High-temperature sintered 3D-printed alumina as mechanically robust supports for MOF catalysis

We demonstrate the functionalization of high-temperature sintered, 3D-printed α-alumina ceramics with ZIF-8 and MOF-808 to create robust MOF-ceramic composites. Dense α-alumina sintered at 1450-1650 °C can be directly functionalized despite its low surface hydroxyl density. The composites unite MOF activity with the mechanical strength and design freedom of additive-manufactured ceramics. Using MOF-808, rapid and complete degradation of dimethyl-4-nitrophenyl phosphate (DMNP) was achieved, with cycling tests confirming strong MOF adhesion. Grid-like printed geometries provided high surface area and handling advantages, eliminating centrifugation and filtration required for powders. This work establishes a scalable platform for integrating MOFs with mechanically resilient, architected ceramics for further applications, such as catalysis, separations, and water treatment.

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Journal
Materials Advances
Published
2025-01-01
DOI
https://doi.org/10.1039/d5ma01028d
Primary Topic
Advanced ceramic materials synthesis
Type
article
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article

High-temperature sintered 3D-printed alumina as mechanically robust supports for MOF catalysis

Youven Benseghir, Michael R. Reithofer, Dominik Brouczek, Martin Schwentenwein et al.
Materials Advances
Advanced ceramic materials synthesis
article

High-temperature sintered 3D-printed alumina as mechanically robust supports for MOF catalysis

Youven Benseghir, Michael R. Reithofer, Dominik Brouczek, Martin Schwentenwein, Jia Min Chin, Tanja Eder, Wenyi Zeng, Flora Schöfbeck
article en

Abstract

We demonstrate the functionalization of high-temperature sintered, 3D-printed α-alumina ceramics with ZIF-8 and MOF-808 to create robust MOF-ceramic composites. Dense α-alumina sintered at 1450-1650 °C can be directly functionalized despite its low surface hydroxyl density. The composites unite MOF activity with the mechanical strength and design freedom of additive-manufactured ceramics. Using MOF-808, rapid and complete degradation of dimethyl-4-nitrophenyl phosphate (DMNP) was achieved, with cycling tests confirming strong MOF adhesion. Grid-like printed geometries provided high surface area and handling advantages, eliminating centrifugation and filtration required for powders. This work establishes a scalable platform for integrating MOFs with mechanically resilient, architected ceramics for further applications, such as catalysis, separations, and water treatment.

Materials AdvancesVol. 6(22)
University of Vienna (AT), Vienna Consulting Engineers (Austria) (AT), Wolfgang Pauli Institute (AT)
Openalex Percentile: Top 75%
Advanced ceramic materials synthesis
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High-temperature sintered 3D-printed alumina as mechanically robust supports for MOF catalysis — Youven Benseghir, Michael R. Reithofer, et al. · Materials Advances (2025) | TGRS Research Map | TGRS