Knowledge Base
Daily technical briefs on graphene production, batteries, sensors, coatings, aerospace, biomedical research, and industrial manufacturing.
Graphene production research, scalable manufacturing methods, reactor design, carbon conversion, and industrial process development.
Graphene battery materials, supercapacitor electrodes, hydrogen production, photocatalysts, and energy-storage research.
Graphene electronics, photonics, semiconductor interfaces, spintronics, sensors, and device-level research.
Graphene chemical sensors, biosensors, environmental sensors, tactile sensing, and high-sensitivity detection technologies.
Graphene coatings, composite additives, corrosion protection, plastics, concrete, films, and engineered materials.
Graphene biomedical materials, drug delivery, biosensing, cancer research, tissue interfaces, and medical device applications.
Graphene aerospace materials, radiation shielding, lightweight composites, thermal management, and defense applications.
Graphene membranes, water filtration, pollutant detection, environmental remediation, and clean technology research.
Researchers are using machine learning potentials to discover high-performance nitrogen-coordinated dual-atom catalysts, offering a faster, cheaper alternative to platinum for hydrogen production.
Raimundas Juodvalkis
Researchers have achieved a breakthrough in visualizing orbital magnetism in electron-doped rhombohedral multilayer graphene, offering new insights into quantum material behavior.
Raimundas Juodvalkis
Learn how to design and prototype a high-density, non-volatile multistate memory cell using CrSb/Graphene/In2Se3 heterostructures for next-generation neuromorphic computing.
Raimundas Juodvalkis
Learn how to overcome the responsivity-bandwidth trade-off in graphene photodetectors using WSe2 encapsulation to achieve 160 Gbps data rates for next-generation AI data systems.
Raimundas Juodvalkis
Scientists are exploring a revolutionary way to cool quantum devices using the Pomeranchuk effect in graphene-based Wigner crystals, potentially solving the heat problem in quantum computing.
Raimundas Juodvalkis
Scientists are uncovering how the movement of atomic layers in 2D materials like WSe2 can create ultra-efficient electrical switches, providing a roadmap for the next generation of nanoscale memory and computing.
Raimundas Juodvalkis
Exploring the intersection of geometry and quantum mechanics, this article examines N. Bolivar’s research into how spin-orbit rings use Wilson Holonomy and spectral monodromy to create stable, geometric control for electron spins in next-generation quantum devices.
Raimundas Juodvalkis
A technical exploration of how semiconductor artificial graphene uses Rashba-induced Berry curvature redistribution to enable highly controllable spin-Hall conductivity for the next generation of spintronics.
Raimundas Juodvalkis
Learn how to design a chemiresistive hydrogen sensor by optimizing platinum nanoparticle loading on graphene to maximize sensitivity and response speed.
Raimundas Juodvalkis
A new ACS Nano study reports a flexible laser-induced graphene and copper oxide skin patch that used mild heat to release copper ions into melanoma tumors in mice.
Raimundas Juodvalkis
Discover how the atomic misalignment of graphene and hexagonal boron nitride creates a moiré superlattice capable of ferroelectric hysteresis, paving the way for ultra-low power non-volatile memory.
Raimundas Juodvalkis
USA Graphene V2 focuses on advanced resistance measurement, a dedicated power sense board, and a redesigned production cell to improve consistency, repeatability, and machine reliability.
Raimundas Juodvalkis
Scientists are using twisted 2D materials to create a new type of electronic memory that mimics the plasticity of the human brain, potentially revolutionizing artificial intelligence hardware.
Raimundas Juodvalkis
Learn how to implement defect-engineered graphene to detect toxic Nitrogen Oxide (NO) gas. This guide moves beyond pristine graphene to leverage single-vacancy defects for superior sensing performance.
Raimundas Juodvalkis
Scientists have discovered how to inject specific spin-orbit coupling into graphene using WSe2 encapsulation, creating a stable environment for valleytronics and quantum information processing.
Raimundas Juodvalkis
Discover how researchers are using graphene to generate ultra-fast attosecond pulse trains through macroscopic phase-matching, potentially revolutionizing high-speed optical physics.
Raimundas Juodvalkis
Discover how researchers are using graphene and carbon nanotubes to create smart materials that can snap between two stable states, enabling a new era of mechanical memory and advanced nanotechnology.
Raimundas Juodvalkis
Scientists have mapped the electronic landscape of rhombohedral tetralayer graphene, uncovering evidence of a candidate chiral superconductor that could revolutionize quantum computing.
Raimundas Juodvalkis
A technical guide for developing graphene-based quantum sensors that utilize valley Hall viscosity for advanced signal detection in the quantum Hall regime.
Raimundas Juodvalkis
Explore how researchers are using electromagnetic fields to create topologically protected Majorana-like states in graphene, potentially solving the decoherence problem in quantum computing.
Raimundas Juodvalkis
Discover how researchers are using layer polarization and moiré superlattices in graphene to trigger metal-insulator transitions, unlocking new possibilities for quantum electronics.
Raimundas Juodvalkis
Learn how to implement a dual-graphite-gated architecture to control Coulomb interaction ranges in graphene, enabling precise control over dynamical criticality in quantum Hall regimes.
Raimundas Juodvalkis
Researchers have achieved a breakthrough in the on-surface synthesis of graphdiyne monolayers, using iron catalysts to create materials that are electrically decoupled from their substrates, preserving their unique properties for advanced technology.
Raimundas Juodvalkis
Scientists have discovered that the electronic connection between graphene and Nb3Cl8 can be tuned by changing the number of layers, opening new doors for quantum electronics.
Raimundas Juodvalkis
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