The global algae biofuel market study also comprises the detailed value chain analysis for providing a comprehensive view of the market. Moreover, the study also includes Porter's Five Forces model for algae biofuel, to understand the competitive landscape of the global market. The study includes a market attractiveness analysis of all the segments related to the market.
Algae Biofuel Market by Type (Bioethanol, Biodiesel, Methane, Jet Fuel, Biobutanol, Biogasoline, Green Diesel, and Others) and for Application (Transportation, Aerospace, and Other Applications): Global Industry Perspective, Comprehensive Analysis and Forecast, 2017 -2024 report details HERE. (Source: Zion Market Research, Oct. 2019) Contact: Zion Market Research, 386-310-3803, www.zionmarketresearch.com
More Low-Carbon Energy News Algae Biofuel, Zion ,
The report covers crucial data associated with worldwide Algae Biofuel Market, highlights the newest technological developments and new launches, and other related developements that impact the algae biofuel market. According to the report the Algae Biofuel Market will will be valued at $9.88 billion by 2024.
Report details are HERE.
Request sample copy of Algae Biofuel Market Research Report HERE.
(Source: Zion Market Research, Sept., 2019) Contact: Zion Market Research,
+49-322 210 92714, USA/Canada Toll-Free No.1-855-465-4651, email@example.com, www.zionmarketresearch.com
More Low-Carbon Energy News Zion Market Research , Algae, Algae Biofuel,
The report divides the Algae Biofuel market into various regions -- North America, Middle-East a and Africa, Asia-Pacific, South America, and Europe-- as well as nationally.
The report benchmarks and profiles the Algae Biofuel industry leading players on the basis of product portfolio, manufacturing plants, market pricing, sales footprint, target customer types, etc.
Sample Report PDF HERE.
Complete TOC of the Report HERE. (Source: ICRWorld Research, Market News Live, May, 2019) Contact: ICRWorld Research, www.icrworld.com, https://ca.linkedin.com/company/icrworld
More Low-Carbon Energy News Algae Biofuel,
PNNL leads the Development of Integrated Screening, Cultivar Optimization and Verification (DISCOVR) project that employs the unique complementary capabilities of the four participating national laboratories -- Los Alamos National Laboratory, National Renewable Energy Laboratory, and Sandia National Laboratorie -- sand the outdoor testbed at the Arizona Center for Algal Technology and Innovation to identify and test high productivity microalgae strains for year-round outdoor cultivation. The goal is to provide a framework to accelerate meeting DOE's advanced biofuel goals with microalgae.
"A key cost driver for algae biofuels is productivity, which is directly tied to which algae strain is chosen and how it's cultivated," said Taraka Dale, a scientist at LANL. "By collaborating with industry and academia, we aim to bring together the best of the best strains and cultivation strategies to rapidly boost productivity and reduce costs."
"So far, we have tested more than 40 new microalgae strains and identified strains with up to 34 percent greater biomass productivity than benchmark strains," said Huesemann. "The success of the DISCOVR strain down selection and testing pipeline was demonstrated in 2018 by achieving more than 13 pct improvement in outdoor pond productivity relative to 2017, reducing the biomass selling price by about 10 pct."
The goal of the call for collaboration is to solicit algae strains, tools and techniques from the algae community to further boost algae productivity. This call gives industry and academia an opportunity to partner with the four national laboratories in DISCOVR, as well as AzCATI.
(Source: Pacific Northwest National Laboratory, PR, Feb., 2019)
Contact: PNNL, Michael Huesemann, DISCOVR Consortium leader, firstname.lastname@example.org, https://discovr.labworks.org
More Low-Carbon Energy News Algae, Algae Biofuel, Pacific Northwest National Laboratory ,
Despite promising technology surrounding the conversion of algae oil into biodiesel, the costs of supplying the algae with supplemental CO2 have hampered commercial production. Researchers now believe SLA-04, a recently discovered strain of algae, could be cultivated using only the ambient CO2 of the atmosphere. SLA-04 was discovered in an eastern Washington lake containing high levels of carbonate minerals similar to baking soda. In the lake's unique environment, these algae have been shown to metabolize ambient CO2 very efficiently.
