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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