#picoseconds — Public Fediverse posts
Live and recent posts from across the Fediverse tagged #picoseconds, aggregated by home.social.
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Reading magnetic states faster – in far infrared: Team of #HZDR and TU Dortmund University provides proof of feasibility of ultrafast data storage. Instead of electrical pulses, they use ultrashort #terahertz light pulses, enabling the read-out of magnetic structures within #picoseconds.
▶️ https://www.hzdr.de/presse/usmr
Image: B. Schröder/HZDR
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Reading magnetic states faster – in far infrared: Team of #HZDR and TU Dortmund University provides proof of feasibility of ultrafast data storage. Instead of electrical pulses, they use ultrashort #terahertz light pulses, enabling the read-out of magnetic structures within #picoseconds.
▶️ https://www.hzdr.de/presse/usmr
Image: B. Schröder/HZDR
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Reading magnetic states faster – in far infrared: Team of #HZDR and TU Dortmund University provides proof of feasibility of ultrafast data storage. Instead of electrical pulses, they use ultrashort #terahertz light pulses, enabling the read-out of magnetic structures within #picoseconds.
▶️ https://www.hzdr.de/presse/usmr
Image: B. Schröder/HZDR
-
Reading magnetic states faster – in far infrared: Team of #HZDR and TU Dortmund University provides proof of feasibility of ultrafast data storage. Instead of electrical pulses, they use ultrashort #terahertz light pulses, enabling the read-out of magnetic structures within #picoseconds.
▶️ https://www.hzdr.de/presse/usmr
Image: B. Schröder/HZDR
-
Reading magnetic states faster – in far infrared: Team of #HZDR and TU Dortmund University provides proof of feasibility of ultrafast data storage. Instead of electrical pulses, they use ultrashort #terahertz light pulses, enabling the read-out of magnetic structures within #picoseconds.
▶️ https://www.hzdr.de/presse/usmr
Image: B. Schröder/HZDR
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Hiya fediverse, happy Friday. Here's your semi-occasional dose of #terahertz content:
A #terahertz #image of a single #semiconductor #nanowire, taken about three #picoseconds after it was optically excited (spatial #resolution of image ~ 50 nanometers). It is brighter in the middle due to the mobile #electrons that are still floating around in there. The edges are darker because electrons near the edges can become trapped more readily.
Taken from here:
https://doi.org/10.1021/acsphotonics.1c01367 -
Hiya fediverse, happy Friday. Here's your semi-occasional dose of #terahertz content:
A #terahertz #image of a single #semiconductor #nanowire, taken about three #picoseconds after it was optically excited (spatial #resolution of image ~ 50 nanometers). It is brighter in the middle due to the mobile #electrons that are still floating around in there. The edges are darker because electrons near the edges can become trapped more readily.
Taken from here:
https://doi.org/10.1021/acsphotonics.1c01367 -
Hiya fediverse, happy Friday. Here's your semi-occasional dose of #terahertz content:
A #terahertz #image of a single #semiconductor #nanowire, taken about three #picoseconds after it was optically excited (spatial #resolution of image ~ 50 nanometers). It is brighter in the middle due to the mobile #electrons that are still floating around in there. The edges are darker because electrons near the edges can become trapped more readily.
Taken from here:
https://doi.org/10.1021/acsphotonics.1c01367 -
Hiya fediverse, happy Friday. Here's your semi-occasional dose of #terahertz content:
A #terahertz #image of a single #semiconductor #nanowire, taken about three #picoseconds after it was optically excited (spatial #resolution of image ~ 50 nanometers). It is brighter in the middle due to the mobile #electrons that are still floating around in there. The edges are darker because electrons near the edges can become trapped more readily.
Taken from here:
https://doi.org/10.1021/acsphotonics.1c01367 -
Hiya fediverse, happy Friday. Here's your semi-occasional dose of #terahertz content:
A #terahertz #image of a single #semiconductor #nanowire, taken about three #picoseconds after it was optically excited (spatial #resolution of image ~ 50 nanometers). It is brighter in the middle due to the mobile #electrons that are still floating around in there. The edges are darker because electrons near the edges can become trapped more readily.
Taken from here:
https://doi.org/10.1021/acsphotonics.1c01367