Researchers developed a transistor technology that enables a single device to perform multiple circuit functions simultaneously, simplifying circuit design and increasing data processing speed. The new approach reduces required transistors by 75% and increases data processing speed fourfold.
SourcePohang University of Science & Technology (POSTECH)·JournalAdvanced Functional Materials·DateJun 5, 2026
Researchers at Rice University and the Weizmann Institute have visualized compact molecular orbitals in flat band quantum materials, providing insight into the interplay between topology and correlation physics. The study reveals that these electronic agents underlie the unusual quantum critical behavior in a highly correlated metal.
SourceRice University·TypeExperimental study·DateMar 20, 2026
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Aranet4 Home CO2 Monitor tracks ventilation quality in labs, classrooms, and conference rooms with long battery life and clear e-ink readouts.
Researchers from CASUS at HZDR developed a reliable computational framework to study polyheptazine imides' electronic and optical properties. This work confirms the potential of these materials for photocatalytic reactions, including water splitting and carbon dioxide reduction.
SourceHelmholtz-Zentrum Dresden-Rossendorf·JournalJACS·TypeComputational simulation/modeling·DateMar 4, 2026
Researchers developed a new atomically layered material that reduces resistivity by five orders of magnitude when oxidized, exceeding similar non-layered materials. The team discovered a synergy between oxidation and structural modification driving dramatic changes in physical properties.
SourceTokyo Metropolitan University·JournalChemistry of Materials·DateNov 1, 2025
Researchers at SUTD have discovered that applying pressure can transform angstrom-thin bismuth into a metallic material, eliminating its energy band gap and allowing electrons to move freely. This discovery enables the creation of layer-selective Ohmic contact, which allows electrical current to be steered between layers on demand.
SourceSingapore University of Technology and Design·JournalNano Letters·DateOct 24, 2025
Celestron NexStar 8SE Computerized Telescope
Celestron NexStar 8SE Computerized Telescope combines portable Schmidt-Cassegrain optics with GoTo pointing for outreach nights and field campaigns.
The team created Pd5AlI2, a metallic material that exhibits frustration of electron motion due to its chemistry, rather than geometry. This discovery opens up new possibilities for flat bands and unique electronic structures that could lead to breakthroughs in quantum technologies like superconductors and rare-earth-free magnets.
SourceColumbia University·JournalNature Physics·DateAug 7, 2025
Researchers at the University of Michigan discovered a class of materials with exciting properties for transporting photonic information, including unidirectional transport and defect-free light. The topological insulators' band gap size can be up to 100 times larger than current records, enabling new applications in optical devices.
SourceUniversity of Michigan·JournalPhysical Review X·DateJun 24, 2025
Recent study on 2M-WS2 reveals coexistence of striped surface charge order with superconductivity, modifying spatial distribution of Majorana bound states. Experimental results demonstrate that surface charge order does not destroy bulk topology but can modify MBS positions.
SourceScience China Press·JournalNational Science Review·TypeExperimental study·DateApr 8, 2025
An international team of researchers has synthesized a material hosting a single pair of Weyl fermions, and no irrelevant electronic states. The work enables potential applications in terahertz devices, high-performance sensors, low-power electronics, and novel optoelectronics devices.
SourceRIKEN·JournalNature·TypeExperimental study·DateJan 23, 2025
Apple iPhone 17 Pro
Apple iPhone 17 Pro delivers top performance and advanced cameras for field documentation, data collection, and secure research communications.
Researchers at the University of Minnesota have created a new, transparent conducting oxide material with increased band gap, enabling faster and more efficient devices. This breakthrough supports the development of high-performance electronics for computers, smartphones, and potentially quantum computing.
SourceUniversity of Minnesota·JournalScience Advances·DateNov 8, 2024
Scientists have engineered a non-magnetic material called tantalum silicide to achieve efficient spin Hall effect at high temperatures through Berry phase monopole engineering. This breakthrough could lead to the development of ultrafast, low-power and high-temperature spintronic devices.
SourceTokyo Institute of Technology·JournalApplied Physics Letters·TypeExperimental study·DateJan 5, 2024
High-entropy metal telluride superconductors exhibit unique properties due to structural disorder and atomic vibrations. The discovery sheds light on the coupling between electrons and lattice vibrations, potentially leading to exotic superconductivity mechanisms.
SourceTokyo Metropolitan University·JournalMaterials Today Physics·DateMar 25, 2023
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GQ GMC-500Plus Geiger Counter logs beta, gamma, and X-ray levels for environmental monitoring, training labs, and safety demonstrations.
Scientists have established a physical model of Berry-curvature-dominated linear positive magnetoresistance (LPMR) in topological materials, providing experimental evidence for the mechanism. The study used cobalt disulfide as a material candidate and proposed temperature-dependent equations that fit previously reported data.
SourceChinese Academy of Sciences Headquarters·JournalProceedings of the National Academy of Sciences·TypeExperimental study·DateNov 7, 2022
Researchers discovered a novel metallic crystal, Kagome metal, with unusual electronic behavior on its surface. The material's unique atomic structure allows for the manipulation of electrons' spin chirality, which can be controlled by applying a local voltage.
