Metal and metal alloy nanoparticles are reshaping advanced materials by merging precision engineering with ecological responsibility. From enabling carbon-neutral manufacturing to purifying contaminated ecosystems, these materials offer scalable, low-energy solutions to global sustainability challenges. CD BioSustainable's products exemplify this potential, delivering measurable environmental and economic impacts across industries. As research progresses, smart alloy NPs will play an increasingly critical role in achieving net-zero emissions and circular economy goals.
Thermal catalysis accelerates chemical reactions at certain temperatures using catalysts and is widely applied in various fields. Metal oxide nanomaterials, with their high specific surface area, provide active sites and can act as carriers. Nano copper, due to its high surface activity and quantum size effects, stands out in oxidation-reduction reactions. Rhodium carbon is an important catalyst for hydrogenation reactions. Nitrides are suitable for high-temperature reactions, while carbides excel in electron transfer reactions. Mesoporous materials facilitate the diffusion of substances and can serve as catalyst carriers. Metal-organic frameworks, with their adjustable structures and high porosity, can function as catalysts or carriers.
| Product Type | Product Name | Applications |
| Metal Oxide Nanomaterials | Cerium(III) oxide | Catalysis, polishing, glass, and ceramic materials |
| Nano Copper | Nano Copper | Conductive inks, plating, and catalysis |
| Zinc Carbonate | Zinc Carbonate | Fertilizers, pigments, and pharmaceuticals |
| Metal Oxide Nanomaterials | Nano Titanium(IV) oxide | Paints, coatings, and photocatalysis |
| Metal Oxide Nanomaterials | Nano Aluminum oxide | Abrasives, ceramics, and electronics |
| Metal Oxide Nanomaterials | Vanadium(V) oxide | Catalysts and chemical sensors |
| Nitride | Boron Nitride | Lubricants, ceramics, and electronics |
| Metal Oxide Nanomaterials | Nano Magnesium oxide | Refractory materials and electronics |
| Metal Oxide Nanomaterials | Nano Manganese dioxide | Batteries, catalysts, and electronics |
| Nitride | Silicon Nitride | Ceramics, bearings, and cutting tools |
| Carbide | Silicon Carbide | Abrasives, ceramics, and electronics |
| Mesoporous Material | Mesoporous Carbon | Energy storage, catalysis, and adsorption |
| Metal-Organic Framework Material | MCM-41 Molecular Sieve | Catalysis, adsorption, and separation |
| Mesoporous Material | Mesoporous SBA-15 | Catalysis, adsorption, and separation |
| Metal-Organic Framework Material | ZSM-5 | Catalysis, adsorption, and separation |
| Metal-Organic Framework Material | CMK-3 | Catalysis, adsorption, and separation |
| Mesoporous Material | Mesoporous Silica | Drug delivery, catalysis, and adsorption |
| Mesoporous Material | Mesoporous Silica Microspheres | Drug delivery, catalysis, and adsorption |
| Mesoporous Material | Mesoporous Silica Nanoparticles | Drug delivery, catalysis, and adsorption |
| Mesoporous Material | Hollow Mesoporous Microspheres | Drug delivery, catalysis, and adsorption |
Photocatalysis utilizes light to drive catalysts to initiate chemical reactions and is widely used in many fields. 2D materials, carbon nanotubes, carbon black, and other materials each have their own advantages. 2D materials, with their excellent electrical and optical properties, are conducive to photocatalytic reactions. Carbon nanotubes promote the transfer and separation of photogenerated electrons. Carbon black can act as a carrier. Graphene oxide can adjust the electronic structure. Reduced graphene oxide enhances conductivity. Nitrogen-doped graphene alters the electronic structure. Fullerene participates in carrier transmission and transformation. Metal oxide nanomaterials are commonly used as photocatalysts. Nitrides, mesoporous materials, quantum dots, carbides, and metal-organic frameworks all play key roles in different aspects of photocatalysis based on their respective characteristics.
