The Business Magazine - South West & West Midlands’ Post

Great share Mike Hopkins however I would like to make you aware that far more bio-efficient methods are available! #Biologically speaking to #save our #planet we need to reduce #C02 #emissions while increasing the production of #clean #water 💧 ! This will allow for the ecosystem to buffer itself properly and make the massive repairs necessary to sustain #humans and all #life as we know it! I must ask the reader what is the cost 💲 of #free ? If I have a process which is free, but less efficient kw for #kw does it necessarily need to be further efficientized at a environmental cost? Think of a water wheel ….

Increased hydrogen production, especially through green methods, can significantly reduce environmental impact by decreasing reliance on fossil fuels and lowering carbon emissions. Innovations like the one from the University of Illinois Chicago, which uses biochar to make hydrogen production more efficient, highlight the potential for sustainable hydrogen as a clean energy source. Powering the process with new cheaper renewable energy like the bigger onshore wind made possible by Radia.com results in the production of hydrogen at a significantly lower cost than NG and other becoming primitive fossil fuels. #energytransition.

Sustainable process for green hydrogen production! Latest research indicates a cutting-edge Biochar Assisted Water Electrolysis (BAWE) process that sets new benchmarks for green hydrogen production. Key Highlights: - Innovative Process: The BAWE method uses biochar from agricultural and animal waste to produce hydrogen efficiently at low voltages, bypassing the need for traditional, energy-intensive water splitting at the anode. - High Efficiency: Achieves hydrogen production with a low cell potential of only 0.2 V, and up to 35% solar-to-hydrogen efficiency with single-junction solar cells. - Enhanced Stability: Improvements in biochar properties, such as increased C/O ratio, crystallinity, and smaller particle sizes, enhance oxidation kinetics and prevent common issues like electrode caking. - Sustainable & Renewable: Utilizing solar cell technology, BAWE process efficiently converts biomass into hydrogen, making significant strides towards a cleaner, more sustainable energy future. This innovation not only reduces carbon emissions but also provides a viable solution for utilizing agricultural waste. This new research is from Nishithan C. Kani, Rohit Chauhan, Samuel A. Olusegun, Ishwar Sharan, Anag Katiyar, David W. House, Sang-Won Lee, Alena Jairamsingh, Rajan R. Bhawnani, Dongjin Choi, Adam C. Nielander, Thomas F. Jaramillo, Hae-Seok Lee, Anil Oroskar, Vimal C. Srivastava, Shishir Sinha, Joseph A. Gauthier and Meenesh R. Singh. Check out their full research paper in first comment. #GreenHydrogen #SustainableEnergy #RenewableEnergy #Innovation #Biochar #SolarEnergy #HydrogenProduction #CleanTech #Research #Collaboration #FutureOfEnergy #GreyB

Governments worldwide are accelerating the green hydrogen economy, addressing the energy-intensive process of hydrogen extraction from natural gas for ammonia production. Innovations in extracting hydrogen from water using carbon-free electricity, resulting in green ammonia, present sustainable solutions for agriculture and alternative fuels. Government initiatives and investments are crucial to overcoming the economic challenges and establishing the necessary infrastructure for widespread adoption. #GreenHydrogen #Sustainability #RenewableEnergy #CleanTech #EnergyTransition #ClimateAction #GreenEconomy #Innovation #SustainableAgriculture #HydrogenEconomy #AlternativeFuels #GovernmentPolicy https://lnkd.in/gKEWzUii

Exciting Breakthrough in Green Hydrogen Production! Engineers at the University of Illinois Chicago have pioneered a revolutionary method to produce hydrogen gas from water using only solar power and agricultural waste, such as manure or husks. This new technique reduces the energy needed by 600%, opening doors to sustainable and climate-friendly chemical production. Hydrogen fuels are promising for clean energy, but traditional production is energy-intensive. The new process, detailed in Cell Reports Physical Science, uses biochar to lower the electricity needed for electrolysis, significantly cutting greenhouse gas emissions. This groundbreaking technology could make hydrogen production more efficient and eco-friendly. It not only utilizes biowaste effectively but also offers farmers a sustainable energy solution and potential new revenue streams. #CleanEnergy #GreenHydrogen #SustainableTech #Innovation #UIC #RenewableEnergy https://lnkd.in/ggiBufXm

