• English
  • Deutsch
  • Log In
    or
  • Research Outputs
  • Projects
  • Researchers
  • Institutes
  • Statistics
Repository logo
Fraunhofer-Gesellschaft
  1. Home
  2. Fraunhofer-Gesellschaft
  3. Konferenzschrift
  4. Low phase noise microwave and millimeter-wave generation and transmission using optical heterodyning
 
  • Details
  • Full
Options
1997
  • Konferenzbeitrag

Titel

Low phase noise microwave and millimeter-wave generation and transmission using optical heterodyning

Abstract
Error-free 140 Mbit/s transmission experiments with optically generated millimeter-waves at frequencies at 18 and 60-70 GHz are reported. The millimeter-wave signals depict quartz accuracy and low phase noise <-80 dBc/Hz (@ 1 kHz). For bidirectional transmissions two millimeter-wave carriers one for the radio link to the mobile receiver (down link) and one for the uplink-millimeter-wave mixer in the base station are generated by optical heterodyning.
Author(s)
Braun, R.-P.
Grosskopf, G.
Rohde, D.
Schmidt, F.
Hauptwerk
IEEE Antennas and Propagation Society. Digest international symposium 1997. Vol.2
Konferenz
IEEE Antennas and Propagation Society (International symposium) 1997
Thumbnail Image
DOI
10.1109/APS.1997.631575
Language
Englisch
google-scholar
HHI
Tags
  • cellular radio

  • digital radio

  • land mobile radio

  • microwave generation

  • microwave links

  • millimetre wave gener...

  • millimetre wave mixer...

  • optical communication...

  • phase noise

  • quadrature phase shif...

  • radio receive

  • millimeter-wave gener...

  • low phase noise

  • optical heterodyning

  • millimeter-wave trans...

  • microwave transmissio...

  • error-free transmissi...

  • optically generated m...

  • millimeter-wave signa...

  • quartz accuracy

  • bidirectional transmi...

  • millimeter-wave carri...

  • radio link

  • mobile receiver

  • down link

  • uplink-millimeter-wav...

  • base station

  • pico-cellular broadba...

  • qpsl

  • laser diodes

  • 18 GHz

  • 60 to 70 GHz

  • 140 mbit/s

  • Cookie settings
  • Imprint
  • Privacy policy
  • Api
  • Send Feedback
© 2022