Engineering topics
Publications and source records attributed to Xie, Jiahan.
Prajapati et al. developed a novel, robust, modular and industrially-scalable CO 2 capture process that utilizes a migration-assisted moisture gradient (MAMG) process.
We report silica-supported Pd, Rh and Pt metal nanoparticles catalyze the hydrogenolysis of the Pt-OPh bond of ( t bpy)Pt(OPh)Cl to release PhOH. Based on kinetic studies monitored by 1 H NMR spectroscopy, the reactivity trend is Pd>Rh>Pt. Kinetic studies with Pd/SiO 2 are consistent with a first-order dependence on the catalyst and the molecular Pt(II) complex ( t bpy)Pt(OPh)Cl. Using TEM-EDS mapping and ICP-OES measurements of a recovered Pd catalyst, after 1hour of hydrogenolysis of ( t bpy)Pt(OPh)Cl, approximately 10–16 % Pt deposition (relative to Pd mol %) on the Pd/SiO 2 surface was quantified.
An ultrafast, continuous CO 2 capture process driven by moisture gradient and electric field with low energy consumption to capture and concentrate CO 2 from dilute sources.