Assoc. Prof. Blake Wiedenheft in the Department of Microbiology and Immunology, College of Agriculture and the College of Letters and Science, will explore the use of the genome editing technique called CRISPR for enhancing the algae's ability to produce the oils desired for biofuel production. (Source: Montana State University, PR, Feb., 2019) Contact: Montana State Univ., Prof. Brent Peyton, Director, MSU Thermal Biology Institute,
Prof. Robin Gerlach, Norm Asbjornson College of Engineering Department of Chemical and Biological Engineering, www.montana.edu
More Low-Carbon Energy News Algae, Algae Oil, Algae Biofuel, Biodiesel,
The proceeds will be used for the production of inventory, sales and marketing, equipment purchases, patenting costs and general working capital. (Source: Solarvest Bioenergy Inc., PR, 22 Jan., 2019) Contact: Solarvest Bioenergy Inc., Gerri Greenham, CEO,
(416) 420 0947, email@example.com, www.solarvest.com
More Low-Carbon Energy News Solarvest Bioenergy, Algae Biofuel, Biofuel ,
The report covers Algae Biofuels market share, growth, trends,forecasts and key statistics for the period 2018-2026. The report also examines the Algae Biofuels market based on national and regional factors as well as on application, technique and end-user. Overall, the report provides an in-depth insight into 2018-2026 global Algae Biofuels Market players, drivers, challenges and trends.
Access a sample PDF file of the Algae Biofuels report HERE.
Download PDF brochure of Algae Biofuels Market report HERE.
(Source: Coherent Market Insights, Chemicals News, 17 Nov., 2018) Contact: Coherent Market Insights, (206) 701-6702 - Seattle Office, +44-020 8133 4027 - UK Office,
More Low-Carbon Energy News Algae Biofuels,
The two ASU teams are headed by Wim Vermaas, Foundation Professor in the School of Life Sciences and a member of the Center for Bioenergy and Photosynthesis, and Bruce Rittmann, director of Biodesign Swette Center for Environmental Biotechnology.
Both ASU projects are developing innovative approaches for improving the efficiency of microalgae to capture waste CO2 and convert it into biodiesel transportation fuels and other valuable products.
Rittmann will explore ways to make CO2 delivery to algae more efficient. Traditional methods involve sparging (bubbling) CO2 within the liquid used to grow the algae, which releases about 60-80 pct of the CO2 back into the atmosphere. This wasteful process defeats a major goal of using microalgae to remove this greenhouse gas from the atmosphere and decreases cost efficiency.
Rittmann's team developed a membrane carbonation process that uses inexpensive plastic fibers to deliver pure CO2 with nearly 100 pct efficiency directly to the microalgae. The team estimates that the technology will capture fourfold more CO2 than traditional sparging methods.
The team is partnering with the Salt River Project to develop methods for harvesting CO2 from power plant emissions. They are also partnering with the city of Mesa to remove CO2 from the biogas generated from anaerobic digesters at their wastewater treatment facilities. Rittmann's team will investigate whether the fibers can be used with microalgae to remove CO2 from the biogas, which would leave nearly pure methane which could be distributed through existing natural gas pipelines.
Vermaas and his team were awarded $2.5 million to pursue an innovative multi-pronged approach toward improved CO2 utilization.
One approach is to increase the solubility of carbon dioxide in growth medium by developing a nanobubble gas delivery system.. A second approach is to utilize amines in the medium, which greatly enhance the solubility of CO2, allowing the gas to be taken up by photosynthetic microbes for producing biofuel.
The researchers anticipate at least a 50 pct increase in the efficiency of CO2 use with advanced biofuel production under industrially relevant conditions.
