Graphene production research, scalable manufacturing methods, reactor design, carbon conversion, and industrial process development.
New research explores how stacking graphene with 1T-TaS2 monolayers allows scientists to switch between different spin textures, a breakthrough for next-generation quantum computing.
Learn how to engineer a high-precision magnetic flux sensor by leveraging magic-angle twisted bilayer graphene Josephson junctions to detect individual vortex dynamics and quantum tunneling.
Discover how the chemical polarity of nanopores dictates water flow efficiency, offering critical insights for the future of desalination and nanofluidic technologies.
Discover how a groundbreaking mathematical approach by Ken Beard and Daniel Massatt allows scientists to simulate the complex electronic properties of double-incommensurate trilayer graphene.
Learn how to implement trimmed graphene nanoribbon (GNR) junctions to create efficient, angled nano-interconnects by optimizing the armchair-to-zigzag edge ratio.
Researchers have developed a general theory explaining how ferroelectric materials can control spin splitting in antiferromagnets, paving the way for ultra-low-power, high-speed computing.
Theoretical breakthroughs regarding the massless Dirac equation reveal a new class of degenerate solutions that could pave the way for ultra-dense, high-speed optical memory systems using graphene.
A practical engineering guide for fabricating mesoscopic antidot devices in moiré rhombohedral graphene to probe competing Chern states and fractionalized excitations.
Researchers have developed a method using transonic flow focusing to peel single layers of graphene from graphite, offering a potential path toward high-quality, scalable production.
Discover how Kekulé-Y graphene allows for unprecedented control over light through mechanical strain and electrical doping, paving the way for highly tunable optical devices.
A practical guide for developing prototype topological quantum logic elements using the switchable chiral superconductivity found in rhombohedral hexalayer graphene.
Researchers have developed a new method using superconducting GHz RF reflectometry to measure the capacitance of bilayer graphene, enabling much faster and more sensitive electronic characterization than traditional methods.
Imagine a world where computers do not just rely on the movement of electric charge, but instead use a much more subtle property of matter to process information. In your current smartphone or laptop,
Learn how to implement a suspended graphene drum to generate tunable frequency combs and integer harmonics for advanced signal processing and frequency multiplication.
Exploring how researchers are mapping the stability of spin qubits within complex superconducting pseudogap systems to pave the way for more reliable quantum computing hardware.
Learn how a new, reproducible method for preparing graphene oxide grids using the Vitrobot Mark IV is overcoming the air-water interface challenge to enable high-resolution cryo-EM.
Exploring how quantum information geometry provides a new way to understand the complex electrical transport in multicomponent superconductors.
A technical guide for prototyping a non-Faradaic graphene biosensor designed for real-time, label-free quantification of Human Serum Albumin (HSA) using electric double-layer modulation.
Imagine a world where your smartwatch never needs a charger because it stays powered by the warmth of your skin, or where tiny sensors embedded in industrial engines harvest energy from the heat they
Discover how the marriage of 2D magnets and graphene is enabling a new era of spintronics by controlling electron spin at the atomic interface.
A technical guide for labs and startups to develop topological electronic components by leveraging the twist angle between graphene and WSe2 to switch between Chern insulator and trivial states.
Scientists explore how engineering three-valley moiré patterns in graphene-based materials enables intervalley coherence and flavor polarization, paving the way for advanced quantum information processing.
Researchers discover how optical vortices can detect tiny, swirling loop currents in moiré superlattices, a breakthrough for quantum computing and next-generation electronics.
Learn how to overcome Klein tunneling in 2D materials by using WSe2 and localized magnetic fields to create stable quantum dots for next-generation spin-valleytronics.