#opticalfibers — Public Fediverse posts
Live and recent posts from across the Fediverse tagged #opticalfibers, aggregated by home.social.
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Meet Laura Blázquez Martínez – Laser-focused in theory and practice
Laura Blázquez Martínez is a PhD student in the #QuantumOptoacoustics group at MPL, working with Prof. Birgit Stiller. Her research sits at a fascinating intersection: she studies the fundamental coupling of photons (light) and acoustic phonons (sound) in optical fibers – a field where abstract quantum theory meets tangible, hands-on experimentation.
👉 https://mpl.mpg.de/research-at-mpl/independent-research-groups/quantum-optoacoustics
📸 MPL
#Photonics #OpticalFibers #Science -
Meet Laura Blázquez Martínez – Laser-focused in theory and practice
Laura Blázquez Martínez is a PhD student in the #QuantumOptoacoustics group at MPL, working with Prof. Birgit Stiller. Her research sits at a fascinating intersection: she studies the fundamental coupling of photons (light) and acoustic phonons (sound) in optical fibers – a field where abstract quantum theory meets tangible, hands-on experimentation.
👉 https://mpl.mpg.de/research-at-mpl/independent-research-groups/quantum-optoacoustics
📸 MPL
#Photonics #OpticalFibers #Science -
Meet Laura Blázquez Martínez – Laser-focused in theory and practice
Laura Blázquez Martínez is a PhD student in the #QuantumOptoacoustics group at MPL, working with Prof. Birgit Stiller. Her research sits at a fascinating intersection: she studies the fundamental coupling of photons (light) and acoustic phonons (sound) in optical fibers – a field where abstract quantum theory meets tangible, hands-on experimentation.
👉 https://mpl.mpg.de/research-at-mpl/independent-research-groups/quantum-optoacoustics
📸 MPL
#Photonics #OpticalFibers #Science -
Meet Laura Blázquez Martínez – Laser-focused in theory and practice
Laura Blázquez Martínez is a PhD student in the #QuantumOptoacoustics group at MPL, working with Prof. Birgit Stiller. Her research sits at a fascinating intersection: she studies the fundamental coupling of photons (light) and acoustic phonons (sound) in optical fibers – a field where abstract quantum theory meets tangible, hands-on experimentation.
👉 https://mpl.mpg.de/research-at-mpl/independent-research-groups/quantum-optoacoustics
📸 MPL
#Photonics #OpticalFibers #Science -
Meet Laura Blázquez Martínez – Laser-focused in theory and practice
Laura Blázquez Martínez is a PhD student in the #QuantumOptoacoustics group at MPL, working with Prof. Birgit Stiller. Her research sits at a fascinating intersection: she studies the fundamental coupling of photons (light) and acoustic phonons (sound) in optical fibers – a field where abstract quantum theory meets tangible, hands-on experimentation.
👉 https://mpl.mpg.de/research-at-mpl/independent-research-groups/quantum-optoacoustics
📸 MPL
#Photonics #OpticalFibers #Science -
Paper accepted! 🥳
"Explaining and exploiting the radial memory effect in multimode optical fibres"
(A slightly older version is on ArXiv: https://arxiv.org/abs/2508.11389 )
When (coherent) light propagates in a multimode fibre, each mode accumulates a slightly different phase, so the output looks like a random speckle patter.
But it is NOT random!
This non-randomness has a number of consequences, among them the fact that the you get predictable patterns in the apparently random output. We show that a focused input will always result in a ring of excess intensity at the same radius of the input, we give a simple but rigorous explanation of why this happens, and suggest how this might be useful in practice. -
Paper accepted! 🥳
"Explaining and exploiting the radial memory effect in multimode optical fibres"
(A slightly older version is on ArXiv: https://arxiv.org/abs/2508.11389 )
When (coherent) light propagates in a multimode fibre, each mode accumulates a slightly different phase, so the output looks like a random speckle patter.
But it is NOT random!
This non-randomness has a number of consequences, among them the fact that the you get predictable patterns in the apparently random output. We show that a focused input will always result in a ring of excess intensity at the same radius of the input, we give a simple but rigorous explanation of why this happens, and suggest how this might be useful in practice. -
Paper accepted! 🥳
"Explaining and exploiting the radial memory effect in multimode optical fibres"
(A slightly older version is on ArXiv: https://arxiv.org/abs/2508.11389 )
When (coherent) light propagates in a multimode fibre, each mode accumulates a slightly different phase, so the output looks like a random speckle patter.
But it is NOT random!
This non-randomness has a number of consequences, among them the fact that the you get predictable patterns in the apparently random output. We show that a focused input will always result in a ring of excess intensity at the same radius of the input, we give a simple but rigorous explanation of why this happens, and suggest how this might be useful in practice. -
Paper accepted! 🥳
"Explaining and exploiting the radial memory effect in multimode optical fibres"
(A slightly older version is on ArXiv: https://arxiv.org/abs/2508.11389 )
When (coherent) light propagates in a multimode fibre, each mode accumulates a slightly different phase, so the output looks like a random speckle patter.