(Source: ASU, PR, Nov., 2018) Contact: ASU,
Prof. Bruce Rittmann, Dir. Biodesign Swette Center for Environmental Biotechnology, (480) 727-8322,
www.biodesign.asu.edu/environmental-biotechnology; Willem Vermaas, ASU School of Life Sciences, 480-965-6250, firstname.lastname@example.org, www.sols.asu.edu/willem-vermaas
More Low-Carbon Energy News Micro Algae, Biodiesel, Drop-In Fuel, CO2, Algae, Biofuel, Carbon Dioxide,
The Yokohama facility has a production capacity of 125 kiloliters of jet biofuel and ASTM certified biodiesel per year, increasing to 250,000 kiloliters per year by 2025.
The company has partnered with aviation group ANA Holdings with the aim of fueling their commercial international flights departing from Japan by 2020. Euglena is also planning to offer bio jet fuel to other companies taking off from Japan. ANA will support euglena to develop the airport infrastructure to supply aircraft. (Source: euglena, Nikkei, 3 Nov., 2018) Contact: euglena, Mitsuru Izumo, CEO, www.euglena.jp/en
More Low-Carbon Energy News Algae Biofuel, euglena, Jet Biofuel, Biofuel,
Mazda hopes an ongoing industry-academia-government collaboration will be advantageous to its Sustainable Zoom-Zoom 2030 development program which considers renewable liquid fuels essential to drastic CO2 reduction.
Mazda is lending technical support to research into genome editing by Hiroshima University and to the study of plant physiology by the Tokyo Institute of Technology. (Source: Mazda, Engine Technology, 31 Oct., 2918) Contact: Mazda, www.mazda.com/en/inquiry
More Low-Carbon Energy News Mazda, Algae Biofuel,
The project is being funded by the U.S. DOE Office of Energy Efficiency & Renewable Energy in a collaborative effort to improve the cost-competitiveness and environmental sustainability of microalgae-based fuels and products. (Source: CSU, NREL, Various Media, Oct., 2018) Contact: Colorado State University, Prof. Ken Reardon, email@example.com, www.colostate.edu; US DOE BETO, energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News Colorado State University, NREL, Algae, CO2, Biofuel,
According to University of Michigan Biology professor Bradley Cardinale, researchers are "one of the first teams in the world to go all the way from designing sustainable biofuel feedstocks in outdoor ponds, to refining fuel." Algae-based biofuels are seen as an environmentally friendly alternative to traditional diesel fuels, which produce high levels of greenhouse gases when they burn. (Source: Univ. of Michigan, AP, witf, 7 Oct., 2018)
Contact: University of Michigan, University of Michigan, Biology Prof. Bradley Cardinale, (734) 764-9689, firstname.lastname@example.org, http://seas.umich.edu/research/faculty/brad_cardinale
More Low-Carbon Energy News University of Michigan, Algae Biofuels, Algae,
The New Mexico Consortium's lab is a non-profit corporation formed by three New Mexico universities to facilitate research and increase cooperation between academia, industry and the Los Alamos National Laboratory. In the future, LANL will look for an industrial partner already growing algae outdoors.
Approximately 30 people at LANL are engaged in all sorts of biofuel research, which has been going on since 2009, according to Babetta Marrone, senior scientist and the lab's biofuels program manager. (Source: LLNL, Santa Fe New Mexican, 29 July, 2018)
Contact: Los Alamos National Laboratory, (505) 667-5061, www.lanl.gov
More Low-Carbon Energy News Los Alamos National Laboratory, LANL, Algae, Algae Biofuel,
The report notes that the US and Canada dominated the market in 2017 with more than 30 pct of the global algae biofuel market. The study projects the Asia Pacific region will experience major growth in the market during the forecast period due to technological advancements and materials availability.
The report referenced policies such as the European Commission's Renewable Energy Directive, which would require that at least 10 pct of transportation fuels come from renewable sources by 2020. (Source: Zion Market Research , July, 2018)
Contact: Zion Market Research, +49-322 210 92714, USA/Canada (855) 465-4651, email@example.com, www.zionmarketresearch.com
More Low-Carbon Energy News Zion Market Research, Algae, Algae Biofuel,
After a 10-week study, the researchers compared the ability of the algae and the algal combinations to multitask and found that monoculture algae were able to perform very well in one or two tasks. However, the combined algae species were better at a range of tasks.
