CORE BUSINESS
Overview
MOF R&D and Production
MOF OEM & ODM Services
MOF Application Overview
Products
Standard MOF Series
Industry News
China ZIF-93 Powder Metal Organic Frameworks (MOFs) - Leading Suppliers & Factory for Gas Adsorption Solutions
acvbn
| Product Name | ZIF-93 |
| Particle size | 3-6 um |
| Specific surface area | ≥1121 ㎡/g |
| Pore size | 1.57 nm |
ZIF-93 has been synthesized using a water-based method, demonstrating high purity and efficiency in CO2 adsorption from binary mixtures (Ramos-Fernandez et al., 2018). Its porous structure allows for selective gas adsorption, which is crucial for mitigating greenhouse gas emissions.
Hybrid nanoparticles of ZIF-93 have been developed to enhance thermal stability and hydrophobicity, improving its performance in mixed matrix membranes for H2/CO2 separation (Sánchez-Laínez et al., 2018). The membranes achieved a H2/CO2 selectivity of 7.7, surpassing established benchmarks, indicating ZIF-93's potential in energy applications.
ZIF-93 can be integrated with bioactive molecules to create advanced biosensors, leveraging its surface properties for the immobilization of biomolecules (Mousavi et al., 2024) (Feng et al., 2023). While ZIF-93 shows great promise in these applications, challenges remain in scaling production and optimizing its properties for specific uses. Further research is essential to fully realize its potential across various industries.
ZIF-93 features a particle size of 3-6 um, a specific surface area of ≥1121 ㎡/g, and a pore size of 1.57 nm.
ZIF-93 is synthesized using a water-based method. It offers high purity and high efficiency in selective CO2 adsorption from binary mixtures, making it important for reducing greenhouse gas emissions.
When integrated into mixed matrix membranes, hybrid nanoparticles of ZIF-93 improve thermal stability and hydrophobicity. These membranes can achieve a H2/CO2 selectivity of 7.7, which exceeds standard benchmarks.
Yes, ZIF-93 can be combined with bioactive molecules to develop advanced biosensors by utilizing its surface properties to immobilize biomolecules.
Key challenges include scaling up production and optimizing the material's properties for specific industrial applications.