UTSA-16(Zn) for SO detection: elucidating the fluorescence mechanism.

In this study, the potential of the metal-organic framework UTSA-16(Zn) as a fluorescence detector for SO is explored. The material was synthesized and characterized by powder X-ray diffraction (PXRD), infrared spectroscopy (FTIR) and thermogravimetric analysis (TGA), and its fluorescence behavior was analyzed before and after SO exposure. A significant decrease in fluorescence intensity was observed and a LOD of 1.

Effective BPA degradation in water: the integration of bimetallic UiO-66 Ce-Zr.

In this work, a bimetallic MOF UiO-66 Ce-Zr to degrade bisphenol A (BPA) in water was synthesised. The material exhibited a remarkable degradation efficiency of 84.3% under UV irradiation for 240 minutes.

Room-temperature synthesis of bimetallic ZnCu-MOF-74 as an adsorbent for tetracycline removal from an aqueous solution.

The novel bimetallic MOF, ZnCu-MOF-74, has been evaluated for the remediation of tetracycline-contaminated water. ZnCu-MOF-74 was obtained at room temperature, avoiding high pressure and temperature. ZnCu-MOF-74 exhibited chemical stability in the 4-8 pH range.

APTES functionalization in SBA-15: the effect on SO capture and detection applications.

The development of adsorbents for air pollutant remediation and effective monitoring is of interest. Then, the effect of the APTES functionalization ratio on the impact of the adsorption and detection of SO molecules was evaluated. The higher APTES functionalization material (SBA-15_6.

Influence of NiO into the CO capture of LiSiO and its catalytic performance on dry reforming of methane.

Carbon capture, utilization, and storage (CCUS) technology offer promising solution to mitigate the threatening consequences of large-scale anthropogenic greenhouse gas emissions. Within this context, this report investigates the influence of NiO deposition on the LiSiO surface during the CO capture process and its catalytic behavior in hydrogen production via dry methane reforming. Results demonstrate that the NiO impregnation method modifies microstructural features of LiSiO, which positively impact the CO capture properties of the material.