"Our findings suggest there is a fundamental trade-off when growing algal biofuel. You can grow single-species crops that produce large amounts of biomass but are unstable and produce less biocrude. Or, if you are willing to give up some yield, you can use mixtures of species to produce a biofuel system that is more stable through time, more resistant to pest species, and which yields more biocrude oil," according to the report. (Source: Univ. of Michigan, GinnersNow, 28 June, 2018) Contact: University of Michigan School for Environment and Sustainability, Casey Godwin, Postdoctoral Research Fellow, (734) 764-6453, firstname.lastname@example.org, seas.umich.edu
More Low-Carbon Energy News University of Michigan, Algae, Algae Biofuel,
In 2017, ExxonMobil and Synthetic Genomics announced breakthrough research published in Nature Biotechnology that resulted in a modified algae strain that more than doubled oil content without significantly inhibiting growth, a key challenge along the path to commercial scalability.
(Source: ExxonMobil, PR, 6 Mar., 2018)
Contact: Synthetic Genomics,
Oliver Fetzer, CEO, www.syntheticgenomics.com;
ExxonMobil, Vijay Swarup, VP, R&D, (972) 444-1107, www.exxonmobil.com
More Low-Carbon Energy News Algae, Algal Fuels, Biofuel, ExxonMobil, Synthetic Genomics ,
"The progress we are making in the lab toward engineering highly efficient algae strains that convert sunlight and CO2 into renewable high energy density biofuel is exciting and warrants continued research about how our technology will scale. Our (California) outdoor algal facility creates a perfect stepping stone from our labs to the greenhouse and to the outdoors to lay the foundation for a large scale commercial deployment of our technology in the future," Synthetic Genomics CEO Oliver Fetzer notes. (Source: ExxonMobil, Synthetic Genomics, innovators, 6 Mar., 2018)
Contact: ExxonMobil, http://corporate.exxonmobil.com; Synthetic Genomica, Oliver Fetzer, CEO, (858) 754-2900, www.syntheticgenomics.com
More Low-Carbon Energy News ExxonMobil, Synthetic Genomics , Algae, Algae Biofuel,
The project is being funded by Funded by the DOE Department of Energy Bioenergy Technologies Office (BETO) within the Office of Energy Efficiency and Renewable Energy (EERE). BETO works with industry, academia and national laboratory partners on a balanced portfolio of research in algal biofuels technologies. (Source: US DOE, LLNL. Feb., 2018) Contact: LLNL, Xavier Mayali, (925) 423-3892, email@example.com; Ty Samo, (925) 423-5837, firstname.lastname@example.org, www.llnl.gov; BETO, www.energy.gov/eere/bioenergy/bioenergy-technologies-office; US DOE EERE, http://energy.gov/eere; General Automation Lab Technologies, (917) 332-7230, www.galt-inc.com
More Low-Carbon Energy News DOE EERE, DOE BETO, General Automation Lab Technologies, Lawrence Livermore National Laboratory, Algae, Algae Biofuel, Biofuel ,
The company's technology delivers sustainable and renewable advanced algae products such as proteins for consumption and biofuel oils for biodiesel transportation fuel and power generation, according to the company website.
(Source: Algae.Tec, Stockhead, 28 Nov., 2017) Contact: Algae.Tec, Malcomb James, CEO, +61 (08) 9380 6790, (678) 679-7370 -- U.S. Office, email@example.com, www.algaetec.com.au
More Low-Carbon Energy News Algae.Tec, Algae Biofuel, Algae, Biodiesel,
The research also confirmed REG Life Sciences technology can achieve substantial reductions of full-lifecycle greenhouse gas emissions compared to traditional diesel fuel.
ExxonMobil is also actively researching other emission-reducing technologies, including algae biofuels and carbon capture and sequestration (CCS). In June 2017, ExxonMobil and partner Synthetic Genomics, Inc. announced a joint research breakthrough in advanced biofuels involving the modification of an algae strain that more than doubled its oil content without significantly inhibiting the strain's growth. (Source: ExxonMobil, Auto Channel, Others, Oct., 2017)Contact: REG Life Sciences, Eric Bowen, VP, www.regi.com/technologies/life-sciences; ExxonMobil, Vijay Swarup, VP, R&D, (972) 444-1107, www.exxonmobil.com, Twitter www.twitter.com/exxonmobil.
