. This is realized in a whole class of lasers that are used mainly as frequency converters. In optical bistability (OB), the driving field is usually a coherent field. Thus we have to account for two differences between the laser and the optically bistable system: (1) In OB, there is no inversion of population: 〈| A 2 |〉>〈| B 2 |〉, in the notation of Chapter 1. Hence, in the absence of interaction with a field, the population difference D relaxes toward a negative value. (2) The pumping is coherent, meaning that an external laser field is added to the cavity field. Using the single-mode equations (1.48)–(1.50), we have to change the sign of D and D a (which amounts to keeping D defined in (1.34) as it is but changing P into – P and A into – A ) and to add a source term in the equation for the complex field amplitude.

Cambridge University Press eBooks•Jan 13, 1997•0 citations
Introduction Usage has reserved the expression optical bistability mostly for coherently driven passive systems. An atomic system is called passive when there is no population inversion. This is the case, for example, of a system at thermal equilibrium. On the contrary, the laser that we have described in Chapter 1 is a driven active system, because a population inversion is created. The laser equations we have studied so far describe an incoherently driven laser. However, nothing prevents driving a lasing cavity with a coherent field emitted by another laser. This is realized in a whole class of lasers that are used mainly as frequency converters. In optical bistability (OB), the driving field is usually a coherent field. Thus we have to account for two differences between the laser and the optically bistable system: (1) In OB, there is no inversion of population: 〈| A 2 |〉>〈| B 2 |〉, in the notation of Chapter 1. Hence, in the absence of interaction with a field, the population difference D relaxes toward a negative value. (2) The pumping is coherent, meaning that an external laser field is added to the cavity field. Using the single-mode equations (1.48)–(1.50), we have to change the sign of D and D a (which amounts to keeping D defined in (1.34) as it is but changing P into – P and A into – A ) and to add a source term in the equation for the complex field amplitude.