#naturephotonics — Public Fediverse posts
Live and recent posts from across the Fediverse tagged #naturephotonics, aggregated by home.social.
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Researchers build world’s smallest interferometer to measure how X-rays and atomic nuclei interact
Double-slit experiment reveals hidden details between light and matter. The image by @mosterh1 shows processes in this interferometer. The path of a single photon (pink) passes through two slits simultaneously and spreads out behind them into a characteristic “interference pattern”. This pattern is used to determine the strength of light refraction caused by iron atoms (dark pink) located in one of the two slits: https://www.uni-goettingen.de/en/3240.html?id=8143
Research in #NaturePhotonics: https://www.nature.com/articles/s41566-026-01892-5
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Researchers build world’s smallest interferometer to measure how X-rays and atomic nuclei interact
Double-slit experiment reveals hidden details between light and matter. The image by @mosterh1 shows processes in this interferometer. The path of a single photon (pink) passes through two slits simultaneously and spreads out behind them into a characteristic “interference pattern”. This pattern is used to determine the strength of light refraction caused by iron atoms (dark pink) located in one of the two slits: https://www.uni-goettingen.de/en/3240.html?id=8143
Research in #NaturePhotonics: https://www.nature.com/articles/s41566-026-01892-5
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Researchers build world’s smallest interferometer to measure how X-rays and atomic nuclei interact
Double-slit experiment reveals hidden details between light and matter. The image by @mosterh1 shows processes in this interferometer. The path of a single photon (pink) passes through two slits simultaneously and spreads out behind them into a characteristic “interference pattern”. This pattern is used to determine the strength of light refraction caused by iron atoms (dark pink) located in one of the two slits: https://www.uni-goettingen.de/en/3240.html?id=8143
Research in #NaturePhotonics: https://www.nature.com/articles/s41566-026-01892-5
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Researchers build world’s smallest interferometer to measure how X-rays and atomic nuclei interact
Double-slit experiment reveals hidden details between light and matter. The image by @mosterh1 shows processes in this interferometer. The path of a single photon (pink) passes through two slits simultaneously and spreads out behind them into a characteristic “interference pattern”. This pattern is used to determine the strength of light refraction caused by iron atoms (dark pink) located in one of the two slits: https://www.uni-goettingen.de/en/3240.html?id=8143
Research in #NaturePhotonics: https://www.nature.com/articles/s41566-026-01892-5
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Researchers build world’s smallest interferometer to measure how X-rays and atomic nuclei interact
Double-slit experiment reveals hidden details between light and matter. The image by @mosterh1 shows processes in this interferometer. The path of a single photon (pink) passes through two slits simultaneously and spreads out behind them into a characteristic “interference pattern”. This pattern is used to determine the strength of light refraction caused by iron atoms (dark pink) located in one of the two slits: https://www.uni-goettingen.de/en/3240.html?id=8143
Research in #NaturePhotonics: https://www.nature.com/articles/s41566-026-01892-5
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World’s first plasma lens keeps 80% of attosecond light power
Attoseconds, the billionths of a billionth of a second, are the shortest flashes of light ever created. Now,…
#NewsBeep #News #Physics #attosecondpulses #DESY #electrondynamics #MaxBornInstitute #NaturePhotonics #plasmalens #Science #UK #ultrafastscience #UnitedKingdom #XUVlight
https://www.newsbeep.com/uk/248084/ -
World’s first plasma lens keeps 80% of attosecond light power
Attoseconds, the billionths of a billionth of a second, are the shortest flashes of light ever created. Now,…
#NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Physics #attosecondpulses #DESY #electrondynamics #MaxBornInstitute #NaturePhotonics #plasmalens #Science #ultrafastscience #XUVlight
https://www.newsbeep.com/us/275879/ -
World’s first plasma lens keeps 80% of attosecond light power
Attoseconds, the billionths of a billionth of a second, are the shortest flashes of light ever created. Now,…
#NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Physics #attosecondpulses #DESY #electrondynamics #MaxBornInstitute #NaturePhotonics #plasmalens #Science #ultrafastscience #XUVlight
https://www.newsbeep.com/us/275879/ -
https://www.europesays.com/ie/166608/ World’s first plasma lens keeps 80% of attosecond light power #AttosecondPulses #DESY #Éire #ElectronDynamics #IE #Ireland #MaxBornInstitute #NaturePhotonics #Physics #PlasmaLens #Science #UltrafastScience #XUVLight
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Super-thin optical fibre could be used to check nerve cells in the brain, scientists say https://www.byteseu.com/753570/ #ArtificialIntelligence #China #DeepLearningAlgorithm #DiffractiveNeuralNetworks #endoscopies #HainanIsland #HighSpeedOpticalCommunication #lesions #MicroPhotonicDevices #MultimodeFibres #NaturePhotonics #OpticalFibres #QuantumInformationProcessing #Science #SingleModeFibres #UniversityOfShanghaiForScienceAndTechnology
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Wie lassen sich #Solarzellen und ähnliche Bauelemente verbessern?