More Low-Carbon Energy News xxonMobil, Renewable Energy Group , Biodiesel, Cellulosic,
According to MKU, Toivo Kallas, a Distinguished Professor of Microbial Genetics and Biotechnology at UWO and the CEO of Agoma, whose research include photosynthetic energy conversion reactions and environmental responses of cyanobacteria and micro-algae, took interest in the research work led by P. Varalakshmi, an Assistant Professor with Department of Molecular Biology in MKU. Varalakshmi and her research team identified various micro-algae strains which have shown potential as feedstock for the production of biofuel.
Algoma is seeking a collaboration on the possibility of using genetic engineering and other techniques to improve the efficiency of energy conversion by the strains of micro-algae identified by MKU researchers and to advance commercialized production of bio-fuel from micro-algae. (Source: Madurai Kamaraj University, PR, 29 Oct., 2017) Contact: MKU, +91 452 245 8471, www.mkuniversity.org; Algoma Algal Biotechnology, www.algomaalgal.com
More Low-Carbon Energy News Algoma Algal Biotechnology, Micro-Algae, Algal Biofuel,
Using available data from nine North Korean facilities, 38 North estimates the country presently could produce 2,851 tpy of algae biomass containing approximately 1,425.5 tons of nutritional mass convertible to the equivalent of 4,075.6 barrels of oil.
(Source: CNBC Asia-Pacific, 38 North 20 Oct., 2017) Contact: 38 North, www.38north.org
More Low-Carbon Energy News Algae, Algal, Algae Biofuel,
Strategies to be used by the team to meet this goal include increasing algal cultivation productivity, optimizing biomass composition, and extracting and separating different types of algal lipids to reduce the cost of upgrading them to renewable diesel.The study will be led by scientists at the National Renewable Energy Laboratory (NREL) in Golden, Colorado.
The researchers will use an algae species called Desmodesmus armatus, and will focus on fundamental processes of efficiently channeling carbon dioxide into useful fuel intermediates. The project will work to ferment carbohydrates in the algal cells into chemicals of interest, including ethanol, as well as a fuel precursor called 2,3 butanediol.
Other partners on the project will work on the algae-to-bioproduct life cycle, including modification of growing pond conditions, and separating algal solids from water to remove lipids.
The multidisciplinary team includes CSU's Ken Reardon, professor of chemical and biological engineering; Graham Peers, associate professor of biology; and Jason Quinn, assistant professor of mechanical engineering; along with partners at National Renewable Energy Laboratory, Colorado School of Mines, Arizona State University, Utah State University, and representatives from industry. San Diego-based Sapphire Energy is a project partner and has pioneered the use of D. armatus for biofuels. (Source: Colorado State University, PR, 2 Oct., 2017) Contact: Colorado State University, Prof. Ken Reardon, firstname.lastname@example.org, www.colostate.edu; US DOE BETO, energy.gov/eere/bioenergy/bioenergy-technologies-office
More Low-Carbon Energy News Colorado State University, Sapphire Energy, Algae, Algal Biofuel, BETO,
In the new technology, a single algal cell is captured in a droplet of water encapsulated by oil then millions of algal droplets squeeze onto a chip about the size of a quarter. Each droplet is a "micro-bioreactor", a highly controlled environment in which algal cells can grow and replicate for several days, forming a genetically homogenous colony that goes through its typical biological reactions, including the production of lipids.
The researchers first validated the chip system with algae known to grow faster or slower, or produce more or less lipid. They then screened 200,000 chemically mutated cells, identifying six mutants with both faster growth and higher lipid content. The screening, done on-chip, uses fluorescence detection of chlorophyll, representing total cell mass, and BODIPY, a fluorescent molecule that binds to lipids. All mutants with potential for improved growth or lipid production were recovered and verified off-chip.
