Exceptional Zeolitic Imidazolate Frameworks And A General Strategy To Make More

Tech ID: 25486 / UC Case 2016-049-0

Patent Status

Country Type Number Dated Case
United States Of America Issued Patent 10,821,417 11/03/2020 2016-049
 

Brief Description

This invention discloses a new class of materials known as Zeolitic Imidazolate Frameworks (ZIFs). These multivariant ZIFs are composed of transition metal ions (such as Zn or Co) connected by imidazolate linkers in a tetrahedral arrangement, forming three-dimensional crystalline structures. The invention includes methods for synthesizing these ZIFs, enabling precise control over their structural properties, and explores their use in various advanced applications.

Suggested uses

      Gas Separation and Storage: ZIFs can selectively adsorb gases like CO₂, CH₄, H₂, and noble gases, making them ideal for efficient gas separation and storage.

      Catalysis: The unique structure of ZIFs can be tailored to enhance catalytic activity, offering improved performance in chemical reactions.

      Light Harvesting: ZIFs can be used in photovoltaic devices and other light-harvesting applications due to their ability to organize light-absorbing molecules in a precise manner.

      Meta-materials: The ordered superlattices can be utilized to create meta-materials with unique optical, electromagnetic, and mechanical properties.

      Chemical Sensing: Enhanced surface area and selective pore environments make ZIFs suitable for detecting various analytes.

Advantages

      Programmable Functionality: Integration of distinct ZIF types in a single material allows for multiple, co-localized functions.

      High Surface Area and Porosity: Maintains intrinsic ZIF characteristics while introducing long-range order.

      Enhanced Selectivity and Performance: Synergistic effects between ZIF domains improve adsorption, catalysis, and sensing.

      Scalable Synthesis Methods: Compatible with bottom-up fabrication techniques and modular assembly.

      Tailored Optical and Electronic Properties: Superlattice ordering enables design of materials with tunable photonic or electronic responses.

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Inventors

  • Yaghi, Omar M.

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