Articles tagged with Biomass Production
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A new study shows that Miscanthus grass can be grown in lower agricultural grade conditions, making it a promising biofuel option. The research found specific genes that play key roles in response to water stress across different Miscanthus species.
Researchers have developed an artificial cyanobacterial biofilm that can sustainably produce green ethylene for up to 40 days. The biofilm's design limits cell growth, promoting efficient light utilization and biomass allocation towards ethylene biosynthesis.
The study by UC San Diego researchers develops a scalable method to produce microalgae-based polyols from waste oils, creating valuable monomers for sustainable bio-plastics. The team also converts co-products into food flavoring and fragrance molecules, with economic value.
Researchers at University of Illinois develop six approaches to treat hydrothermal liquefaction aqueous phase, including separation of chemicals and bioelectrochemical systems. These methods aim to valorize the wastewater byproduct, highlighting potential for sustainable oil production.
Research investigated cover crop biomass production and soil properties in the eastern Great Plains. Early-planted cover crops had minimal effects on soil properties after 4 years, with low biomass production.
CABBI researchers have developed a triad of innovative tools to engineer low-pH-tolerant yeast Issatchenkia orientalis for production of valuable bioproducts. The three tools facilitate genetic expression, DNA assembly, and stability in the yeast strain, enabling its use as a robust organic acid producer.
Researchers developed a new strategy to control both target chemical production and microbe propagation, boosting muconic acid yield. The Parallel Metabolic Pathway Engineering approach allows for independent utilization of sugars for microbe growth and target chemical production.
Researchers used Life Cycle Assessment to identify environmental hotspots in the production of lactic acid, a key bioplastic. The study found that heavy solvent usage and black energy consumption can negatively impact sustainability. Additionally, the development phase is crucial for identifying and addressing these hotspots.
Research collaboration discovers genetically modified poplar trees can grow and produce biomass without emitting harmful isoprene. The modification allows trees to adjust to climate stress through natural seasonal cycles, retaining their growth potential. This breakthrough could lead to more sustainable forest plantations.
Field trials show that suppressing isoprene production in poplars has no significant impact on woody biomass production. The findings suggest that isoprene emissions can be diminished without affecting productivity in temperate forest plantations.
Researchers genetically modified poplar trees to reduce negative impacts on air quality, finding they can grow as well as non-modified trees. The study suggests that these modifications may help improve biomass productivity and plant health without impairing growth.
The study reveals climate models may overestimate aerosol particle numbers by a factor of 4 to 7 and underestimate radiative energy scattering by a factor of 2 to 5. Sea-spray aerosol production is closely tied to sea-surface temperature and phytoplankton-related biomass.
The study successfully overcomes two bottlenecks in the production process by optimizing iron metabolism and using KdcA as a decarboxylase. The engineered yeast strain produces 1.7g/L of 1,2,4-butanetriol, offering a sustainable alternative to petroleum-based production.
Researchers discovered that prolonging phototropin photocycle enhances light sensitivity of chloroplast movement and leaf positioning in Arabidopsis thaliana, leading to increased biomass under low-light conditions. This finding suggests a strategy for improving photosynthetic efficiency and crop yields.
University of Utah engineers create low-power sensors that can detect organic compounds emitted by corn plants when attacked by insects or weeds. These sensors will alert farmers to potential threats, potentially increasing crop yields and reducing damage to biomass production.
A new chemical method developed by Jeremy Luterbacher's lab at EPFL stabilizes simple sugars, preventing degradation and increasing yield. This breakthrough could accelerate the emergence of renewable consumer products.
Research shows that multiple facets of biodiversity, including species richness and plant evolutionary history, jointly reduce annual variation in grassland productivity. High-species-rich communities with diverse histories exhibit reduced biomass production variability.
Researchers at Chalmers University of Technology have developed a method for producing advanced biofuels through gasification, which could replace 10% of the world's aviation fuel. The technology can be applied to existing plants and could produce 346 TWh of biogas per year if sufficient biomass is available.
A study published in the Canadian Journal of Fisheries and Aquatic Sciences found that walleye production in Wisconsin lakes decreased by 27% between 1990 and 2012. Climate change, habitat degradation, and harvest rates are likely contributing factors to the decline.
Researchers developed a novel strategy to produce aromatic polyesters from Escherichia coli strains using microbial fermentation and synthetic biology. The engineered E. coli strain can produce various high-valued aromatic polyesters from renewable biomass, offering a sustainable alternative for the bio-plastic industry.