The tools for improving throughput are already in development, including larger chips that can screen millions of droplets in one experiment.
With the discovery and development of much more efficient algal strains, commercial-scale production of biofuel from algae may finally be a realistic promise.
The research was supported by the National Science Foundation. (Source: Cornell University, PR, Plant Direct, 28 Sept., 2017) Contact: Cornell Univ., George Lowery, (607) 255-2171, email@example.com, www.cornell.edu; Texas A&M, Arum Han , (979) 845-9686;
Boyce Thompson Institute, (607) 254-1234, https://btiscience.org
More Low-Carbon Energy News Algal, Algae, Algae Biofuel,
The organizations selected include:
According to a release, researchers would like to produce algae efficiently because of its potential environmental benefits. Oil from the algae can be used as a petroleum alternative, and algae also can be used as food, feed, fiber, fertilizer, pigments and pharmaceuticals. Growing and harvesting algae in wastewater streams could also reduce the environmental footprint of many manufacturing processes.
However, its industrial use hasn't caught on, primarily because algae needs a lot of time and water to grow. Generally, large ponds are required, and harvesting is labor intensive. Researchers have begun developing biofilm reactors to grow the algae, but the reactors aren't efficient because of pH or temperature variations or a limited supply of carbon dioxide gas. The patent-pending biofilm reactor recycles gasses and uses less water and lower lighting than typical reactors. The system allows the algae to simultaneously do photosynthesis like a plant while also "eating" carbon and respiring like an animal, the researchers say. The researchers fed the algae glycerol, a cheap waste product of biodiesel production, and urea, another inexpensive chemical that serves as a nitrogen source for the algae. Due to the design, CO2 and oxygen are recycled in the system.
The researchers have filed a patent application on the technology and are working to optimize the process which was funded through a Fulbright fellowship.
(Source: Algae Research, VDF Central, July 26, 2017) Contact: Washington State University, Prof.
Haluk Beyenal, Gene & Linda Voiland School of Chemical Engineering & Bioengineering, https://voiland.wsu.edu
More Low-Carbon Energy News Algae, Algae Biofuel, Biodiesel,
Using CO2 to generate fat from algae is not necessarily new, but the amount of fat produced by this new strain of algae is hugely significant since fatty algae make the strain more fit to eventually produce biofuels at an industrial scale, according to the the researchers.
Algae based fuel emits fewer greenhouse gases than most other energy sources,and could potentially play a vital role in the transition to emission energy sources. Just as significantly, unlike other biofuel feedstocks such as corn or sugar cane, algae production on an industrial scale would not have a negative effect on food production.
SGI and ExxonMobil have been collaborating on algae biofuels R&D since 2009.
(Source: ExxonMobil, Synthetic Genomics, Biofuels Int'l, Others, 20 June, 2017) Contact: Synthetic Genomics, www.syntheticgenomics.com; ExxonMobil, Media, (972) 444-1107, www.exxonmobil.com
More Low-Carbon Energy News ExxonMobil , Synthetic Genomics, Algae, Biofuel,
BETO's Advanced Algal Systems Program aims to demonstrate an algal biofuel intermediate yield of 2,500 gpy per acre by 2018 and 5,000 gallons per acre per year by 2022. The program also aims to cut the total production costs of microalgae biofuels to $3/gasoline gallon equivalent by 2030, with or without co-products.
Researchers are currently cultivating 30 strains of algae, which they will narrow down to the four most promising strains. Of the four strains the researchers will determine which have the highest oil, protein, and carbohydrate content, as well as other factors, such as bacterial resistance and potential for creating valuable co-products. The team will then compare the strains to two well-studied algae strains, and the top-performing strains will be further tested to identify the optimal algae strain for biofuel production.
