An ethylenediamine-grafted Y zeolite effectively adsorbs CO ₂ from a wet flue gas and it is highly regenerable through a temperature swing adsorption (TSA) process.

We present facile route for the shaping of MOFs (MIL-100(Fe), MIL-101(Cr), UiO-66(Zr), and UiO-66(Zr)_NH₂) using mesoporous ρ-alumina (MRA) as a binder.

Adsorption-driven heat transfer technology using water as working fluid is a promising eco-friendly strategy to address the exponential increase of global energy demands for cooling and heating purposes. Here we present the water sorption properties of a porous aluminum carboxylate metal-organic framework, [Al(OH)(C₆H₃NO₄)]·nH₂O, KMF-1, discovered by a joint computational predictive and experimental approaches, which exhibits step-like sorption isotherms, record volumetric working capacity (0.36 mL mL⁻¹) and specific energy capacity (263 kWh m⁻³) under cooling working conditions, very high coefficient of performances of 0.75 (cooling) and 1.74 (heating) together with low driving temperature below 70 °C which allows the exploitation of solar heat, high cycling stability and remarkable heat storage capacity (348 kWh m⁻³). This level of performances makes this porous material as a unique and ideal multi-purpose water adsorbent to tackle the challenges of thermal energy storage and its further efficient exploitation for both cooling and heating applications.

Ni–Co bimetallic MOF was prepared and used as a catalyst for epoxide-CO ₂ cycloaddition.

PNA ability and hydrothermal stability of Pd/ZSM-5 and Pd/SSZ-13 catalysts were comparatively studied.