Graphene production research, scalable manufacturing methods, reactor design, carbon conversion, and industrial process development.
Graphene masterbatch can add conductivity, thermal response, UV shielding, antistatic behavior and durability to synthetic fibers, but the right process depends on the polymer. This guide maps the major synthetic fiber families, their uses and the realistic benefits of graphene integration.
Researchers use localized wave packets to dynamically map the complex topological structures of Dirac points, paving the way for next-generation quantum electronics.
Learn how to use MoOx and ZnOx overlayers to stabilize and tune graphene plasmonic responses for infrared nanophotonic applications.
TITLE: Decoding Graphene's High-Frequency Vibrations: Bernstein Modes and Harmonic Saturation EXCEPTED: An exploration of Miguel Tierz's research into the complex wave patterns and energy limits of el
Discover how scientists are using geometric engineering to create photonic graphene, a breakthrough that allows us to manipulate light with the same precision used in advanced electronics.
Learn how to implement a prototype for non-volatile, ion-based memory using double-gated van der Waals heterostructures to decouple ion density from transport rates.
A technical exploration of how periodic light driving and mechanical strain can transform graphene into a second-order topological insulator with protected corner states.
Researchers are discovering how the messy, disordered structure of amorphous carbon can actually improve the efficiency of hydrogen production, potentially replacing expensive precious metals like platinum.
Learn how to prototype a next-generation sensor that uses uniaxial strain to trigger a topological phase transition in bilayer graphene, enabling high-sensitivity detection via the nonlinear Hall effect.
Scientists have successfully grown beta-bismuthene on a topological insulator, opening new doors for ultra-efficient spintronics and quantum computing by leveraging the unique properties of 2D bismuth lattices.
New theoretical research provides a complete mathematical framework for Tip-Enhanced Raman Spectroscopy (TERS) of 2D materials, finally accounting for out-of-plane atomic vibrations.
A practical engineering guide to implementing tunable Fano resonances and frequency locking in graphene-SiNx hybrid systems for ultra-stable micro-scale timing and sensing applications.
Imagine a single layer of carbon atoms, just one atom thick, serving as a high-speed highway for electrons. In this microscopic realm, electrons do not behave like the particles in a standard copper w
New computational research suggests that by using hole-doping to suppress competing magnetism, we can harness the high density of states in C136 carbon Schwarzite to create new pathways toward superconductivity.
Learn how to prototype a single-mode quantum point contact using bilayer graphene and aluminum to create ultra-sensitive cryogenic sensors for quantum-scale measurements.
An exploration of how emerging two-dimensional materials like graphene are enabling a shift from traditional computing architectures to efficient, brain-like neuromorphic systems.
Explore how researchers are using Dirac materials to simulate high-energy physics, revealing how relativistic electrons behave around single charges and the potential for supercritical energy states.
Researchers explore how mechanical strain can distinguish between elusive Majorana bound states and deceptive Andreev bound states in disordered semiconductor-superconductor interfaces.
New theoretical research explores how the valley degree of freedom in Dirac materials like graphene can be used to manipulate the viscosity of electron fluids, potentially unlocking a new era of valleytronics.
Learn how to bypass edge-scattering in bilayer graphene by implementing a graphite-gated architecture to achieve record-breaking quantum mobility for precision sensing applications.
Senior science journalist and technical teacher for usa-graphene.com. "Symmetry Guided Band-Gap Opening via Periodic Topological Defects in Graphene" by D. N. Garzon, Leonel Cabrera-Loor, Jacopo Glioz
A deep dive into the complex mathematical approaches used to understand the competition between superconductivity and density waves in quantum materials, a breakthrough that could redefine how we design quantum computers.
Learn how to use specific light wavelengths to either tune graphene doping or reset ferroelectric polarization in hybrid optoelectronic devices.
Explore how sulfur doping transforms the electronic properties of few-layer graphene, shifting its behavior from high-speed electron transport to specialized flat-band states for advanced quantum materials.