Regarding kinetics, the focus has been set on the capture period, i.e., the period of hydrate formation. Capture rates were consistently high, with 4-25 gram of CO 2 captured per hour and liter of water at 233 K in the reactor used. Next to the residence time, which can be easily adjusted by modifying the flow rate or reactor design, capture rates appear to be primarily driven by the difference between the CO 2 fraction in the feed gas and the equilibrium composition of the hydrate. Similarly, hydrate nucleation appears to be governed by the same driving force, as increases in pressure and feed gas concentration both lead to shorter induction times. Consequently, achieving equilibrium compositions that are very lean in CO 2 supports both high capture rates and shorter induction times. Remarkably, induction times further decreased from first to second cycles and remained stable thereafter. Likewise, capture rates increased from first to second cycles and stayed consistent for numerous cycles after that. This suggests the so-called memory effect being at play and that the same bed can be reused for many capture-regeneration cycles, greatly simplifying operations.