(Source: PNNL, EIN PressWire, June, 2017) Contact: PNNL, (509) 371-6989, www.pnnl.gov
More Low-Carbon Energy News Alagal Biofuel, Algae, Biofuel, PNNL, BETO,
euglena, which launched in China in 2015,
Construction of euglena's pilot algae biofuel plant in Yokohama will start on June 1. The new plant, which carries a 5.8 billion yen price tag, will produce 125 kiloliters of algae biofuel a year. (Source: euglena, May 19, 2017) Contact: Euglena Co., www.euglena.jp/en
More Low-Carbon Energy News euglena, Algae, Biofuel, Algae Biofuel,
According to the National Research Center, Egypt has succeeded in cultivating 420,000 square meters of Jatropha in Luxor province, south of Cairo.
(Source: Egypt National Research Center Department of Chemical Engineering, Al-Fanar Media, 10 May, 2017)
Contact: Egypt National Research Center Department of Chemical Engineering, +202 3337 1362, http://www.nrc.sci.eg
More Low-Carbon Energy News Aviation Biofuel, Jet Biofuel, Jatropha, Algae Biofuel,
The eGarden, which presently converts 1,200 - 1,400 gpy of on-campus sourced waste vegetable cooking oil into biodiesel fuel,
is currently developing the capacity to convert algae into biodiesel fuel.
(Source: Genesco State College, 20 April, 2017)
Contact: Genesco State College, (585) 245-5211, www.geneseo.edu; SUNY, www.suny.edu
More Low-Carbon Energy News SUNY, Algae, Biodiesel, Biofuel ,
In July, 2016, Manta Biofuel won a $1 million award from the U.S. Department of Energy to further develop its algal technology. Manta's algae biofuel can be used as a drop in replacement for traditional crude oil and can be refined into gasoline, diesel fuel, jet fuel and other petroleum derived products. Refiners are the primary end consumers of crude oil and this is the larger market Manta will address in the long term.
(Source: Manta Biofuel, Baltimore BUsiness Journal, 20 Mar., 2017) Contact: Manta Biofuel, www.mantabiofuel.com
More Low-Carbon Energy News Manta Biofuel, Algae, Algae Biofuel,
The study examines the vital growth factors and the current trends that are estimated to enhance the growth of the global market. The research report also offers an-depth analysis of the global Algae Biofuel market, focusing on the product portfolio, primary applications, latest developments, regional segmentation, and the competitive scenario of the overall market. In addition, with the aid of diverse analytical tools, the research study throws light on the key opportunities and the challenges that are being faced by the prominent players that are operating in the globe market.
A report sample and details is available HERE.
(Source: QY Research Reports, PR, 7 Mar., 2017) Contact: QY Research Reports, (518) 621-2074, firstname.lastname@example.org , www.qyresearchreports.com
More Low-Carbon Energy News Algae Biofuel,
Their investigations are part of the new, $6 million Development of Integrated Screening, Cultivar Optimization and Validation Research (DISCOVR) project to determine which algae strains are the toughest and most commercially viable. The U.S. DOE Office of Energy Efficiency and Renewable Energy is sponsoring the project.
Researchers estimate that 30 pct of current production on algae farms is lost each year due to pond crashes. For early crash detection, Jeri Timlin, an analytical chemist on Sandia's DISCOVR team, is using spectro-radiometric monitoring to watch the ponds for subtle changes in reflected light that indicate the presence of pathogens or predators. This technique can detect subtle color changes as well as other physical and chemical properties of the algae, making it possible to determine the pond's density and overall health.
While Sandia monitors ponds and evaluates resistance to diseases, PNNL will quantify the biomass production rate of 10 strains of algae that they grow in a variety of simulated environmental conditions. NREL then will perform compositional analysis on the same strains, seeking those best suited for fuel production.
Later phases of the three-year project will involve partners in this "algae pipeline," increasing pond culture stability and evaluating the potential for generating products other than fuel, such as chemicals used for industrial purposes. (Source: Sandia National Laboratories, 6 Mar., 2017) Contact: U.S. DOE Office of Energy Efficiency and Renewable Energy, energy.gov/eere/office-energy-efficiency-renewable-energy; Sandia National Lab, Jeri Timblin, (505) 844-7932, email@example.com,www.sandia.gov
More Low-Carbon Energy News DOE Office of Energy Efficiency and Renewable Energy , Sandia National Laboratories, Algae, Algae Biofuel, PNNL,
The project is being pursued at various laboratories in five stages as follows: In Tier I, scientists in Sequim and New Mexico test up to 30 different algae strains to see how weather tolerant they are and the top third will go to Tier II.
