Product Name
CuS nanoparticles
Product Overview
CuS nanoparticles are a class of nanomaterials with unique properties. Their structural characteristics confer exceptional near-infrared light responsiveness, facilitating functionalization through surface modification. This material shows promise in biomedical applications, enabling synergistic photothermal and photodynamic therapies for tumor treatment while serving as a drug carrier for targeted delivery. In the energy sector, it is suitable for developing novel energy storage devices; in environmental applications, it can participate in photocatalytic degradation processes.
Technical Parameter
Concentration:0.4mg/mL,Concentrations can be customized up to 0.8 mg/mL Particle size: 10~20nm Solvent:Water
Appearance:Dark-green colloidal dispersion Zeta potential:-29mV
Product Features
1) Stability: CuS nanoparticles exhibit stable properties and are resistant to chemical reactions, providing a solid foundation for diverse application environments; 2) Optical Properties: As a p-type semiconductor, CuS nanoparticles exhibit strong absorption of near-infrared light, conferring unique application value in optoelectronic materials and biomedical fields; 3) Photothermal Effect: CuS nanoparticles can convert absorbed light energy into thermal energy, enabling potential applications in photothermal therapy and imaging; 4) Surface Modifiability: CuS nanoparticles can undergo functionalization treatments, such as carboxyl group modification, facilitating further functional applications; 5) Low Cytotoxicity: As a biocompatible material, CuS nanoparticles offer high safety for biomedical applications.
Application Fields
1) Photovoltaic Materials: Leveraging CuS nanoparticles' strong absorption of near-infrared light, they can be applied in photovoltaic devices such as solar cells and photodetectors to enhance photoelectric conversion efficiency. 2) Biomedical Applications: CuS nanoparticles have garnered significant attention as photothermal agents in biomedical fields. Photothermal therapy (PTT) utilizes heat generated by near-infrared light absorption to ablate tumors. CuS nanoparticles offer advantages such as excellent near-infrared optical properties and low cytotoxicity, positioning them as promising photothermal therapeutic agents; 3) Supercapacitors: CuS nanoparticles serve as electrode materials due to their gold-like electrical conductivity and favorable redox interactions with polyanion electrolytes. Research indicates that supercapacitors fabricated by compositing CuS with other materials exhibit high energy density, high power density, and excellent cycling stability.
