BIOMAT Database Logo BIOMAT Database Logo

Photon statistics of semiconductor microcavity lasers. 2007

S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Institut für Strahlenphysik, Universität Stuttgart, Germany. s.ulrich@physik.uni-stuttgart.de

We present measurements of first- and second-order coherence of quantum-dot micropillar lasers together with a semiconductor laser theory. Our results show a broad threshold region for the observed high-beta microcavities. The intensity jump is accompanied by both pronounced photon intensity fluctuations and strong coherence length changes. The investigations clearly visualize a smooth transition from spontaneous to predominantly stimulated emission which becomes harder to determine for high beta. In our theory, a microscopic approach is used to incorporate the semiconductor nature of quantum dots. The results are in agreement with the experimental intensity traces and the photon statistics measurements.

UI MeSH Term Description Entries

Related Publications

S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Many-body theory for semiconductor microcavity lasers.
August 1995, Physical review. A, Atomic, molecular, and optical physics,
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Higher-order photon bunching in a semiconductor microcavity.
July 2009, Science (New York, N.Y.),
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Polariton lasing vs. photon lasing in a semiconductor microcavity.
December 2003, Proceedings of the National Academy of Sciences of the United States of America,
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Photon number squeezed States in semiconductor lasers.
March 1992, Science (New York, N.Y.),
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Two-Photon-Pumped Perovskite Semiconductor Nanocrystal Lasers.
March 2016, Journal of the American Chemical Society,
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Semiconductor surface emitting lasers for photon pairs generation.
October 2017, Chaos (Woodbury, N.Y.),
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Photon statistics of random lasers with resonant feedback.
May 2001, Physical review letters,
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Theory of carrier heating through injection pumping and lasing in semiconductor microcavity lasers.
September 1993, Optics letters,
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Photocounting statistics associated with temperature fluctuations in semiconductor lasers.
January 1983, Applied optics,
S M Ulrich, and C Gies, and S Ates, and J Wiersig, and S Reitzenstein, and C Hofmann, and A Löffler, and A Forchel, and F Jahnke, and P Michler
Continuous transition from one-photon to two-photon statistics in lasers.
October 1992, Optics letters,
Copied contents to your clipboard!