Tunable hydrocarbon adsorption based on a zeolitic imidazolate framework in the sodalite topology

Manipulation of materials exhibiting step-shaped isotherms using simple and scalable methods is key to realizing their utility in advanced separation schemes. To this end, we have discovered EMM-36, a hybrid isostructural to ZIF-7 material in the sodalite topology prepared from industrially scalable...

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Published inJournal of materials chemistry. A, Materials for energy and sustainability Vol. 1; no. 3; pp. 1425 - 1432
Main Authors Falkowski, Joseph M, Ravikovitch, Peter I, Abdulkarim, Mary S, Muraro, Giovanni M, Liu, Sophie F, Paur, Charanjit, Strohmaier, Elisa A, Weston, Simon C
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Published Cambridge Royal Society of Chemistry 18.01.2022
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Abstract Manipulation of materials exhibiting step-shaped isotherms using simple and scalable methods is key to realizing their utility in advanced separation schemes. To this end, we have discovered EMM-36, a hybrid isostructural to ZIF-7 material in the sodalite topology prepared from industrially scalable organic moieties. Through simple compositional tuning of EMM-36 that remains true to the linker composition introduced in the synthesis, controlled manipulation of the step-function adsorption behaviour of gases onto the flexible framework has been realized. We observe that the energetics for the phase transformation from a denser narrow pore (np) to more open large pore (lp) phase are directly controllable while maintaining the hexagonal crystal structure characteristic of the lp phase of ZIF-7 under adsorbed conditions throughout the entire hybrid compositional range. The structural flexibility of ZIF-7 is controlled via a mixed-linker approach resulting in modified adsorption properties tunable across 2 orders of magnitude of step pressure while maintaining the ZIF-7 structure throughout the compositional range.
AbstractList Manipulation of materials exhibiting step-shaped isotherms using simple and scalable methods is key to realizing their utility in advanced separation schemes. To this end, we have discovered EMM-36, a hybrid isostructural to ZIF-7 material in the sodalite topology prepared from industrially scalable organic moieties. Through simple compositional tuning of EMM-36 that remains true to the linker composition introduced in the synthesis, controlled manipulation of the step-function adsorption behaviour of gases onto the flexible framework has been realized. We observe that the energetics for the phase transformation from a denser narrow pore (np) to more open large pore (lp) phase are directly controllable while maintaining the hexagonal crystal structure characteristic of the lp phase of ZIF-7 under adsorbed conditions throughout the entire hybrid compositional range.
Manipulation of materials exhibiting step-shaped isotherms using simple and scalable methods is key to realizing their utility in advanced separation schemes. To this end, we have discovered EMM-36, a hybrid isostructural to ZIF-7 material in the sodalite topology prepared from industrially scalable organic moieties. Through simple compositional tuning of EMM-36 that remains true to the linker composition introduced in the synthesis, controlled manipulation of the step-function adsorption behaviour of gases onto the flexible framework has been realized. We observe that the energetics for the phase transformation from a denser narrow pore (np) to more open large pore (lp) phase are directly controllable while maintaining the hexagonal crystal structure characteristic of the lp phase of ZIF-7 under adsorbed conditions throughout the entire hybrid compositional range. The structural flexibility of ZIF-7 is controlled via a mixed-linker approach resulting in modified adsorption properties tunable across 2 orders of magnitude of step pressure while maintaining the ZIF-7 structure throughout the compositional range.
Author Ravikovitch, Peter I
Muraro, Giovanni M
Falkowski, Joseph M
Weston, Simon C
Liu, Sophie F
Abdulkarim, Mary S
Paur, Charanjit
Strohmaier, Elisa A
AuthorAffiliation ExxonMobil Research and Engineering
Corporate Strategic Research
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Snippet Manipulation of materials exhibiting step-shaped isotherms using simple and scalable methods is key to realizing their utility in advanced separation schemes....
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SubjectTerms Adsorption
Crystal structure
Metal-organic frameworks
phase transition
Phase transitions
Sodalite
Topology
Zeolites
Title Tunable hydrocarbon adsorption based on a zeolitic imidazolate framework in the sodalite topology
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