| Product Type | Product Name | Applications |
| 2D Material | Tungsten Carbide (IV), 99.99%, ≥100 mesh | Wear-resistant coatings, cutting tools |
| 2D Material | Black Phosphorus, 99.99%, Powder | Electronics, optoelectronics, energy storage |
| Carbon Material | Carbon Nanopowder, 97%, Test Grade, Nano Ceramic Powder | Electronics, materials science, medicine |
| Carbon Material | Carbon Nanopowder, 97%, Test Grade, Nano Ceramic Powder | Electronics, materials science, medicine |
| Carbon Nanotubes | Carbon Nanotubes, Single-walled, 95%, Test Grade, Diameter: <2 nm, Length: 1 - 3 μm | Electronics, composite materials, energy storage |
| Fullerene | Fullerene C60, 99.9% | Electronics, materials science, medicine |
| Graphite | Graphite, 98%, Test Grade, Thickness: 0.55 - 3.74 nm, Diameter: 0.5-3μm, Layers: <10/td> | Batteries, electrodes, lubricants |
| Graphite Black | Graphite Black | Lubricants, batteries, electrodes |
| Intermediary Material | Mesoporous Silica Nanoparticles, Diameter: 60-250 nm, Surface Area: 410-680 m2/g, Diameter: 2.8-13.3 nm, Pore Volume: 0.57-1.66 cm3/g | Drug delivery, catalysis, sensors |
| Metal Organic Framework | MCM-41 Molecular Sieve, Pore Size: 3 - 5 nm, Surface Area: ≥1000 m2/g | Gas separation, catalysis, sensors |
| Metal Organic Framework | ZSM-5 Molecular Sieve, Silica Ratio: ≥36, Surface Area: ≥340 m2/g | Catalysis, gas separation, sensors |
| Metal Organic Framework | Ordered Mesoporous Carbon CMK-3, Surface Area: ≥800 m2/g, Pore Size: 5 - 7 nm, Pore Volume: 1.0 - 1.5 cm3/g | Energy storage, catalysis, sensors |
| Metal Oxide Nanomaterials | Tungsten Oxide (IV), 99.995% | Electronics, catalysts, sensors |
| Metal Oxide Nanomaterials | Nano-scale Tungsten Oxide, Molybdenum Oxide | Electronics, catalysts, sensors |
| Metal Oxide Nanomaterials | Tungsten Trioxide (VI), 99.95%, Trace Metal Analysis, 50 nm | Electronics, catalysts, sensors |
| Nitride | Nitride, 99.5%, Trace Metal Analysis, ≤45 μm | Electronics, ceramics, coatings |
| Nitride | Nitride, 99.5%, Trace Metal Analysis, ≤45 μm | Electronics, ceramics, coatings |
| Nitrogen-Doped Graphene | Nitrogen-Doped Graphene, 98%, Surface Area: 100 - 300 m2/g, Layers: ≤3 | Electronics, sensors, energy storage |
| Oxidized Graphene | Oxidized Graphene, 99%, Test Grade, Thickness: 0.55 - 1.2 nm, Diameter: 0.5 - 3 μm, Layers: <3 | Electronics, sensors, energy storage |
| Quantum Dot Material | Tungsten Carbide | Electronics, displays, lighting |
| Reduced Graphene Oxide | Reduced Graphene Oxide, ≥98 wt% | Electronics, sensors, energy storage |
Electrocatalysis accelerates electrochemical reactions in an electric field with the help of catalysts and is of great significance in the fields of energy conversion and electrochemical synthesis. Carbon nanotubes, with their strong conductivity, large specific surface area, and chemical stability, can be used as electrode materials or carriers to promote reactions. Carbon black is conductive and has good adsorption properties, which can modify electrodes to enhance activity. Graphene oxide can be compounded to make high-performance catalysts. Graphene, with its excellent mechanical and electronic migration properties, can be used directly as an electrode or participate in composite catalysis. Nitrogen-doped graphene, with its altered electronic structure, has high catalytic activity for oxygen reduction. Reduced graphene oxide has good conductivity and is used in various battery electrodes. Fullerene, with its unique structure, plays a role in solar cells. Platinum black is an excellent catalyst but is costly. Nitrides and carbides can be used as electrodes or carriers, etc. 2D materials have potential in electrocatalytic hydrogen evolution and other reactions based on their characteristics.