Ein internationales Forschungsteam unter Leitung unserer Uni hilft bei dieser Frage mit einer neuen Technik: Erstmals lässt sich die Entstehung winziger, schwer nachweisbarer Teilchen – sogenannter dunkler #Exzitonen – zeitlich und räumlich genau verfolgen: https://s.gwdg.de/d6c8Z2
Forschung veröffentlicht in #NaturePhotonics: https://doi.org/g83j6q
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Wie lassen sich #Solarzellen und ähnliche Bauelemente verbessern?
Ein internationales Forschungsteam unter Leitung unserer Uni hilft bei dieser Frage mit einer neuen Technik: Erstmals lässt sich die Entstehung winziger, schwer nachweisbarer Teilchen – sogenannter dunkler #Exzitonen – zeitlich und räumlich genau verfolgen: https://s.gwdg.de/d6c8Z2
Forschung veröffentlicht in #NaturePhotonics: https://doi.org/g83j6q
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Wie lassen sich #Solarzellen und ähnliche Bauelemente verbessern?
Ein internationales Forschungsteam unter Leitung unserer Uni hilft bei dieser Frage mit einer neuen Technik: Erstmals lässt sich die Entstehung winziger, schwer nachweisbarer Teilchen – sogenannter dunkler #Exzitonen – zeitlich und räumlich genau verfolgen: https://s.gwdg.de/d6c8Z2
Forschung veröffentlicht in #NaturePhotonics: https://doi.org/g83j6q
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Wie lassen sich #Solarzellen und ähnliche Bauelemente verbessern?
Ein internationales Forschungsteam unter Leitung unserer Uni hilft bei dieser Frage mit einer neuen Technik: Erstmals lässt sich die Entstehung winziger, schwer nachweisbarer Teilchen – sogenannter dunkler #Exzitonen – zeitlich und räumlich genau verfolgen: https://s.gwdg.de/d6c8Z2
Forschung veröffentlicht in #NaturePhotonics: https://doi.org/g83j6q
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Wie lassen sich #Solarzellen und ähnliche Bauelemente verbessern?
Ein internationales Forschungsteam unter Leitung unserer Uni hilft bei dieser Frage mit einer neuen Technik: Erstmals lässt sich die Entstehung winziger, schwer nachweisbarer Teilchen – sogenannter dunkler #Exzitonen – zeitlich und räumlich genau verfolgen: https://s.gwdg.de/d6c8Z2
Forschung veröffentlicht in #NaturePhotonics: https://doi.org/g83j6q
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A glimpse into the dark!
International research team led by our Uni develops new method for ultrafast imaging of dark excitons. For the first time, the formation of these tiny, difficult-to-detect particles can be tracked precisely in time and space: https://s.gwdg.de/9JO9T2
This could bring improvements in technology, a step closer - from solar cells to LEDS to semiconductors. #Ultrafast #NanoImaging
Research at #NaturePhotonics: https://doi.org/g83j6q #UltrafastDarkfieldMomentumMicroscopy
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A glimpse into the dark!
International research team led by our Uni develops new method for ultrafast imaging of dark excitons. For the first time, the formation of these tiny, difficult-to-detect particles can be tracked precisely in time and space: https://s.gwdg.de/9JO9T2
This could bring improvements in technology, a step closer - from solar cells to LEDS to semiconductors. #Ultrafast #NanoImaging
Research at #NaturePhotonics: https://doi.org/g83j6q #UltrafastDarkfieldMomentumMicroscopy
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A glimpse into the dark!
International research team led by our Uni develops new method for ultrafast imaging of dark excitons. For the first time, the formation of these tiny, difficult-to-detect particles can be tracked precisely in time and space: https://s.gwdg.de/9JO9T2
This could bring improvements in technology, a step closer - from solar cells to LEDS to semiconductors. #Ultrafast #NanoImaging
Research at #NaturePhotonics: https://doi.org/g83j6q #UltrafastDarkfieldMomentumMicroscopy
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A glimpse into the dark!
