Articles tagged with Microalgae
Researchers discovered microalgae meal is a promising feedstuff for growing beef cattle, providing high energy and nutrients. The study found that cattle readily consumed algae meal at all concentrations, and its inclusion in diets increased average daily gain and dry matter intake.
Fistulifera solaris, a diatom microalga, is found to grow quickly and produce high levels of oils simultaneously. Its genome and transcriptome analyses provide insights into its characteristics, making it an excellent candidate for batch culture biofuel production.
Researchers have confirmed that Chlamydomonas acidophila microalgae can grow in agri-food waste effluent and assimilate ammonium, preventing air pollution. The resulting biomass can be used as animal feed, compost or fertilizer, and is a rich source of lutein, a powerful antioxidant.
Researchers find genetic diversity as key to the species' adaptive potential, global distribution, and ability to thrive in various ocean environments. The study reveals a pan-genome with a core set of genes supplemented by region-specific genes, enabling the calcified alga to live almost everywhere at the ocean surface.
Researchers at UC Davis have identified several compounds that can increase oil production in green algae by up to 85% without affecting growth. The team used a high-throughput screening approach similar to pharmaceutical drug discovery to find these compounds.
Scientists have developed a technology that enables microalgae to produce multiple types of renewable oils for fuels, chemicals, foods, and personal-care products within days. Solazyme's biotechnology platform unlocks the power of microalgae, producing tailored oils with optimized properties for various applications.
A review article examines the feasibility of algae-derived oils for large-scale biofuels production, with projected economic benefits. Microalgae have high yield potential, but require long-term commitment to achieve commercial scale, according to experts.
Scientists at Ben-Gurion University have created bioreactors that increase microalgae biomass yields dramatically. The innovative design, which synchronizes photosynthesis with flow patterns and illumination, has the potential to make microalgae an economically viable source of renewable energy.
Researchers at TUM introduce a new catalytic process that effectively converts biopetroleum from microalgae into diesel fuels. The process uses a novel catalyst and achieves the conversion of raw, untreated algae oil under mild conditions, producing diesel-range saturated hydrocarbons suitable for high-grade vehicle fuels.
Texas researchers are studying microalgae's benefits, including its use as a sustainable source of fuels, animal feed and fertilizer. The microscopic algae thrive in freshwater and marine systems and have the potential to reduce greenhouse gas emissions.
The University of Michigan researchers have developed a pressure-cooking method to create better biofuels from algae, speeding up the crude-oil-making process from millennia to minutes. This new method eliminates the need for drying and extracting oil, making it more efficient and cost-effective.
A team of researchers has identified a key protein in microalgae that concentrates CO2 for improved photosynthesis and growth. This breakthrough could lead to increased productivity in biofuel production and improved crop yields in plants such as rice and wheat.
Scientists at the University of California, Berkeley have developed a method to genetically modify microalgae to produce hydrogen and hydrocarbons instead of sugar molecules. This modification allows for more efficient use of sunlight in the photosynthesis process, making it a potential alternative to traditional biofuels.
Researchers are testing optimal conditions for microalgae growth in outdoor settings to optimize large-volume cultures for biofuel production. The warm Florida climate makes large-scale production a possibility, and the process has potential to remove carbon dioxide from the air.
Researchers aim to develop a laser fluorometer that detects multiple target pigments, distinguishing between different types of algae in turbid coastal waters. The tool will characterize microalgal populations rapidly and easily, helping to identify potentially harmful species during red tides.