RIT Photonics

Prof. @therealdonfiger visited @FCIMG2024 and met with Sr. Applications Engineers Hank Hu & Chris Pogatchnik, Applications Engineering Mgr. Budi Hartono, VP of Strategic Marketing Doug Teeter, & Sr. Business Development Mgr. Deren Mehmet to discuss potential future collaborations

Researchers from @Nanocenter_ @UCAS1978 & Institute of Microelectronics of Chinese Academy of Sciences created advanced LEDs that emit circularly polarized light, improving 3D display technology using special nanowire structures nature.com/articles/s4156… @NaturePhotonics

Dr. Ke Xu and colleagues from @RITcomputing and @RITscience recieved @NSF funding through the CAREER Award program to tackle some of AI’s most pressing challenges. rit.edu/news/nsf-caree…

Researchers from @USTCGlobal @Tsinghua_Uni @CAS__Science & Jinan Institute of Quantum Technology securely send quantum encryption keys through free-space air over 14.2 kilometers, which could enable future global quantum communication networks nature.com/articles/s4156… @Nature

Researchers from @UNSWScience used a special liquid called NODIPS-An that behaves like a solid on a tiny timescale to efficiently convert low-energy light into higher-energy light in nanoscale devices, achieving an 8.2% efficiency nature.com/articles/s4156… @NaturePhotonics

New Article online: Local and remote synthesis of single-photon space-time wave packets. go.nature.com/3RLes2k

Researchers from @LMU_Muenchen @Uni_Stuttgart @ufpeoficial @MonashUni @imperialcollege & @TUHamburg dynamically control tiny, resilient light patterns using special materials and frequencies, allowing for highly adaptable nanophotonic devices nature.com/articles/s4156… @NatureNano

Justin Gallagher and three student researchers have successfully captured test images with the system setup in the K500 staging area at @FRIBLab and are full steam ahead ready for radiation testing! @michiganstateu

Prof. Preble and researcers from @KTHuniversity @2024_HUST & @_RITEngineering built a programmable photonic chip that uses controlled loss to tune how quantum light gets absorbed or transmitted, revealing phase-dependent quantum effects. nature.com/articles/s4146… @NatureComms

A tunable artificial crystal in a shallow GaAs quantum well is shown to enable interaction-driven insulating behaviour. Electrostatic control tunes the band structure from graphene-like to kagome-like bands. nature.com/articles/s4156…

Massive spatial superpositions are a resource for quantum interferometry, but it has been hard to generate them beyond single atoms. Now spatially entangled massive states are realized through the tunnelling of atomic clusters in optical lattices. nature.com/articles/s4156…

Researchers from @MIT @UW @UCF @Harvard @ODU developed a way to carve incredibly tiny 3D patterns into a soft material using light, allowing them to build ultra-small optical devices that can process information like a simple AI system nature.com/articles/s4156…

How angular momentum is exchanged and conserved among lattice modes has been difficult to measure experimentally, but has now been observed via a coherent three-phonon scattering process in a topological insulator. nature.com/articles/s4156…

Researchers from @MIT developed a way to “carve” and then dramatically shrink tiny 3D structures so they become small enough to control visible light, potentially enabling ultra-fast computers that process information using light instead of electricity nanowerk.com/nanotechnology…

When two graphene layers are twisted at a ‘magic angle’, their electrons can behave as both heavy and light particles go.nature.com/4u0tSOL

Researchers from developed a way to take sharper terahertz images by shining waves at an object from different angles & using computer processing to combine the data into a higher-resolution picture than the hardware could normally produce nature.com/articles/s4156… @NaturePhotonics

Researchers from @NTUsg found a way to precisely control how light twists and spins inside tiny nanoscale devices, which could help build more powerful and reliable quantum computers and communication systems nature.com/articles/s4137… @Nature

Researchers from @USTCGlobal created a more reliable way for quantum devices to share entangled information across 14.5 kilometers of city fiber cables, proving at that scale that the connection was robust enough for future quantum internet networks nature.com/articles/s4156…

Researchers from @OxfordPhysics combined two simple interactions in a trapped ion to create stronger, more complex quantum effects like squeezing, trisqueezing, and quadsqueezing; achieving these results much faster than traditional methods nature.com/articles/s4156… @SpringerNature

Researchers from @KyotoU_News @SHU19945 @KeioGlobal @ENS_TampereUni @RitsumeikanU & @UOsaka_en pair light-absorbing molecules with quantum dots, showing they can create new energy pathways that make it easier to turn one unit of light energy into two nature.com/articles/s4156…