Articles tagged with Industrial Production
Researchers at KAIST discovered that plasma jets produce more stable interactions with water surfaces compared to neutral gas jets, reducing bubbling and splashing. The study's findings will help improve our understanding of plasma-liquid interactions and their applications in various industrial fields.
Using spatially structured ultrashort laser pulses, materials can be modified with diverse effects, from marginal refractive index changes to destructive microscale explosions. This technology allows true micron-scale material processing due to extremely short exposure times and low thermal diffusion.
The study reveals chemical traces of grapes in medieval amphorae, suggesting a prosperous wine trade across the Mediterranean. The discovery implies that the Islamic community in Sicily produced and exported wine, contradicting previous assumptions about their consumption habits.
Researchers developed a two-step amination strategy to enhance the intrinsic activity of M-N/C catalysts, leading to improved current density and Faraday efficiency. The new method enabled CO2 electrocatalytic reduction at an industrial level, with a remarkable current density of over 400 mA cm−2.
Researchers at Osaka University have developed a stable and reusable nickel phosphide nanoparticle catalyst that exhibits high activity and selectivity in the hydrogenation of glucose to sorbitol. The catalyst produces D-sorbitol with yields over 99%, making it suitable for sustainable, low-cost production in various industries.
Researchers at Aarhus University are developing a new type of battery that can be recharged in just six minutes and has a range of 350 kilometres. The goal is for the battery to have a lifespan of at least 20 years and be virtually maintenance-free.
Researchers have found that three ozone-depleting hydrochlorofluorocarbons are being emitted globally, including one recently discovered. The majority of these emissions originate from Asia and southeastern France, suggesting a link to the fluorocarbon industry.
Researchers at KAIST develop novel biosynthetic pathways for short-chain primary amines through retrobiosynthesis, expanding the strategy for bio-based production of chemicals. The team successfully produced multiple short-chain primary amines using Escherichia coli strains and renewable resources.
Industry incumbents face difficult choices during technological disruption, such as cannibalizing successful offerings or investing in both. The study's generalized model can capture variations in adopter segments, including leapfroggers, switchers, opportunists, and dual users, to estimate cannibalization and coexistence.
While a no-meat diet is recommended for industrialized regions, scientists argue that it's not a universal solution for low- and middle-income countries. Livestock are crucial to incomes and diets in these regions.
Scientists at Chalmers University of Technology have created a unique method to extract valuable metals like zinc from fly ash produced by incinerating solid waste. This innovative approach can help reduce environmental pollution and increase the profitability of waste incineration, while also promoting a more circular economy.
Researchers propose a new approach to produce calcium acetylide, a key industrial compound, using renewable carbon sources and reducing its environmental impact. The study simulates the interaction of calcium acetylide with water and dimethyl sulfoxide on an atomic scale, revealing potential for greener synthesis methods.
The team created a scalable and high-throughput method to produce ordered porous titania films with through-hole membranes. The process involves applying heat to crystallize the film and selectively dissolving the amorphous portion to free the membrane.
A team of researchers has discovered a new way to produce hydrogen using microwaves, with great potential for the automotive sector, chemical industry, and process industry. The technology enables the transformation of renewable electricity into hydrogen or chemical products without cables or contact with electrodes.
Researchers at Waseda University developed a novel technique to grow carbon nanotubes, overcoming the limitation of short forests. The breakthrough enables the creation of dense CNT forests up to 14 cm in length, with high purity and competitive strength.
A team of researchers has developed a model for acid-tolerant yeast that can produce succinic acid, a precursor for industrial polymer production. The model uses gene editing and computational tools to identify the optimal genetic modifications required to maximize succinic acid production.
A German meat processing plant outbreak highlights the importance of maintaining high quality air flow to restrict SARS-CoV-2 transmission. The study found that a single worker transmitted the virus to over 60% of co-workers within an 8-meter distance.
A new device uses biogenic amines to detect seafood spoilage, offering a quick and simple method for testing amine vapors from fish. The technology has the potential to revolutionize food safety by enabling real-time monitoring of spoilage levels in seafood.
A Cornell University-led project aims to reduce COVID-19 cases and transmission among food processing facility workers while maintaining production capacity. The researchers will collaborate with industry partners to explore optimal strategies using computer modeling and outreach.
A new effort led by UTIA aims to help nursery growers adopt automation technologies, addressing the industry's labor shortage. The LEAP Team will identify labor constraints and opportunities, as well as prioritize automated technologies for nursery production systems.
