Ultra‐microporous Metal–Organic Framework Built from Rigid Linkers Showing Structural Flexibility Resulting in a Marked Change in Carbon Dioxide Capacity | Zendy

Banerjee Aparna | Zendy; Chakraborty Debanjan | Zendy; Vaidhyanathan Ramanathan | Zendy

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Ultra‐microporous Metal–Organic Framework Built from Rigid Linkers Showing Structural Flexibility Resulting in a Marked Change in Carbon Dioxide Capacity

Author(s) -

Banerjee Aparna,

Chakraborty Debanjan,

Vaidhyanathan Ramanathan

Publication year - 2017

Publication title -

european journal of inorganic chemistry

Language(s) - English

Resource type - Journals

SCImago Journal Rank - 0.667

H-Index - 136

eISSN - 1099-0682

pISSN - 1434-1948

DOI - 10.1002/ejic.201700107

Subject(s) - chemistry , microporous material , metal organic framework , flexibility (engineering) , carbon dioxide , oxalate , void (composites) , chemical engineering , carbon fibers , crystallography , inorganic chemistry , organic chemistry , composite material , statistics , materials science , mathematics , adsorption , composite number , engineering

An ultra‐microporous CoHAtzOx (HAtz = aminotriazole, Ox = oxalate) metal–organic framework with a 3D framework showing guest‐dependent reversible structural transformations was studied. The flexibility was found to arise from buckling of the rigid Co–Ox and Co–HAtz chains, which yields a desolvated structure with a 78 % lower void volume and significantly lower CO 2 capacity.

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