Oil-based Small Particle Size Few-Layer Graphene Slurry 2-3nm

Product Name Oil-based Small Particle Size Few-Layer Graphene Slurry 2-3nm Product Overview As a two-dimensional carbon material, single-layer graphene consists of a single layer of carbon atoms connected through sp² hybridization to form a six-membered ring structure resembling a honeycomb lattice. The C-C bonds in graphene have a length of approximately 0.142nm with a bond angle of 120°, while its thickness is merely 0.35 nm. Graphene ranks among the strongest materials known to date, exhibiting excellent mechanical, electrical, and optical properties. It demonstrates low electrical resistance, superior conductivity, and the ability to observe the quantum Hall effect at room temperature. Additionally, graphene possesses light transmittance and nonlinear optical characteristics. Its reactivity primarily occurs at edge groups and plane defects. Under high temperatures, graphene can be oxidized or react with oxidizing acids to produce products like CO and CO₂. It can also form graphene oxide by connecting with oxygen-containing groups or generate derivatives through other bonding mechanisms. Synthesis methods for graphene include mechanical exfoliation, chemical vapor deposition, redox reactions, and electrochemical processes. Technical Parameter Lateral size 1-10 μm (HRTEM) Thickness 2-3 nm (AFM) Carbontube content 5% Assistant reagent 0.5% Solvent NMP,DMF,DMAC,EtOH Product Features 1) Exceptional conductivity: The free movement of electrons in graphene's π bonds results in low resistivity and superior electrical performance. 2) High strength and toughness: As one of the strongest materials known, graphene demonstrates excellent mechanical integrity. 3) Superior thermal conductivity: Pure, defect-free single-layer graphene currently holds the record for the highest thermal conductivity among carbon-based materials. 4)Chemical stability: Its highly stable structure and flexible carbon atom connections ensure exceptional stability at room temperature. Application Fields The theoretical applications of graphene encompass multiple domains: 1) Electronics: As a silicon alternative for chip manufacturing, it enables applications in transistors, integrated circuits, flexible displays, wearable devices, and solar charging systems. 2) Heat Management: It reduces system costs by at least 30% for LED lighting and provides efficient cooling for smartphones, tablets, high-power energy-saving LED lights, satellite circuits, and laser weapons. 3) Automotive: Its applications include automotive lubricants, electric vehicles, and night vision systems, significantly reducing battery weight to lower vehicle mass while extending battery lifespan and boosting EV range and charging speed. 4) Biomedicine: It serves as a platform for biosensors, drug delivery systems, tissue engineering, and biomedical imaging. 5) Defense: It provides power for space exploration and satellite orbital adjustments. 6) Energy: It enables lithium-ion batteries, supercapacitors, and solar cells. 7) Composite Materials: It facilitates the production of next-generation polymers and advanced composites. 8) Sensors: It aids in diagnosing glucose, cholesterol, hemoglobin, and cancer cells, while functioning as pH sensors to detect pollutants. 9) Coatings: It enhances corrosion resistance across glass and metal surfaces, enabling new-generation waterproof devices. 10) Printed Electronics: Its high conductivity, flexibility, rapid printing, and low-temperature curing capabilities open doors to specialized printed electronics.