A pressurized Internally Circulating Reactor (ICR) for streamlining development of chemical looping technology

Figure 8 illustrates the specific irreversibility (i.e., the ratio between the total irrevers- ibility rate and the amount of CH 4 produced) within a reactor operating under different

The aim of this study is to experimentally study the feasibility of the ICR concept for chemical looping reforming of methane, as well as to obtain insights about this type of

THOMAS (1955) concluded that tlle cl~ange in sex ratio could be used to estimate mortality and showed the expected differences i n sex ratio in two modcls, one with a total

The focus in this study is on understanding the role played by the pressure, the solids inventory and the fluidization velocity in AR and FR on various ICR performance measures

As shown by the reactor simulations discussed in previous sections, leakage through the top port (which will generally affect the CO 2 purity) can be significantly lower than

However, a previous studies [1] already showed that, when looking at the total energy performance of the building (including heating, cooling, and lighting), a Window-to-Wall

Simulation of chemical looping combustion in a double looping fluidized bed reactor with Cu-based oxygen carriers/ CFD 2017 equations for solid phase originate from the ensemble

Summary of important time-averaged properties of the ICR as a function of the reactor size scaling factor: (a) solids circulation and elutriation rates; (b) fraction of solids and