| Product Type | Product Name | Applications |
| 2D Material | Black Phosphorus, 99.99%, Powder | Electronics, optoelectronics, energy storage, catalysis |
| Carbon Material | Carbon Nanopowder, 97%, Test Grade, Nano Ceramic Powder | Electronics, materials science, medicine, composite materials |
| Carbon Material | Carbon Nanopowder, 97%, Test Grade, Nano Ceramic Powder | Electronics, materials science, medicine, composite materials |
| Carbon Nanotubes | Carbon Nanotubes, Single-walled, 95%, Test Grade, Diameter: <2 nm, Length: 1 - 3 μm | Electronics, composite materials, energy storage, sensors |
| Fullerene | Fullerene C60, 99.9% | Electronics, materials science, medicine, lubricants |
| Graphite | Graphite, 98%, Test Grade, Thickness: 0.55 - 3.74 nm, Diameter: 0.5-3μm, Layers: <10/td> | Batteries, electrodes, lubricants, thermal management |
| Graphite Black | Graphite Black | Lubricants, batteries, electrodes, thermal management |
| Nitride | Nitride, 99.5%, Trace Metal Analysis, ≤45 μm | Electronics, ceramics, coatings, cutting tools |
| Nitrogen-Doped Graphene | Nitrogen-Doped Graphene, 98%, Surface Area: 100 - 300 m2/g, Layers: ≤3 | Electronics, sensors, energy storage, catalysis |
| Oxidized Graphene | Oxidized Graphene, 99%, Test Grade, Thickness: 0.55 - 1.2 nm, Diameter: 0.5 - 3 μm, Layers: <3 | Electronics, sensors, energy storage, composite materials |
| Platinum Black | Platinum Black, 20% Graphite Black (with surface active agent and no reaction) | Catalysts, electronics, sensors |
| Reduced Graphene Oxide | Reduced Graphene Oxide, ≥98 wt% | Electronics, sensors, energy storage, composite materials |
Biomass catalysis uses catalysts to convert biomass resources into high-value products and is of great significance in the fields of renewable energy and green chemistry. Graphene, with its large specific surface area and good conductivity, can be used as a carrier to enhance the activity and stability of catalysts for hydrogenation reactions. Carbon nanotubes, with their unique structure, help with adsorption and transport, acting as carriers or promoters to accelerate pyrolysis and gasification. Graphitic carbon nitride has photocatalytic activity for photocatalytic transformation. Reduced graphene oxide improves the performance of electrocatalytic electrodes. Metal oxide nanomaterials are active components for catalytic oxidation and reforming. Nitrides participate in cracking and reforming to change reaction pathways. Mesoporous materials act as carriers to optimize reaction rates and lifetimes. Metal-organic frameworks, with their adjustable structures and rich active centers, are used in various stages of biomass to enhance overall utilization efficiency.
| Product Type | Product Name | Applications |
| Carbon Nanotubes | Carbon Nanotubes, Single-walled, 95%, Test Grade, Diameter: <2 nm, Length: 1 - 3 μm | Electronics, composite materials, energy storage, sensors |
| Graphite | Graphite, 98%, Test Grade, Thickness: 0.55 - 3.74 nm, Diameter: 0.5-3μm, Layers: <10 | Batteries, lubricants, electrodes, thermal management |
| Graphite Carbon Nitride | Graphite Carbon Nitride, 98%, Surface Area: 100 - 300 m2/g, Layers: ≤3 | Electronics, sensors, energy storage, catalysis |
| Intermediary Material | Cubic Ia3d Intermediary Carbon, 99.6%, Surface Area: 500 m2/g, Pore Size: 3.2-6.6 nm, Pore Volume: 0.75-1.1 cm3/g | Drug delivery, catalysis, sensors |
| Metal Organic Framework | MCM-41 Molecular Sieve, Pore Size: 3 - 5 nm, Surface Area: ≥1000 m2/g | Gas separation, catalysis, sensors |
| Metal Organic Framework | Mesoporous Silica SBA-15, Diameter: 500-2000 nm, Surface Area: 700-1100 m2/g, Pore Size: 6-11 nm, Pore Volume: 0.6-1.3 cm3/g | Gas separation, catalysis, sensors |
| Metal Organic Framework | ZSM-5 Molecular Sieve, Silica-Alumina Ratio: ≥36, Surface Area: ≥340 m2/g | Catalysis, gas separation, sensors |
| Metal Oxide Nanomaterials | Tungsten Oxide (IV), 20% in H2O, Nanoparticle Dispersion, High pH, <5.0nm APS Number Equivalent, 20% in H2O | Electronics, catalysts, sensors, coatings |
| Metal Oxide Nanomaterials | Tungsten Trioxide (VI), 99.95%, Trace Metal Analysis, 50 nm | Electronics, catalysts, sensors, coatings |
| Metal Oxide Nanomaterials | Iron(III) Oxide, 99.5%, 20 nm | Electronics, catalysts, sensors, coatings |
| Metal Oxide Nanomaterials | Aluminum Oxide, 97%, γ-phase, Surface Area: 185 m2/g | Electronics, catalysts, sensors, coatings |
| Nitride | Nitride, 99.5%, Trace Metal Analysis, ≤45 μm | Electronics, ceramics, coatings, cutting tools |
| Reduced Graphene Oxide | Reduced Graphene Oxide, ≥98 wt% | Electronics, sensors, energy storage, composite materials |
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