SourceCity University of Hong Kong·JournalScience Advances·TypeExperimental study·DateOct 27, 2022
Researchers at the University of Tsukuba have created light-induced topological states in zinc arsenide, exhibiting unusual behavior where electrical currents flow along the surface. This work explores the possibility of creating topological semimetals and manifesting new physical properties by light control.
SourceUniversity of Tsukuba·JournalPhysical Review B·DateSep 12, 2022
Scientists have discovered new magnetic interactions in TbMn6Sn6, a Kagome layered topological magnet, which could be used to customize electron flow and reduce energy loss. The material's unique structure and electronic band structure make it an ideal candidate for quantum computing, magnetic storage media, and high-precision sensors.
SourceDOE/Ames National Laboratory·JournalPhysical Review X·DateAug 18, 2022
Researchers constructed a synthetic stub lattice in two coupled rings of different lengths, observing flat bands, band transitions and mode localization. This experimental demonstration enables dynamic control of light and may pave the way for future applications in optical communications.
SourceSPIE--International Society for Optics and Photonics·JournalAdvanced Photonics·DateJun 21, 2022
Rigol DP832 Triple-Output Bench Power Supply
Rigol DP832 Triple-Output Bench Power Supply powers sensors, microcontrollers, and test circuits with programmable rails and stable outputs.
Researchers studied twisted trilayer graphene, discovering a phase diagram that decouples into product states of graphene and bilayer graphene. The system exhibits unique insulating and semi-metallic phases in the presence of an electric field.
SourceUniversity of Innsbruck·JournalPhysical Review X·TypeComputational simulation/modeling·DateApr 27, 2022
Researchers have confirmed a novel quantum topological material for ultra-low energy electronics, reducing energy consumption by a factor of four. The study reveals the potential of zigzag-Xene-nanoribbons to make topological transistors with robust edge states and low threshold voltage.
SourceARC Centre of Excellence in Future Low-Energy Electronics Technologies·JournalApplied Physics Reviews·TypeExperimental study·DateMar 8, 2022
Researchers have created and detected dispersing excitons in a metal using angle-resolved photoemission spectroscopy, a breakthrough that could enable efficient data transmission. The discovery of mobile excitons in TaSe3 reveals their mobility and potential to revolutionize electronics.
SourcePaul Scherrer Institute·JournalNature Materials·TypeExperimental study·DateFeb 21, 2022
Researchers have demonstrated a novel topology arising from losses in hybrid light-matter particles, introducing a new avenue to induce topological effects. The study found that the mere presence of loss in an exciton-polariton system causes it to exhibit nontrivial topology.
SourceARC Centre of Excellence in Future Low-Energy Electronics Technologies·JournalScience Advances·TypeExperimental study·DateDec 13, 2021
Researchers from UC Riverside developed a revolutionary imaging technology that compresses light into a nanometer-sized spot, allowing for unprecedented 6-nanometer color imaging of nanomaterials. This advance improves the study of unique properties and potential applications in electronics and other fields.
SourceUniversity of California - Riverside·JournalNature Communications·TypeExperimental study·DateNov 25, 2021
Creality K1 Max 3D Printer
Creality K1 Max 3D Printer rapidly prototypes brackets, adapters, and fixtures for instruments and classroom demonstrations at large build volume.
Scientists fabricate 1D and 2D boron sulfide (BS) nanosheets with unique electronic properties that can be controlled by changing the number of layers. The bandgap energy decreases as more layers are added, making BS a potential n-type semiconductor material.
SourceUniversity of Tsukuba·JournalJournal of Materials Chemistry A·DateOct 28, 2021
A graphene-based nanoelectromechanical periodic array has been demonstrated, showing a large number of quasi-continuous resonance modes over a wide tunable frequency range. The device's frequency can be adjusted by applying an electric field to the graphene material.
SourceUniversity of Science and Technology of China·JournalNano Letters·DateOct 28, 2021
Researchers at Princeton University observed exotic electronic properties in kagome magnets, including negative magnetism and flat-band electrons. The study used state-of-the-art scanning tunneling microscopy and spectroscopy to explore the behavior of electrons in a kagome-patterned crystal.
SourcePrinceton University·JournalNature Physics·DateFeb 22, 2019
A recent high-pressure study on PtTe2 reveals the trivial band structure plays a crucial role in its transport properties. The study observes critical transitions around 20 GPa without lattice phase transitions, and DFT calculations confirm pressure-induced DSM state annihilations at 10 GPa.
Physicists at MIT and Princeton University have developed a new technique to map the energy and momentum of electrons beneath a material's surface. By using momentum and energy resolved tunneling spectroscopy, researchers can visualize the band structure of materials, which determines their electrical and optical properties.
SourceMassachusetts Institute of Technology·JournalScience·DateNov 16, 2017
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Researchers at the IBS Center for Theoretical Physics of Complex Systems engineered Landau-Zener-Bloch oscillations within a lattice structure, revealing anharmonic properties. The study demonstrates potential for engineering new quantum states and resolving the behavior of Bloch oscillations under external fields.