Graphene electronics, photonics, semiconductor interfaces, spintronics, sensors, and device-level research.
A new Science paper shows how phase-change memristor hardware can run neural dynamical systems in milliseconds. Here is why graphene and 2D materials matter for the future of physics-driven computing.
Explore the physics of charge carrier mobility in graphene, detailing how mechanical strain and dielectric screening deeply impact electron transport.
Explore chemical routes and printing methods for graphene electrochemical sensors, from screen printing viscous pastes to inkjet printing conductive polymers.
Explore the chemical routes, printing methodologies, and photoluminescence applications of graphene quantum dots in advanced electrochemical sensors.
Discover the manufacturing processes behind printed graphene electrochemical sensors, including advanced screen and inkjet printing techniques.
Explore advanced computational electromagnetics simulating graphene's interaction with electromagnetic waves, unlocking groundbreaking THz, near-infrared, and optical devices.
Exploring the profound physics of tunneling current in curved graphene nanoribbons, their contact with metals and quantum dots, and the emergence of negative differential conductivity.
Explore how selective doping transforms graphene's atomic and electronic properties, unlocking its full potential for advanced applications in energy, electronics, and beyond.
Explore graphene plasmonics, the cutting-edge field merging graphene physics and plasmonics to enable tunable THz and IR optoelectronic devices.
Graphene-based photorefractive systems are advancing electro-optics, offering superior optical data recording capabilities. This article details their mechanisms and potential applications.
Understanding graphene charge carrier mobility under mechanical strain is critical for advanced device design. This deep dive explores how strain and screening effects fundamentally alter electron transport in graphene, presenting key insights for engineers.
Graphene Quantum Dots (GQDs) transcend graphene's zero-bandgap limitation, offering tunable photoluminescence through precise chemical routes. This enables their integration into groundbreaking biomedical, optoelectronic, and sensing technologies.
Discover how wafer-scale CVD graphene on evaporated copper films on silicon wafers is overcoming critical manufacturing barriers. This breakthrough achieves high-quality, defect-negligible graphene for next-gen nanoelectronics.
Explore SiC sublimation graphene, a superior method for producing high-quality graphene layers vital for advanced microelectronics and nanoelectronics.
Explore how graphene field emission devices are revolutionizing vacuum electronics with unparalleled performance and efficiency, offering a glimpse into the future of electron sources.
Explore advanced Graphene Nanoribbons Synthesis methods: gamma irradiation and carbon nanotube unzipping, critical for next-gen electronics.
Unlock the complexities of graphene device fabrication, from production methods to contact engineering. This guide offers deep insights into adapting semiconductor processing for 2D materials, ensuring optimal performance.