Algal Biorefineries [electronic resource] : Volume 1: Cultivation of Cells and Products /
Bajpai, Rakesh.editor.
Prokop, Aleš.editor.
Zappi, Mark.editor.
Over the past century, the majority of chemical and energy needs of our industrial society has originated from fossilized carbon sources (coal, crude oil, natural gas). Increasingly, there is a realization that utilization of the fossilized carbon sources has adverse environmental consequences in the form of increasing concentration of greenhouse gases. We are also becoming aware of the limited nature of these resources. As a result, considerable efforts are being made to produce chemicals and fuels from renewable resources such as forest products, agricultural residues and plant products. All of these systems capture solar energy and atmospheric carbon dioxide as a part of the natural carbon cycle. Serious research efforts are also underway, targeting cultivation of photosynthetic autotrophic microbes for the production of biomass and lipids. In this category, algae appears to offer the most potential for capturing solar energy and atmospheric carbon dioxide and delivering sufficient quantities of biomass/lipids that can offset the fossilized carbon utilization in a meaningful manner without impacting food output adversely. However, several advances, both technologically as well as politically, are needed before we can realize its full potential. It is also clear that a biorefinery approach must be undertaken in order to harvest renewable energy and chemicals from algae economically. This edited, multi-authored volume on Algal Biorefineries will document new advances involving algae-based technology.
Description based upon print version of record.
Includes bibliographical references and index.
Status of Algae as Vehicles for Commercial Production of Fuels and Chemicals -- Algal Reactor Design Based on Comprehensive Modeling of Light and Mixing -- Low Cost Nutrients for Algae Cultivation -- Microalgae Bioreactors -- Micro Algae in Open Raceways -- High Density Outdoor Algae Culture -- Mixotrophic Algae Cultivation for Energy Production and Other Applications -- Engineering Photobiological H2-production -- Starch Overproduction by Means of Algae -- Oil Overproduction by Means of Microalgae -- Commercial Products from Algae -- Recovery of Lipids from Algae.
Over the past century, the majority of chemical and energy needs of our industrial society has originated from fossilized carbon sources (coal, crude oil, natural gas). Increasingly, there is a realization that utilization of the fossilized carbon sources has adverse environmental consequences in the form of increasing concentration of greenhouse gases. We are also becoming aware of the limited nature of these resources. As a result, considerable efforts are being made to produce chemicals and fuels from renewable resources such as forest products, agricultural residues and plant products. All of these systems capture solar energy and atmospheric carbon dioxide as a part of the natural carbon cycle. Serious research efforts are also underway, targeting cultivation of photosynthetic autotrophic microbes for the production of biomass and lipids. In this category, algae appears to offer the most potential for capturing solar energy and atmospheric carbon dioxide and delivering sufficient quantities of biomass/lipids that can offset the fossilized carbon utilization in a meaningful manner without impacting food output adversely. However, several advances, both technologically as well as politically, are needed before we can realize its full potential. It is also clear that a biorefinery approach must be undertaken in order to harvest renewable energy and chemicals from algae economically. This edited, multi-authored volume on Algal Biorefineries will document new advances involving algae-based technology.
Medicine.
Biotechnology.
Microbiology.
Renewable energy resources.
Engineering design.
Plant biochemistry.
Biomedicine, general.
Biotechnology.
Applied Microbiology.
Renewable and Green Energy.
Engineering Design.
Plant Biochemistry.