Microalgae Cultures Environmental Tool and Bioenergy Source

Microalgae have been intensively studied for CO2 capture, nutrient removal from wastewater, and biofuels production. These photosynthetic microorganisms use solar energy with efficiency ten times greater than terrestrial plants and are responsible for about 50% of the world's oxygen production....

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Other Authors: Pires, José Carlos Magalhães (Editor), Gonçalves, Ana Luísa (Editor)
Format: Electronic Book Chapter
Language:English
Published: Basel MDPI - Multidisciplinary Digital Publishing Institute 2022
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DOAB: description of the publication
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245 1 0 |a Microalgae Cultures  |b Environmental Tool and Bioenergy Source 
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520 |a Microalgae have been intensively studied for CO2 capture, nutrient removal from wastewater, and biofuels production. These photosynthetic microorganisms use solar energy with efficiency ten times greater than terrestrial plants and are responsible for about 50% of the world's oxygen production. Therefore, microalgae have been considered a sustainable solution for CO2 capture. Besides carbon, their growth also requires other macronutrients: nitrogen and phosphorus. To avoid the addition of fertilizers (increasing the production costs), these nutrients can be supplied if wastewater is used as the culture medium. The integration of biomass production with wastewater treatment enables a reduction in operational costs and the environmental impact. Microalgae are also known for their high lipid contents and high growth rates and are a promising oil source for biodiesel production. This Special Issue Book presents the recent research activities concerning the environmental applications of microalgae and their potential for biofuels production, focusing on the main challenges for their large-scale application. Since microalgal culturing can address different environmental and non-environmental issues, the achievements from the integration of multiple microalgal applications are also considered in this Special Issue Book. 
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650 7 |a Technology: general issues  |2 bicssc 
653 |a fungi 
653 |a algae 
653 |a lichen 
653 |a lipids 
653 |a biofilm 
653 |a lipid extraction 
653 |a electro-Fenton reaction 
653 |a cell wall disruption 
653 |a microalgae 
653 |a inclined solid-liquid separator 
653 |a hydrocarbon recovery 
653 |a biofuel 
653 |a energy balance 
653 |a harvesting 
653 |a cell growth 
653 |a chlorophyll 
653 |a carotenoids 
653 |a energetic yield 
653 |a biomass 
653 |a photobioreactors 
653 |a power consumption 
653 |a Chlorella 
653 |a power input 
653 |a sustainability 
653 |a temperature stress 
653 |a photoinhibition 
653 |a mixed culture 
653 |a Lipomyces starkeyi 
653 |a Chloroidium saccharophilum 
653 |a Single Cell Oils (SCOs) 
653 |a Arundo donax 
653 |a biorefinery 
653 |a tubular photobioreactor 
653 |a pilot-scale 
653 |a operation regimes 
653 |a outdoor cultivation 
653 |a Nannochloropsis oceanica 
653 |a docosahexaenoic acid 
653 |a Schizochytrium sp. 
653 |a crude glycerin 
653 |a optimization 
653 |a Plackett-Burman design 
653 |a response surface methodology 
653 |a microfluidic 
653 |a UV mutagenesis 
653 |a green alga 
653 |a nutrient content 
653 |a N:P ratio 
653 |a salt tolerance 
653 |a nutrient removal 
653 |a salt content reduction 
653 |a bioreactor 
653 |a carbon capture 
653 |a carbon dioxide 
653 |a eutrophication 
653 |a immobilization 
653 |a latex polymers 
653 |a process intensification 
653 |a wastewater 
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