
doi: 10.5541/ijot.331
handle: 10553/44180
Steam methane reforming (SMR) is one of the most promising processes for the production of hydrogen. Therefore, the overall thermodynamic efficiency of this process is of particular importance. The thermodynamic inefficiencies in a thermal system are related to exergy destruction and exergy loss. However, a conventional exergetic analysis cannot evaluate the mutual interdependencies among the system components nor the real potential for improving the energy conversion system being considered. One of the tools under development for the improvement of energy conversion systems from the thermodynamic viewpoint is the advanced exergetic analysis. In this paper, the avoidable part of the exergy destruction is estimated and the interactions among components of the overall system are evaluated in terms of endogenous and exogenous exergy destruction. The assumptions required for these calculations are discussed in detail, especially for those components that are typically used in chemical processes. Results of this paper suggest options for increasing the thermodynamic efficiency of hydrogen production by steam-methane reforming.
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Steam methane reforming; hydrogen production; conventional exergetic analysis; advanced exergetic analysis, Advanced exergetic analysis., 330306 Tecnología de la combustión, Hydrogen production, Steam methane reforming (SMR), Conventional exergetic analysis, 332202 Generación de energía
Steam methane reforming; hydrogen production; conventional exergetic analysis; advanced exergetic analysis, Advanced exergetic analysis., 330306 Tecnología de la combustión, Hydrogen production, Steam methane reforming (SMR), Conventional exergetic analysis, 332202 Generación de energía
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