Scientists at Tufts University genetically engineered cow muscle cells to produce beta carotene, a provitamin that may reduce the risk of colorectal cancer. The study demonstrates the potential of cell-cultured meat products to surpass the nutritional profile of conventionally produced meat.
The research team developed a new ultrafast fiber laser that produces an average power of over 10 kW without significant degradation in beam quality. This technology paves the way for industrial-scale materials processing and visionary applications such as space debris removal.
Researchers have developed an engineered electrode material that enables high-capacity Lithium-ion batteries with fast-charging capabilities. The material, combining black phosphorus and graphite, shows improved stability and efficiency, restoring 80% of its full capacity in under 10 minutes.
A new framework examines human-nature interactions across space and time to reveal successes and setbacks in achieving sustainable development goals. The analysis found 33 synergies and 14 trade-offs among 10 SDGs, highlighting the need for a holistic approach to sustainability.
A research team has developed nanoscale copper wires with specially shaped surfaces to catalyze the conversion of carbon dioxide into ethylene, producing a conversion rate of over 70%. The new system is more efficient than previous designs and can run for extended periods without losing efficiency.
Researchers from the University of Würzburg have developed a method to convert nitrogen to ammonium at room temperature without using transition metals. The key to this process is the use of boron and water, which enables sequential reactions that bring the team close to producing ammonia.
The EPIC project aims to accelerate electrode drying for lithium-ion batteries by increasing energy efficiency and reducing costs. Innovative drying management techniques are being developed and tested to improve the environmental performance and position Germany as a leading location for battery production.
Researchers at King Abdullah University of Science & Technology (KAUST) have developed a new method to directly convert methane into commercial products, bypassing multiple energy-intensive stages. The breakthrough uses a molybdenum-zeolite catalyst and identifies two potential activation pathways for carbon-hydrogen bonding.
A new project aims to explore insect-based feeds for poultry and aquaculture industries, which could help the UK meet its net-zero emissions target. The team will work on efficient insect production methods to lower costs and environmental impact.
Scientists at Lawrence Berkeley National Laboratory are working to develop technology for efficient lithium extraction from geothermal brine in California. The projects aim to unlock the state's potential as a major supplier of lithium, essential for battery production and global demand is expected to skyrocket.
A study suggests that achieving Japan's plastic recycling targets will depend on collecting packaging waste from the food industry and households. The analysis reveals that it is possible to meet recycling targets if all feasible measures are implemented, but legislative action is hindered.
Researchers from Kyoto University have developed a new method to synthesize dicarboxylic acids and generate hydrogen as a byproduct. Using renewable diols and an iridium catalyst, the process achieves greater efficiency and yield, offering a safer alternative for industrial organic chemistry.
Researchers created a data-driven model to forecast oil well production using multistage fracturing technology. The model has high commercialization potential and can boost oil production through optimized fracturing design.
A new study in Nature Sustainability shows that international trade improved the sustainable development goals of 70% of developed countries but reduced them by over 60% for developing countries. The research found that trading with distant countries had more environmental benefits, as close neighbors often share similar constraints.
The $496,000 USDA grant will help design new CEA training programs at Cornell University to address the industry's growing need for a skilled workforce. Participants will gain expertise in CEA infrastructure and advanced knowledge in environmental monitoring and marketing skills.
The article discusses four possible scenarios for the future of aquaculture, including a growth-first nationalistic approach, sustainable localized production, and a globally competitive market. These scenarios aim to maximize aquaculture's nutrition benefits while ensuring environmental sustainability.
A Shinshu University research team has successfully cultivated microalgae using a novel mechanical milking system, overcoming three major cultivation challenges. This non-destructive method enables the efficient production of valuable compounds like polysaccharides and phycobiliproteins without solvent extraction.
Researchers at ETH Zurich have developed a method to control the dispersity of polymer materials, allowing for the production of polymers with specific properties. This is achieved by using two catalysts with different effects, enabling chemists to adjust the dispersity precisely and produce uniform or highly dispersed polymers.
A new study suggests robusta coffee production decreases by 14% with each 1C increase above a lower-than-once-thought optimal temperature range. The findings contrast with previous estimates and highlight the need for climate adaptation strategies in the coffee industry.
Researchers at Mississippi State University have successfully bred heat-tolerant annual ryegrass using recurrent phenotypic selection. The new germplasm can germinate and survive under high temperature stress conditions, allowing for late summer or early fall planting in the Southeast, increasing grazing days in winter and spring.
