Fe₂(MoO₄)₃/C

Product Name Fe₂(MoO₄)₃/C Product Overview Carbon-doped iron molybdate Fe₂(MoO₄)₃/C is a novel carbon composite molybdate functional material. It is prepared by in-situ carbon coating and carbon doping process with iron molybdate as the matrix. The material integrates the unique layered crystal structure and stable redox characteristics of iron molybdate with the excellent electrical conductivity and structural stability of carbon materials, effectively solving the industrial pain points of pure iron molybdate such as poor conductivity, easy agglomeration of active sites and insufficient cycle stability. With adjustable micro-morphology, excellent electrochemical activity and catalytic performance, as well as stable chemical properties and moderate acid and alkali resistance, it is a core functional molybdate material widely used in new energy, environmental catalysis and energy storage fields. Technical Parameter 粒径:300-400 nm Product Features 1. Excellent Conductivity The carbon layer is uniformly coated and doped on the surface and inside of the iron molybdate matrix to construct a continuous conductive network, which greatly improves the electron transmission rate of the material, completely solves the defects of insulation and conductive hysteresis of pure iron molybdate, and adapts to high-rate energy storage and rapid catalytic reaction scenarios. 2. High Structural Stability The carbon composite structure can effectively inhibit the agglomeration of iron molybdate nanoparticles and the collapse of crystal structure, alleviate the volume expansion during charge-discharge and catalytic reactions, significantly improve the cycle service life and reusability of the material, with a much lower loss rate than pure iron molybdate materials. 3. Abundant Active Sites The unique micro-nano hierarchical structure combined with the porous characteristics of carbon materials exposes a large number of molybdenum-iron bimetallic active sites, with excellent catalytic activity, electrochemical adsorption and desorption performance, high reaction efficiency and strong environmental adaptability. 4. Stable Chemical Properties The material has high purity and low impurity content, stable physical and chemical properties at normal temperature and pressure, not easy to oxidize and decompose, resistant to weak acid and alkali corrosion, suitable for a variety of liquid and gas phase reaction systems with strong process compatibility. 5. Eco-friendly & Cost-effective The preparation process is green and pollution-free without precipitation of toxic and harmful impurities. With wide raw material sources and controllable mass production costs, it has a significant cost performance advantage compared with precious metal catalytic materials。 Application Fields New Energy Energy Storage It can be used as anode active materials for lithium-ion batteries and sodium-ion batteries, as well as electrode materials for supercapacitors. Relying on high conductivity and stable structure, it improves the rate performance, cycle life and specific capacity of batteries, suitable for portable energy storage, power batteries and other scenarios. Environmental Catalysis It is used in organic wastewater degradation, dye pollutant adsorption and removal, atmospheric VOCs catalytic oxidation, formaldehyde degradation and other scenarios. As an efficient non-precious metal catalytic adsorption material, it can replace traditional high-cost catalysts and is widely applied in industrial sewage treatment and air purification fields. Electrochemical Sensing With excellent electrochemical response characteristics, it can be used to prepare high-precision electrochemical sensors for the detection of heavy metal ions and small organic molecules, suitable for precision detection scenarios such as water quality detection, food detection and environmental monitoring. Industrial Catalysis It can be used in industrial catalytic processes such as fine chemical oxidation reactions, biomass conversion (5-hydroxymethylfurfural catalytic oxidation), hydrogenation and dehydrogenation reactions, with mild reaction conditions, high catalytic selectivity and few side reactions.