Research Keyword: biofuel production

A Biorefinery Approach Integrating Lipid and EPS Augmentation Along with Cr (III) Mitigation by Chlorella minutissima

This research demonstrates that a common freshwater microalga called Chlorella minutissima can effectively remove toxic chromium from contaminated water while simultaneously producing high-quality biodiesel fuel and useful plant compounds. The microalga survives chromium exposure by activating powerful internal defense systems that protect it from oxidative stress. This integrated approach offers a sustainable solution to environmental contamination while generating renewable energy, supporting the transition to a circular economy.

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Harnessing carbon potential of lignocellulosic biomass: advances in pretreatments, applications, and the transformative role of machine learning in biorefineries

This comprehensive review examines how agricultural and forestry waste containing lignocellulose can be transformed into valuable products like biofuels, packaging materials, and medical supplies. The paper covers various treatment methods to break down the tough plant material structure and highlights how artificial intelligence can improve these processes. By utilizing this abundant waste resource efficiently, we can reduce environmental pollution, generate renewable energy, and create useful products while supporting a circular economy approach.

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Biochemical and molecular characterization of fungal isolates from California annual grassland soil

Scientists studied soil fungi from California grasslands to find the best strains for producing biofuels and health supplements. They discovered that Mortierella fungi are especially good at accumulating oils and producing beneficial compounds like arachidonic acid. Three specific fungal strains stood out as having the highest oil content and best fatty acid profiles, making them promising candidates for industrial production of sustainable fuels and nutritional supplements.

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Compatible traits of oleaginous Mucoromycota fungi for lignocellulose-based simultaneous saccharification and fermentation

Scientists tested different types of fungi to see which ones are best at producing oils that can be turned into biofuel while breaking down plant material. They found that Lichtheimia corymbifera can survive at high temperatures and produce useful enzymes, making it the best candidate. The study helps identify which fungi should be used in industrial processes to make sustainable biofuels from agricultural waste.

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Relative contribution of three transporters to D-xylose uptake in Aspergillus niger

Researchers studied how three different protein transporters help the fungus Aspergillus niger absorb xylose, a type of sugar found in plant waste. They found that two of these transporters (XltA and XltD) were equally important, while the third (XltB) played a minor role. Interestingly, the fungus could still absorb xylose even without these three transporters, suggesting other backup transporters exist. This finding shows that predicting which transporters are important based on laboratory tests in yeast may not accurately reflect how they work in the original fungus.

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Biochemical and molecular characterization of fungal isolates from California annual grassland soil

Researchers studied various fungi collected from California grassland soils to determine their potential for producing biofuels and healthy nutrients. They found that Mortierella alpina strains were particularly excellent at producing high amounts of useful oils and fatty acids. Specific strains were identified as the best candidates for industrial applications in creating biofuels and nutritional supplements. This research suggests fungi could be valuable tools for sustainable production of energy and health-promoting compounds.

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Compatible traits of oleaginous Mucoromycota fungi for lignocellulose-based simultaneous saccharification and fermentation

Researchers tested nine types of fungi to find which ones are best at producing oils from plant waste for making biofuels. They tested how well each fungus could handle higher temperatures and break down cellulose, which is the main component of plant material. Lichtheimia corymbifera was the clear winner because it could grow at higher temperatures while still breaking down plant material efficiently, making it ideal for the combined process of breaking down and fermenting plant waste.

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