Researchers found that ozone-depleting chemical alternatives have increased dramatically in the Arctic since 1990, contaminating freshwater sources and affecting wildlife. The substances, known as scPFCAs, can travel long distances and accumulate in human blood and food crops.
Researchers have isolated and characterized an antibody that can bind to SARS-CoV-2 and neutralize the virus, providing a potential antiviral drug candidate. The antibody targets a conserved epitope on the spike protein of the virus.
A research team has developed a microbial strain capable of producing succinic acid with the highest production efficiency to date. The strain, isolated from a Korean cow's rumen, was engineered through systems metabolic engineering and enzyme engineering to produce 134 g per liter of succinic acid.
A new study by Yale researchers finds that natural disasters can trigger catastrophic domino effects through urban trade networks, with secondary economic impacts often exceeding local costs. Regional cities most vulnerable due to dependence on industrial supplies and limited suppliers.
Researchers at Vienna University of Technology have developed a new synthesis method that uses only hot water to produce important polymers like polybenzimidazoles and pyrron polymers. The process avoids the use of toxic substances, making it an environmentally friendly alternative.
Researchers develop strong, comfortable fabric that adapts to changing weather conditions by absorbing and releasing thermal energy. The fabric, made from silk and chitosan with phase-changing polymer PEG, can be worn indoors or outdoors, reducing the need for air conditioning or heat.
The chemical industry can achieve net-zero CO2 emissions by using carbon capture and storage (CCS) or carbon capture and utilization (CCU), which require more energy. Biomass-based production is another option, but with intensive land use requirements.
Researchers at Bielefeld University are developing ultra-thin carbon nanomembranes that can filter out impurities from water, producing ultrapure water and beverage concentrates. The technology aims to reduce energy consumption and preserve flavors in food production and pharmaceutical applications.
Scientists propose a new method to produce thermally stable single-atom catalysts (SACs) with high metal loading. The method uses a simple and environmentally friendly approach, achieving kilogram-level production of commercial Fe2O3 supported Ru SACs.
Researchers developed a photocatalytic method to convert biomass-derived polyols and sugars into methanol and syngas, promoting a clean and renewable alternative to fossil fuels. The process uses UV light irradiation at room temperature and produces a mixture of CO, H2, and other gases, with CO selectivity up to 90%.
Researchers developed a new MOF co-catalyst that selectively produces branched aldehydes, which are difficult to achieve with existing catalysts. The study demonstrates the potential of MOFs to enhance selectivity in various catalytic reactions.
Researchers at Aalto University have developed an eco-friendly adhesive using plant-derived cellulose nanocrystals and water, demonstrating exceptional strength and performance. The new glue outperforms commercial products in terms of sustainability and cost-effectiveness, making it a promising solution for various industries.
The KIT team developed printable organic photodiodes that can detect varying wavelengths, enabling color selection and filterless multichannel visible light communication. These sensors are suitable for mobile devices and have the potential to be used in various applications, including the internet of things and Industry 4.0.
Researchers at City College of New York developed a hydrogenation process that bypasses external hydrogen gas sources, reducing safety risks and costs. The new method has potential applications in undergraduate chemistry labs and medicinal fields.
Researchers found that firms like Fabindia use a specific approach to shape industry futures, transforming key aspects of the landscape. The team mapped Fabindia's evolution over 50 years and identified three major instances where the company successfully transformed its industry.
Researchers at Rensselaer Polytechnic Institute developed a highly effective separation membrane that can convert carbon dioxide into fuel like methanol more efficiently. The membrane's water-conduction nanochannels allow for quick and selective removal of water, enabling the chemical reaction to proceed rapidly.
Scientists at Argonne National Laboratory have experimentally detected the transition state in chemical reactions, a hidden aspect that controls product formation. This breakthrough could improve industrial processes and lead to the synthesis of new life-saving drugs.
Researchers developed a Noncontact Catalysis System (NCCS) to accelerate chemical reactions using gold nanoclusters as intermediaries, enabling independent reactions of normally incompatible substances. This breakthrough could lead to more versatile, efficient, and cost-effective industrial chemical production processes.
A new laser-based method combines X-rays and laser-induced fluorescence to observe and quantify atomizing spray phenomena, providing details on the sprayed liquid's form and distribution. The technique can detect smaller amounts of liquid than previously detected with x-rays and has the potential to study sprays in real-time.
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.