Fixed-bed reaction systems are normally used for ICCU-DRM. Although TGA can also be used to demonstrate the stability of DFMs. However, the feeding gas composition
Temperature-programmed surface reactions (TPSR) can be used to understand reactions within ICCU-DRM. The following methods were reported by Tian et al. (DOI: 10.1126/sciadv.aav507): “TPSRs were
Fe-based catalysts have strong oxygen carrier abilities and have been used for ICCU-DRM. The catalysts were mixed with CaO for ICCU-DRM research. The method of
Ni-MgO-Al2O3 catalysts were developed for ICCU-DRM. Ni is active for dry reforming methane, and MgO and Al2O3 are common supports. The methods are reported by
Dual functional materials can be prepared by 1) physically mixing sorbent and catalyst; 2) impregnating catalyst on sorbent; 3) one-pot synthesis of DFMs mixing catalytic and
Ru-based DFMs are mostly used for the ICCC-Met process. The feasibility study of the Ru-based DFMs was first conducted and pioneered by Farrauto and coworkers
The following sentences are copied from this reference (https://doi.org/10.1016/j.ccst.2022.100052). It is noted that ICCU could also be called integrated CO2 capture and conversion (ICCC). “Note
Carbon can be produced at the stage of CO2 utilisation. In particular, ICCU-DRM produces a significant amount of carbon on the surface of DFMs, as
Ni is a commonly used catalyst for conventional dry reforming of methane. Due to the very limited amount of work available in ICCU-DRM, at the
ICCU-DRM have two key stages, including CO2 capture and the utilisation of the captured CO2 (or sorbent regeneration). Therefore, reaction time plays a key role
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