Researchers at NREL have created a novel catalytic process to produce renewable acrylonitrile using 3-hydroxypropionic acid, achieving unprecedented yields and eliminating production of hydrogen cyanide. The new method offers a cost-effective alternative to traditional petroleum-based production processes.
A team of UC Santa Barbara scientists will receive funding to develop and test technologies that monitor large-scale giant kelp farms. They will combine existing technology to enable farm managers to carefully monitor kelp beds and maximize yields.
Researchers at UBC Okanagan have developed a new biomass pretreatment technique that significantly reduces production time for biofuels, making them safer and more efficient. The new method can produce methane 172 per cent faster than traditional processes using forestry waste products like Douglas fir bark.
This review article showcases the potential of biomass and its derived wastes in producing sustainable bioproducts and fuels. The authors highlight various conversion processes, including bioethanol, biodiesel, and biomethane production, as well as activated carbon manufacturing from bioresources.
A new study finds that warming temperatures affect the stability of Tibetan alpine grasslands, threatening forage production and livestock reliance. Climate change also disrupts species synchrony, jeopardizing well-adapted ecosystems.
Researchers found that algal residue can be converted into vital chemicals, including alkyl lactate and levulinate. This process opens up new potential uses for algae biomass as a carbon resource beyond biofuels.
Researchers have identified a way to manipulate photosynthesis in plants to increase light-harvesting ability and biomass production. The modified plants outperformed controls by 11-14% under fluctuating light conditions, with greater leaf area and plant height.
A team of international scientists found that feeding biogas reactors at longer intervals produces more biogas, increasing methane and total biogas yields by up to 14% and 18%, respectively. The flexible feeding management approach has no negative effect on the stability of the biogas production process.
Researchers at Tohoku University developed a new pretreatment method using sodium percarbonate and hydrodynamic cavitation to improve sugar formation in biomass. The method outperformed existing ultrasonic systems in producing fermentable sugars.
A new cloud software tool called EucaTool estimates eucalyptus production in Galicia. It allows users to calculate growth and future production by measuring four stand variables.
Researchers at Joint BioEnergy Institute developed a high-gravity one-pot process for producing cellulosic ethanol, achieving unprecedented yields while minimizing water use and waste disposal. The process utilizes ionic liquid pretreatment, enzymatic saccharification, and yeast fermentation.
Researchers at the University of Eastern Finland have found that barley straw can be effectively fermented into biobutanol, a potential alternative to ethanol. The study established optimal pre-treatment conditions for turning straw lignocellulose and barley starch into fermentable sugars that can be used in biobutanol production.
A team of Virginia Tech researchers has discovered a way to produce hydrogen fuel using a biological method that reduces the time and money required for its production. The new method uses abundant corn stover to create hydrogen with extremely low carbon emissions.
Researchers found that specific LED treatments were more effective than high-pressure sodium lighting for greenhouse tomatoes, increasing fruit and biomass production. The study's results show that LEDs can be customized to target specific wavelengths used by plants, leading to improved plant growth.
Researchers at Lawrence Livermore National Laboratory have identified a type of bacterial resistance that enables more efficient production of advanced biofuels. The discovery involves introducing a genetic module into E. coli bacteria, allowing them to grow in the presence of toxic concentrations of ionic liquids.
New research suggests that rising temperatures will increase methane fluxes from freshwater ecosystems, a key component of global methane emissions. This finding highlights the importance of understanding biological methane fluxes to predict the response of this component to global warming.
Researchers at Kansas State University are part of a $6.5 million collaboration to refine biomass conversion into better biodiesel, jet fuel, and other value-added products. The project aims to optimize every component used in the production cycle for closed-loop systems without emissions.
Researchers have developed a high-efficiency process that converts various biomass types into crude bio-oil, yielding an energy efficiency of 85-90%. The process is environmentally friendly and accepts all kinds of biomasses, with potential to replace fossil fuels in transportation.
A Korean research team uses systems metabolic engineering to improve butanol production in Clostridium acetobutylicum. The optimized process yields over 585g of butanol from 1.8Kg of glucose, making biofuel production cost-competitive.
Researchers have developed semi-dwarf trees through genetic modification, which can improve wood production, biomass production, branching, water-use efficiency, and root structure. The modified trees can also be more resistant to drought stress and better sequester carbon.