International research team led by our Uni develops new method for ultrafast imaging of dark excitons. For the first time, the formation of these tiny, difficult-to-detect particles can be tracked precisely in time and space: https://s.gwdg.de/9JO9T2
This could bring improvements in technology, a step closer - from solar cells to LEDS to semiconductors. #Ultrafast #NanoImaging
Research at #NaturePhotonics: https://doi.org/g83j6q #UltrafastDarkfieldMomentumMicroscopy
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A glimpse into the dark!
International research team led by our Uni develops new method for ultrafast imaging of dark excitons. For the first time, the formation of these tiny, difficult-to-detect particles can be tracked precisely in time and space: https://s.gwdg.de/9JO9T2
This could bring improvements in technology, a step closer - from solar cells to LEDS to semiconductors. #Ultrafast #NanoImaging
Research at #NaturePhotonics: https://doi.org/g83j6q #UltrafastDarkfieldMomentumMicroscopy
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#NaturePhotonics Direct radiation pressure measurements for lightsail membranes https://www.nature.com/articles/s41566-024-01605-w “a 50-nm-thick microscopic silicon nitride membrane: radiation pressure forces of 70 fN using a collimated beam of 110 W/cm² and noise-robust common-path interferometry“
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#NaturePhotonics Direct radiation pressure measurements for lightsail membranes https://www.nature.com/articles/s41566-024-01605-w “a 50-nm-thick microscopic silicon nitride membrane: radiation pressure forces of 70 fN using a collimated beam of 110 W/cm² and noise-robust common-path interferometry“
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#NaturePhotonics Direct radiation pressure measurements for lightsail membranes https://www.nature.com/articles/s41566-024-01605-w “a 50-nm-thick microscopic silicon nitride membrane: radiation pressure forces of 70 fN using a collimated beam of 110 W/cm² and noise-robust common-path interferometry“
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#NaturePhotonics Direct radiation pressure measurements for lightsail membranes https://www.nature.com/articles/s41566-024-01605-w “a 50-nm-thick microscopic silicon nitride membrane: radiation pressure forces of 70 fN using a collimated beam of 110 W/cm² and noise-robust common-path interferometry“
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#NaturePhotonics Direct radiation pressure measurements for lightsail membranes https://www.nature.com/articles/s41566-024-01605-w “a 50-nm-thick microscopic silicon nitride membrane: radiation pressure forces of 70 fN using a collimated beam of 110 W/cm² and noise-robust common-path interferometry“
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#NaturePhotonics Direct radiation pressure measurements for lightsail membranes https://www.nature.com/articles/s41566-024-01605-w “a 50-nm-thick microscopic silicon nitride membrane: radiation pressure forces of 70 fN using a collimated beam of 110 W/cm² and noise-robust common-path interferometry“
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Excited to share that our #6D #singlemolecule #superresolution #microscope, which we uses a multi-view reflector architecture, is now online in #NaturePhotonics! Congratulations #oumeng_zhang! https://doi.org/10.1038/s41566
A big thanks to Michael Vahey's group in #WashUBME
#WashUengineers #WashUFull-text access here: https://rdcu.be/c02le
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Excited to share that our #6D #singlemolecule #superresolution #microscope, which we uses a multi-view reflector architecture, is now online in #NaturePhotonics! Congratulations #oumeng_zhang! https://doi.org/10.1038/s41566
A big thanks to Michael Vahey's group in #WashUBME
#WashUengineers #WashUFull-text access here: https://rdcu.be/c02le
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Excited to share that our #6D #singlemolecule #superresolution #microscope, which we uses a multi-view reflector architecture, is now online in #NaturePhotonics! Congratulations #oumeng_zhang! https://doi.org/10.1038/s41566
A big thanks to Michael Vahey's group in #WashUBME
#WashUengineers #WashUFull-text access here: https://rdcu.be/c02le
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Excited to share that our #6D #singlemolecule #superresolution #microscope, which we uses a multi-view reflector architecture, is now online in #NaturePhotonics! Congratulations #oumeng_zhang! https://doi.org/10.1038/s41566
A big thanks to Michael Vahey's group in #WashUBME
#WashUengineers #WashUFull-text access here: https://rdcu.be/c02le