In Tier II, Sequim houses a unique climate-simulating system called Laboratory Environmental Algae Pond Simulator (LEAPS) that simulates climates and seasons around the world inside glass cylinder photobioreactors. Two other labs will evaluate the algae to determine it value and other potential uses that could make algae biofuel production more cost-effective. Scientists also will research how resilient certain algae strains are to predators, like protozoans, and other competing algae.
In Tier III, researchers in New Mexico will further test top-performing algae strains, which includes forcing cells to grow faster or generate more oils, using state-of-the-art laboratory techniques.
In Tier IV, algae strains will travel to outdoor ponds in Arizona to compare biomass output with earlier steps.
In Tier V, scientists will study the algae strains that performed the best in different lighting and temperature conditions. Study data will be added to PNNL's Biomass Assessment Tool to help researchers generate maps that illustrate the expected biomass productivity of each algae species grown in outdoor ponds nationwide. Laboratory officials said work that could stem from this project includes converting harvested algae into biofuels, examining operational changes such as crop rotation to further increase biomass growth and assessing the technical feasibility and economic costs of making biofuel from algae selected through this process.
Algae project details are HERE. (Source: PNNL, Sequim Gazette, 2 Feb., 2017) Contact: PNNL: Marine Sciences Laboratory, (360) 683-4151, marine.pnnl.gov
More Low-Carbon Energy News Pacific Northwest National Laboratory, Algae, Biofuel,
The two firms have been jointly researching and developing oil from algae for use as a renewable, lower-emission alternative to traditional transportation fuels since launching the program in 2009. Work continues toward developing strains of algae that demonstrate significantly improved photosynthetic efficiency and oil production through selection and genetic engineering of higher-performance algae strains.
ExxonMobil is engaged in a broad range of research on advanced biofuels, partnering with universities and other companies. The purpose of these research and development programs is to explore new technologies and seek the best pathways toward scalable and cost-effective production of advanced biofuels. (Source: ExxonMobil, Synthetic Genomics, PR, 18 Jan., 2017)
Contact: Synthetic Genomics, www.syntheticgenomics.com;
ExxonMobil, Media, (972) 444-1107, www.exxonmobil.com
More Low-Carbon Energy News Synthetic Genomics , Algae, Algae Niofuel, Biofuel, ExxonMobil,
The report finds that algae costs more per unit than other biofuel crops but is claimed to yield 10 to 100 times more fuel per unit area. In 2014, the prices of oil were between US $ 56 to US $ 120 per barrel. The cost of producing micro algal biomass in 2014 was $2.95/kg through photo bioreactors. If the annual biomass production capacity is increased to 1000 tons then the cost will reduce to $1.5/kg for a litre of crude oil.
The extraction of biofuels from algae is largely dependent on organic solvents such as benzene. The companies that are working on innovating algal biofuel technology are Algenol Biofuels Inc., Blue Marble Productions, Solazyme Inc., Sapphire Energy Inc., Diversified Technologies Inc., Origin Oils Inc., Proviron Industries nv, Oilgae and Genifuel Corporation.
Request Free Report Sample HERE. (Source: Future Market Insights, PR, Jan., 2017)
Contact: Future Marketinsights, + 44 (0) 20 7692 8790, (347) 918-3531
More Low-Carbon Energy News Algae Biofuel, Algal, Biodiesel, Etanol, Alternative Fuel,
The funded projects are required to share the cost at a minimum of 50 pct and to develop and execute plans for the manufacturing of advanced or cellulosic biofuels, bioproducts, refinery-compatible intermediates, and/or biopower in a domestic pilot- or demonstration-scale integrated biorefinery. Projects could receive additional federal funds of up to $15 million for pilot-scale facilities or $45 million for demonstration-scale facilities.
The following projects will utilize thermochemical, biochemical, algal, and hybrid conversion technologies to generate the data required to enable future commercial-scale facilities: