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Indhold leveret af Nathaniel Garver-Daniels and Ryan S. Lynch. Alt podcastindhold inklusive episoder, grafik og podcastbeskrivelser uploades og leveres direkte af Nathaniel Garver-Daniels and Ryan S. Lynch eller deres podcastplatformspartner. Hvis du mener, at nogen bruger dit ophavsretligt beskyttede værk uden din tilladelse, kan du følge processen beskrevet her https://da.player.fm/legal.
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NANOGrav Podcast

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Arkiveret serie ("Inaktivt feed" status)

When? This feed was archived on November 04, 2022 16:30 (1+ y ago). Last successful fetch was on August 01, 2016 12:10 (7+ y ago)

Why? Inaktivt feed status. Vores servere kunne ikke hente et gyldigt podcast-feed i en længere periode.

What now? You might be able to find a more up-to-date version using the search function. This series will no longer be checked for updates. If you believe this to be in error, please check if the publisher's feed link below is valid and contact support to request the feed be restored or if you have any other concerns about this.

Manage series 1125474
Indhold leveret af Nathaniel Garver-Daniels and Ryan S. Lynch. Alt podcastindhold inklusive episoder, grafik og podcastbeskrivelser uploades og leveres direkte af Nathaniel Garver-Daniels and Ryan S. Lynch eller deres podcastplatformspartner. Hvis du mener, at nogen bruger dit ophavsretligt beskyttede værk uden din tilladelse, kan du følge processen beskrevet her https://da.player.fm/legal.
NANOGrav is a collaboration of observational and theoretical astrophysicists from more than a dozen universities, colleges, and observatories. We include faculty, scientific staff, postdoctoral scholars, graduate students, and undergraduate students, and high school students. We seek to measure gravitational waves--ripples in space-time--by detecting their effect on radio wave signals traveling from pulsars--rapidly rotating neutron stars--to the Earth. Our measurements are most sensitive to gravitational waves with periods of a few years, which corresponds to frequencies of a few nanohertz--hence the "NANO" in our name, "NANOGrav." The strongest sources of such gravitational waves are likely to be binary systems in which two massive black holes orbit one another. Such binary systems form when galaxies merge with one another.
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6 episoder

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NANOGrav Podcast

updated

iconDel
 

Arkiveret serie ("Inaktivt feed" status)

When? This feed was archived on November 04, 2022 16:30 (1+ y ago). Last successful fetch was on August 01, 2016 12:10 (7+ y ago)

Why? Inaktivt feed status. Vores servere kunne ikke hente et gyldigt podcast-feed i en længere periode.

What now? You might be able to find a more up-to-date version using the search function. This series will no longer be checked for updates. If you believe this to be in error, please check if the publisher's feed link below is valid and contact support to request the feed be restored or if you have any other concerns about this.

Manage series 1125474
Indhold leveret af Nathaniel Garver-Daniels and Ryan S. Lynch. Alt podcastindhold inklusive episoder, grafik og podcastbeskrivelser uploades og leveres direkte af Nathaniel Garver-Daniels and Ryan S. Lynch eller deres podcastplatformspartner. Hvis du mener, at nogen bruger dit ophavsretligt beskyttede værk uden din tilladelse, kan du følge processen beskrevet her https://da.player.fm/legal.
NANOGrav is a collaboration of observational and theoretical astrophysicists from more than a dozen universities, colleges, and observatories. We include faculty, scientific staff, postdoctoral scholars, graduate students, and undergraduate students, and high school students. We seek to measure gravitational waves--ripples in space-time--by detecting their effect on radio wave signals traveling from pulsars--rapidly rotating neutron stars--to the Earth. Our measurements are most sensitive to gravitational waves with periods of a few years, which corresponds to frequencies of a few nanohertz--hence the "NANO" in our name, "NANOGrav." The strongest sources of such gravitational waves are likely to be binary systems in which two massive black holes orbit one another. Such binary systems form when galaxies merge with one another.
  continue reading

6 episoder

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