Nanoparticles for Catalysts

CD Bioparticles is a leading manufacturer and service provider of nanotechnology products and services, with a preeminent position in the field of nanotechnology. We offer a diverse range of nanoproducts, including metallic nanostructures, nano-coatings, biopolymers & synthetic polymers, and liposome systems, to meet the needs of a variety of applications and support their commercialization. In addition, we offer a wide range of personalized services, including catalytic nanoparticle formulation development, bioparticle analysis and characterization, and related nanoparticle modification services. We are deeply committed to providing researchers and industrial developers around the world with the most comprehensive product selection and purpose-tailored analytical and synthetic services.

Figure 1. Types of catalysts based on magnetic nanoparticles. (Katja Vasić, et al.; 2020)Figure 1. Types of catalysts based on magnetic nanoparticles. (Katja Vasić, et al.; 2020)

Nanoparticle catalysis is a key nanotechnology application that uses nanoscale particles as catalysts to accelerate chemical reactions. This area is of great significance because nanoparticles have high specific surface areas, providing more catalytically active sites, thereby significantly increasing reaction rates and efficiencies. Furthermore, highly selective control of reactions can be achieved by precisely manipulating the size, shape, and composition of nanoparticles. Nanoparticle catalysis is widely used in fields such as energy, environment, medicine, and materials science, and is expected to continue to promote scientific research and solve practical problems in the future.

Nanoparticles in Catalysts

Nanoparticles play a crucial role in the field of catalysis, and their importance is mainly reflected in the following aspects:

Enhanced catalytic activity: Nanoparticles have more catalytically active sites due to their extremely high specific surface area and size effect. This allows them to significantly increase the rate of catalytic reactions and reduce the activation energy, thus promoting the progress of the reaction. This is critical for speeding up chemical reactions, especially in areas such as pharmaceuticals, fuel production and environmental remediation.

Improved selectivity: By tuning the shape, size and surface properties of nanoparticles, highly selective control of reactions can be achieved. This means that specific products can be synthesized selectively, reducing the generation of unnecessary by-products. This is important for chemical processes in areas such as organic synthesis and fine chemicals.

Reduced Catalyst Amount: Nanoparticle catalysis generally requires a smaller amount of catalyst because their high activity can be achieved at lower catalyst concentrations. This not only reduces production costs, but also helps reduce waste generation and is beneficial to environmental protection.

Versatility: Nanoparticle catalysts can achieve multifunctional catalysis through surface modification or the introduction of different functional groups. For example, nanoparticles can be used in a variety of applications such as photocatalysis, magnetic catalysis, electrochemical catalysis, and catalyst recovery and reuse.

Benefits of Nanoparticles in Catalysts:

Nanoparticles have many advantages in catalysts that make them popular in the field of catalysis. Here are some of the main advantages of nanoparticles in catalysts:

  • High specific surface area: Nanoparticles are relatively small and therefore have extremely high specific surface area, which means that nanoparticles have more surface active sites per unit mass. This enables them to offer more reaction scenarios and thus increase catalytic activity.
  • Size Effect: Due to size effect, the physical and chemical properties of nanoparticles differ compared to their macroscopic counterparts. This size effect can be used to optimize catalytic performance, such as reducing the activation energy of catalytic reactions and improving selectivity.
  • Efficient catalysis: Due to the presence of highly active sites, nanoparticle catalysts are generally able to accelerate chemical reactions with higher efficiency, which helps increase reaction rates, reduce energy consumption, and reduce production costs.
  • Reduced amount of catalyst: Due to its high catalytic activity, a smaller amount of catalyst can usually be used to achieve the same reaction effect. This helps to reduce catalyst costs and waste generation.
  • Multifunctionality: Nanoparticle catalysts can achieve multifunctional catalysis by surface modification or adding functional groups, such as photocatalysis, magnetic catalysis, electrochemical catalysis, etc., thereby expanding their application scope.
  • Controllability: Through synthesis and design methods, the properties of nanoparticles can be precisely controlled, including size, shape, crystal structure, etc. This controllability helps optimize catalyst performance to meet specific reaction needs.

The Application Nanoparticles in Catalysts

  • Gold Nanoparticle Catalysts: Gold nanoparticles are widely used in catalytic reactions such as redox reactions, organic synthesis, and environmental purification. One example is the use of gold nanoparticles as support material for immobilized enzymes. Gold nanoparticles have good biocompatibility and stability. They can be used to immobilize enzymes and improve their stability and catalytic efficiency. Such catalytic systems are commonly used in applications such as biofuel cells, drug synthesis, and biosensors.
  • Nanomaterials as fixed acid-base catalysts: Nanomaterials such as oxides, sulfides, and carbon nanotubes are widely used as fixed acid-base catalysts. For example, zirconia nanoparticles can be used as immobilized acid catalysts, playing a key role in esterification reactions, etc.
  • Applications of Nanocatalysts in Energy Production: Nanoparticle catalysts also have important applications in the energy field. For example, platinum nanoparticles are often used in fuel cells as catalysts for oxygen reduction reactions to improve fuel cell efficiency. In addition, cobalt and nickel-based nanoparticles are used to produce hydrogen through water electrolysis, which is expected to promote the storage and utilization of renewable energy.
  • Application of nanometal catalysts in chemical synthesis: Nanometal catalysts play an important role in organic synthesis. For example, platinum nanoparticles are widely used in hydrogenation reactions to prepare high value-added organic compounds. Another example is the use of palladium nanoparticles in Suzuki coupling reactions to promote the formation of carbon-carbon bonds for the synthesis of drugs and high-performance polymers.
  • Nanocomposite catalyst: Nanocomposite catalyst combines nanoparticles of different materials to exert their synergistic effect. For example, combining iron oxide nanoparticles with noble metal nanoparticles can be used for low-temperature CO oxidation reactions, which is of great significance in exhaust gas treatment.

Our Featured Services

CD Bioparticles focuses on the research and development of nanoparticles and utilizes our core technology to tailor nanoparticles for various applications. Through our high-quality products and services, you can greatly improve the efficiency of your nano-product research and development. We offer customized synthesis services of nanoparticles for catalysts. Customers can choose their own material type, particle size, size distribution and surface properties. We offer you the opportunity to gain new insights and breakthroughs in catalysts. Furthermore, the nanoparticle formulation method we developed is simple, scalable, and reproducible, ultimately well suited for large-scale production of nanoparticles for catalysts.


  1. Katja Vasić, et al.; Biodiesel Production Using Solid Acid Catalysts Based on Metal Oxides. Catalysts. 2020, 10(2):237.
  2. Roy S, Pericàs MA. Functionalized nanoparticles as catalysts for enantioselective processes. Org Biomol Chem. 2009, 7(13):2669-77.
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