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Sustainable power from renewable

FIGURE 8-7. Sustainable power from renewable sources. [Pg.132]

Figure 1.1.17 The solar refinery as the conceptual contribution of chemistry by chemical energy conversion to the sustainable use of renewable energy. The upstream part (hydrogen generation) and the downstream parts need not to be colocalized in a practical realization. CSP stands for concentrated solar power. Green boxes indicate solar fuel products blue boxes stand for intermediate platform chemicals. The red arrows indicate flows of solar hydrogen to a storage and transport system for large-scale applications. The blue arrows show the major application lines for chemical production of solar fuels. The scheme also indicates the role of fertilizers from ammonia required in sustained use of biomass for energetic applications. Figure 1.1.17 The solar refinery as the conceptual contribution of chemistry by chemical energy conversion to the sustainable use of renewable energy. The upstream part (hydrogen generation) and the downstream parts need not to be colocalized in a practical realization. CSP stands for concentrated solar power. Green boxes indicate solar fuel products blue boxes stand for intermediate platform chemicals. The red arrows indicate flows of solar hydrogen to a storage and transport system for large-scale applications. The blue arrows show the major application lines for chemical production of solar fuels. The scheme also indicates the role of fertilizers from ammonia required in sustained use of biomass for energetic applications.
We have shown organocatalysis to be a powerful tool for the synthesis of drugs and natural products. Our work and that of others have clearly demonstrated that organocatalytic strategies can cut down the total number of synthetic operations. As organocatalysts are usually non-toxic, air- and moisture-stable and often available from renewable sources, they are destined to have an impact on the development of future sustainable chemical processes. [Pg.136]

Hashim, S. S., Mohamed, A. R., Bhatia, S. (2011). Oxygen separation from air using ceramic-based membrane technology for sustainable fuel production and power generation. Renewable Sustainable Energy Reviews, 15, 1284—1293. [Pg.180]

Despite the fact that enzyme-based biofuel cells progressed a lot in the last 20 years reaching the state where the electrodes operate in vivo being implanted in living organisms, the motivation for their design is not always clear. In most of the published papers the authors claim their use as a source of sustainable power extracted from renewable biological... [Pg.190]


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