Biothermoeconomics analysis of cyanobacteria and microalga use for sustainable biofuel
Umberto Lucia, Giulia Grisolia

TL;DR
This paper uses exergy analysis to evaluate the thermodynamic and economic efficiency of cyanobacteria and microalgae in sustainable biofuel production, linking irreversibility to socio-economic impacts.
Contribution
It introduces the concept of equivalent wasted primary resource value as an economic indicator in biofuel processes using biomass and bacteria.
Findings
Exergy analysis reveals the irreversibility in biofuel production processes.
The economic impact of waste exergy is quantified for biofuel sustainability.
Comparison of bacterial and other biofuel technologies based on exergy efficiency.
Abstract
Exergy is a thermodynamic quantity useful to obtain information on the work from any process. The analyses of irreversibility are important in the designing and development of the productive processes for the economic growth, but they play a fundamental role also in the analysis of socio-economic context. The link between the wasted exergy and the energy cost for maintain the productive processes are obtained in the bioengineering thermodynamics. This link holds to the fundamental role of fluxes and to the exergy exchanged in the interaction between the system and its environment. The equivalent wasted primary resource value is suggested as an indicator to support the economic considerations on the biofuel production by using biomass and bacteria. Moreover, the technological considerations can be developed by using the exergy inefficiency. Consequently, bacteria use can be compared with…
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Taxonomy
TopicsAlgal biology and biofuel production · Process Optimization and Integration · Microbial Metabolic Engineering and Bioproduction