A multi-institutional research project aims to develop water-use efficient biofuel crops by altering the photosynthesis process of plants. The goal is to produce biomass that can be readily converted to biofuels while minimizing competition with food crops.
A study by University of Zurich botanists and ecologists found that higher biodiversity aids stress resistance in ecosystems. Systems with more species can maintain biomass production longer under moderate stress, while those with few species are more negatively impacted as stress increases.
Chemical engineers at UMass Amherst have discovered a new method to produce p-xylene with an efficient yield of 75%, using most of the biomass feedstock. The process creates the same chemical used in petroleum-based plastics, but from renewable biomass sources.
The Academy of Finland Centre of Excellence develops microbial cells to produce organic acids for industrial applications, including manufacturing bioplastics and medical materials. The method allows for efficient conversion of plant biomass sugars into sugar acids and their derivatives, offering alternatives to oil-based raw materials.
A new catalytic process at Cardiff University converts hydrocarbons from diesel production into oxygenated aromatics, including phthalic anhydride and coumarin. This breakthrough could lead to less waste and the creation of more useful chemicals for various industries.
Researchers introduce the 'midway' strategy to produce sustainable ethanol from sugarcane, minimizing impacts on biodiversity. The approach involves biotechnology, genetically improved crops, and policies supporting sustainable land management.
A team of researchers at DOE's BioEnergy Science Center has pinpointed the single gene controlling ethanol production capacity in a microorganism. This breakthrough discovery could lead to developing biomass crops that produce higher concentrations of ethanol at lower costs, addressing our reliance on imported oil.
Ben-Gurion University of the Negev is part of a new consortium creating the Israeli Center for Research Excellence in renewable energies. The team will focus on developing energy-rich biomass as a biofuel feedstock and exploring innovative solutions for sustainable energy production.
The study concludes that replacing 30% of petroleum consumption with biofuels by 2030 is technically possible, but the cost will be high, with biomass prices ranging from $140 to over $200 per metric ton. The research team identified miscanthus and switchgrass as promising high-yielding crops for biomass production.
Researchers at Iowa State University found that single-cropping sorghum grass yields more ethanol than double-cropping systems. The study suggests using sorghum as a sole crop could meet up to 25% of the US energy needs, surpassing corn-based fuels.
A study suggests that biochar, a charcoal-like substance made from plants and organic materials, can sustainably offset up to 12% of global greenhouse gas emissions. Biochar holds onto its carbon for hundreds or thousands of years, keeping greenhouse gases out of the air longer.
Researchers found that flax can produce up to 0.3 kg of ethanol per kg of dry biomass, but its overall environmental impact is lower than Brassica carinata. Bioethanol from these sources can help mitigate climate change and reduce greenhouse gases.
A new study published in The Plant Genome suggests that acquiring cheap genome sequence data can improve the quality of feedstocks used to create biofuels, potentially reducing carbon footprint. This could lead to more sustainable high-yield production with minimal inputs.
Purdue University researchers identified a role for small-interfering RNAs in regulating and shutting down primary cell wall growth, which may enhance total plant biomass. This discovery could lead to increased cellulose production for plant-based biofuels.
Researchers at Dartmouth's Thayer School of Engineering have developed a thermophilic bacterium that can produce ethanol from cellulosic biomass without adding enzymes. This discovery brings the US closer to alternative fuel production and offers significant environmental benefits.
Researchers at UGA are working to improve the efficiency of converting lignocellulose into ethanol using switchgrass and sunflower, with potential benefits for reducing carbon dioxide emissions and food costs.
The Plant Journal special issue explores how plants can convert their fixed carbon into fuels and other useful products. This provides a renewable and affordable source of carbon to sustain future economic development without negatively impacting the environment.
A new journal, Biotechnology for Biofuels, has published a report describing the efficient production of bioethanol through hot water pretreatment on wheat straw. Researchers found that this process helps remove wax and hemicellulose, enhancing enzymatic digestibility and producing better quality bioethanol.
The Council for Agricultural Science and Technology (CAST) has introduced two new commentaries on biofuel byproducts and ethanol production, highlighting the potential risks of invasive pests in dedicated feedstock crops. The commentaries aim to provide a process to quantify and minimize this risk.
Researchers explore potential for enhanced nutrient cycling through coupling of agricultural and bioenergy systems to improve sustainability of biomass production. The study reports that up to 78% of nitrogen fertilizer could be recovered from an integrated biological and thermochemical process.