Dr. Tsen's research explores two-dimensional quantum materials exhibiting superconductivity and exotic magnetism, bridging fundamental materials science with quantum device engineering.
@informaq.bsky.social
@informaq.bsky.socialDr. Tsen's research explores two-dimensional quantum materials exhibiting superconductivity and exotic magnetism, bridging fundamental materials science with quantum device engineering.
@informaq.bsky.socialFour international institutions unite to explore superconducting, chiral, and topological spintronics through advanced materials engineering and quantum measurements, advancing spin-based quantum technologies.
@informaq.bsky.socialMIT's robotic lab autonomously assembles and runs optical experiments with micron-scale precision, eliminating days of manual setup and enabling continuous 24/7 testing for quantum technologies, solar cells, displays, and more.
@informaq.bsky.socialResearchers at NUS used 0.14-THz radiation to separately measure electronic vs. lattice contributions to resistance in twisted bilayer graphene, revealing surprising electronic dominance at low carrier densities and challenging conventional transport models.
@physejournal.bsky.social📑 Introducing Physica E’s Editor’s Choice! Our first pick, selected by Carlo Beenakker, explores quantum-torus states. Read OA 👉 #PhysicaE #EditorsChoice #QuantumMaterials
@informaq.bsky.socialHarvard and JILA researchers used ultracold lithium atoms to observe a transition between normal metallic and pseudogapped metal states, offering new insights into high-temperature superconductivity mechanisms.
@informaq.bsky.socialInternational research team identified quantum materials that could enhance dark matter detection sensitivity, leveraging quantum mechanical properties to improve fundamental physics measurements beyond classical limits.
@informaq.bsky.socialResearchers demonstrate superconductivity in SnTe nanowires on InP substrates via indium diffusion, creating a thin InxSn1-xTe layer. Little-Parks oscillations confirm the effect, offering a potential platform for topological superconductors.
@informaq.bsky.socialResearchers demonstrated how flux mismatch between 2D material layers enables electric control of topological phases through topologically enforced Weyl monopoles, enabling programmable chiral transport in moire heterostructures and graphene bilayers.
@informaq.bsky.socialComprehensive experimental guide for detecting chiral phonons—quantized vibrations with angular momentum—enabling applications in spintronics, quantum information processing, and biosensing through multiple complementary spectroscopic techniques.
@informaq.bsky.socialResearchers developed a new method using purity-corrected stabilizer RĂ©nyi entropy to detect quantum phase transitions in frustrated magnetic systems, identifying critical points where conventional entanglement measurements failed.
@informaq.bsky.socialNew five-year MEAD program will use atomic-scale doping and isotopic engineering to create advanced materials for quantum sensors, secure communications, and computing. Aims to bridge laboratory innovation and commercial deployment.
@informaq.bsky.socialLa Luce Cristallina unveiled a silicon-based strontium titanate on insulator (STO) wafer platform engineered for cryogenic quantum devices, advancing materials technology for quantum computing systems.
@informaq.bsky.socialUltrafast laser pulses reshape collective magnetic excitations in cuprates via time-resolved X-ray scattering, revealing new pathways to control superconductor properties through light-driven manipulation of paramagnon populations.