LASER PHYSICS - Journal - Bridge of Knowledge

Your account

login

Search

LASER PHYSICS

ISSN:

1054-660X

eISSN:

1555-6611

Disciplines
(Field of Science):

  • automation, electronics, electrical engineering and space technologies (Engineering and Technology)
  • biomedical engineering (Engineering and Technology)
  • materials engineering (Engineering and Technology)
  • pharmacology and pharmacy (Medical and Health Sciences )
  • astronomy (Natural sciences)
  • physical sciences (Natural sciences)

Ministry points: Help

Ministry points - current year
Year Points List
Year 2024 40 Ministry scored journals list 2024
Ministry points - previous years
Year Points List
2024 40 Ministry scored journals list 2024
2023 40 Ministry Scored Journals List
2022 40 Ministry Scored Journals List 2019-2022
2021 40 Ministry Scored Journals List 2019-2022
2020 40 Ministry Scored Journals List 2019-2022
2019 40 Ministry Scored Journals List 2019-2022
2018 30 A
2017 30 A
2016 20 A
2015 20 A
2014 25 A
2013 30 A
2012 25 A
2011 25 A
2010 20 A

Model:

Hybrid

Points CiteScore:

Points CiteScore - current year
Year Points
Year 2023 2.6
Points CiteScore - previous years
Year Points
2023 2.6
2022 2.9
2021 2.9
2020 2.4
2019 2.3
2018 2.1
2017 2.4
2016 2.3
2015 2.1
2014 2.5
2013 3.7
2012 4.2
2011 3.2

Impact Factor:

Log in to see the Impact Factor.

Sherpa Romeo:

https://v2.sherpa.ac.uk/id/publication/24442

Papers published in journal

Filters

total: 2

  • Category
  • Year

clear Chosen catalog filters disabled

Catalog Journals

Year 2018
Year 2013
  • Experimental generation of complex noisy photonic entanglement
    Publication
    • K. Dobek
    • M. Karpiński
    • R. Demkowicz-Dobrzański
    • K. Banaszek
    • P. Horodecki

    - LASER PHYSICS - Year 2013

    We present an experimental scheme based on spontaneous parametric down-conversion to produce multiple-photon pairs in maximally entangled polarization states using an arrangement of two type-I nonlinear crystals. By introducing correlated polarization noise in the paths of the generated photons we prepare mixed-entangled states whose properties illustrate fundamental results obtained recently in quantum information theory, in particular those...

    Full text to download in external service

seen 467 times