But it is NOT random!
This non-randomness has a number of consequences, among them the fact that the you get predictable patterns in the apparently random output. We show that a focused input will always result in a ring of excess intensity at the same radius of the input, we give a simple but rigorous explanation of why this happens, and suggest how this might be useful in practice. -
Paper accepted! 🥳
"Explaining and exploiting the radial memory effect in multimode optical fibres"
(A slightly older version is on ArXiv: https://arxiv.org/abs/2508.11389 )
When (coherent) light propagates in a multimode fibre, each mode accumulates a slightly different phase, so the output looks like a random speckle patter.
But it is NOT random!
This non-randomness has a number of consequences, among them the fact that the you get predictable patterns in the apparently random output. We show that a focused input will always result in a ring of excess intensity at the same radius of the input, we give a simple but rigorous explanation of why this happens, and suggest how this might be useful in practice. -
US team achieves 99% fidelity in quantum communication breakthrough
In a significant step toward realizing the vision of quantum networks, a University of Illinois Urbana-Champaign (UIUC) research…
#NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Physics #opticalfibers #QuantumCommunication #QuantumPhysics #quantumresearch #Science #UniversityofIllinoisUrbana-Champaign #ytterbium-171
https://www.newsbeep.com/us/220843/ -
US team achieves 99% fidelity in quantum communication breakthrough
In a significant step toward realizing the vision of quantum networks, a University of Illinois Urbana-Champaign (UIUC) research…
#NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Physics #opticalfibers #QuantumCommunication #QuantumPhysics #quantumresearch #Science #UniversityofIllinoisUrbana-Champaign #ytterbium-171
https://www.newsbeep.com/us/220843/ -
US team achieves 99% fidelity in quantum communication breakthrough
In a significant step toward realizing the vision of quantum networks, a University of Illinois Urbana-Champaign (UIUC) research…
#NewsBeep #News #Physics #AU #Australia #opticalfibers #QuantumCommunication #QuantumPhysics #quantumresearch #Science #UniversityofIllinoisUrbana-Champaign #ytterbium-171
https://www.newsbeep.com/au/209411/ -
https://www.europesays.com/uk/494482/ US team achieves 99% fidelity in quantum communication breakthrough #OpticalFibers #Physics #QuantumCommunication #QuantumPhysics #QuantumResearch #Science #UK #UnitedKingdom #UniversityOfIllinoisUrbanaChampaign #Ytterbium171
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Hollow glass fiber transmits internet with 1,000x greater capacity
The next internet revolution may come through a hollow strand of glass. Instead of the solid glass cores…
#NewsBeep #News #Internet #datatransmission #hollowfiber #internetspeed #Lumenisity #Microsoft #opticalfibers #Photonics #QuantumCommunication #Southamptonresearch #Technology #telecominnovation #UK #UnitedKingdom
https://www.newsbeep.com/uk/119267/ -
Hollow glass fiber transmits internet with 1,000x greater capacity
The next internet revolution may come through a hollow strand of glass. Instead of the solid glass cores…
#NewsBeep #News #Internet #datatransmission #hollowfiber #internetspeed #Lumenisity #Microsoft #opticalfibers #Photonics #QuantumCommunication #Southamptonresearch #Technology #telecominnovation #UK #UnitedKingdom
https://www.newsbeep.com/uk/119267/ -
Hollow glass fiber transmits internet with 1,000x greater capacity
The next internet revolution may come through a hollow strand of glass. Instead of the solid glass cores…
#NewsBeep #News #Technology #AU #Australia #datatransmission #hollowfiber #internetspeed #Lumenisity #Microsoft #opticalfibers #Photonics #QuantumCommunication #Southamptonresearch #telecominnovation
https://www.newsbeep.com/au/116847/ -
https://www.europesays.com/uk/395613/ Hollow glass fiber transmits internet with 1,000x greater capacity #DataTransmission #HollowFiber #Internet #InternetSpeed #Lumenisity #Microsoft #OpticalFibers #Photonics #QuantumCommunication #SouthamptonResearch #Technology #TelecomInnovation #UK #UnitedKingdom
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#PhysicsFactlet
Optical fibre modes are weird but oddly mesmerizing.
#Optics #OpticalFibers -
#PhysicsFactlet
Optical fibre modes are weird but oddly mesmerizing.
#Optics #OpticalFibers -
#PhysicsFactlet
Optical fibre modes are weird but oddly mesmerizing.
#Optics #OpticalFibers -
#PhysicsFactlet
Optical fibre modes are weird but oddly mesmerizing.
#Optics #OpticalFibers -
#PhysicsFactlet
Optical fibre modes are weird but oddly mesmerizing.
#Optics #OpticalFibers