Title :

Formulation of metal-organic framework inks for the 3D printing of robust microporous solids

Author(s) :

Dhainaut, Jérémy [Auteur]
Unité de Catalyse et Chimie du Solide - UMR 8181 [UCCS]
Unité de Catalyse et Chimie du Solide (UCCS) - UMR 8181
Bonneau, Mickaele [Auteur]
Kyoto University
Ryota, Ueoka [Auteur]
Kyoto University
Kanamori, Kazuyoshi [Auteur]
Kyoto University
Furukawa, Shuhei [Auteur]
Kyoto University

Conference title :

Groupe Français des Zéolithes

City :

Webconference

Country :

France

Start date of the conference :

2021-03-30

English keyword(s) :

Hydrocarbons
3D printing
Metal organic frameworks

HAL domain(s) :

Chimie/Catalyse

English abstract : [en]

Metal-organic frameworks (MOFs) are a fast-growing class of highly porous materials owing to their exceptional structural diversity. A consequent effort has been deployed during the past few years for rationalizing the ...
Show more >Metal-organic frameworks (MOFs) are a fast-growing class of highly porous materials owing to their exceptional structural diversity. A consequent effort has been deployed during the past few years for rationalizing the preparation of the most promising MOF structures, in view of their applications at larger scale. Still, their shaping represents a major bottleneck due to the difficulty to conciliate high porosity and adequate mechanical resistance to withstand overtime damaging stresses. 3D printing is a promising technology as it allows the fast prototyping of materials at the macroscale.1 Herein, a 3D printer was modified to prepare a variety of MOF-based solids with controlled morphology from shear-thinning inks containing a cellulose-derived binder. Four benchmark MOFs were tested: HKUST-1, CPL-1, ZIF-8 and UiO-66-NH2. All solids are mechanically stable up to 0.6 MPa of uniaxial compression and highly porous, with BET specific surface areas lowered by 0 to -25%. Furthermore, these solids were applied to high pressure sorption (CH4, C2H4 and C2H6) and presented performances in line with the literature.Show less >

Language :

Anglais

Peer reviewed article :

Non

Audience :

Internationale

Administrative institution(s) :

Université de Lille
CNRS
Centrale Lille
ENSCL
Univ. Artois

Collections :

• Unité de Catalyse et Chimie du Solide (UCCS) - UMR 8181

Research team(s) :

Matériaux pour la catalyse (MATCAT)

Submission date :

2021-03-03T12:38:55Z
2021-03-04T07:25:29Z