🌍 How is waste being transformed into energy with the VAL2H2 project? #VAL2H2 #GreenHydrogen #CircularEconomy #CatalyticPyrolysis #AlcoholicFermentation #RenewableEnergy #Sustainability #WasteBiomass. 🔋 1) Introduction to the VAL2H2 Project: As a hydrogen expert, I see in the valorization of organic waste a crucial opportunity for the energy transition. The VAL2H2 project, which investigates the production of hydrogen from waste biomass, is particularly interesting because it fosters the circular economy by harnessing a resource that would otherwise end up in landfills. 🔧 2) Innovative Technologies: This project not only seeks to produce green hydrogen, but is also developing innovative technologies such as catalytic pyrolysis and alcoholic fermentation to convert organic waste into a clean energy source. The project's decentralized approach is key to producing hydrogen locally from local waste, thereby reducing dependence on transportation and distribution infrastructure. 🌱 3) Decentralized Production: By producing hydrogen locally from local waste, we can improve the efficiency and sustainability of the system. In addition, we are researching advanced hydrogen purification technologies, such as palladium membranes and improved water gas shift reactors, to obtain high purity hydrogen. 🔬 4) Cryogenic Storage: Hydrogen storage is another crucial aspect. We are developing cryogenic storage prototypes, optimizing materials and insulation systems to minimize losses. 📊 5) Circular Economy and Sustainability: This project will not only contribute to the technological development of the hydrogen sector, but will also demonstrate the feasibility of producing green hydrogen from local and renewable sources. The future of hydrogen lies in innovation and sustainability, and the VAL2H2 project is an important step towards a cleaner and more efficient energy system. 🤔 Let's reflect: what impact do you think hydrogen production from organic waste will have on the energy transition and what challenges do you see in its implementation? Share your ideas and comments! BLOG: https://lnkd.in/d9t2YMQg Jose Maria Sanchez Hervas; Teresa de la Torre, PhD; Albert Mitjà Moyano; Martí Biset Peiró

A new catalyst material known as cobalt phthalocyanine, has been developed by Researchers at the University of Michigan. This innovative new material works through converting carbon dioxide into renewable fuels, for example, methanol. Converting carbon dioxide into methanol on an industrialised scale has, so far, been proven to be a challenge, however this breakthrough appears to have the required potential. The article below depicts a new idea which looks at turning waste Co2 into useful chemicals. They are useful as they can be used as fuels, which highlights how this conversion is beneficial to multiple industries and to the environment. Interested in attending the world’s largest conference dedicated to Carbon Capture? Sign up to our newsletter to keep updated. Register here: https://lnkd.in/esxUFHy Want to know about the Carbon Capture Technology Expo and which companies are attending? Visit our website here: https://lnkd.in/gRK-RHtK #Carbon #CarbonCapture #Hydrogen #BlueHydrogen #CarbonCaptureTechnologyExpoEurope #CCTE2024

Going around during Easter? Drove an electric car? Did you know that Bruker is helping researchers find a sustainable and safe way to produce lithium-ion batteries for electric vehicles? 🔋🚗 For example, to investigate the potential of obtaining electrolytes suitable for use in lithium-ion batteries from biomass and agricultural waste to reduce the depletion of natural resources, researchers used Bruker’s advanced #NMR & #FTIR spectrometers to characterize the structure and properties of fluorine-free #electrolytes derived from biomass and agricultural waste. This assists the researchers in developing thermally and electrochemically stable fluorine-free electrolytes in a cost-effective, environmentally friendly and sustainable process. Read more: https://lnkd.in/ekaHR74Z #BatteryManufacturing #Battery #Sustainability #Bruker

Biochar is regarded by many as a promising negative emissions technology and an important tool in the fight against climate change. It is formed by the pyrolysis of biomass under low-oxygen conditions, which generates a highly stable form of carbon, predicted to persist in the soil for hundreds to thousands of years. Due to its porous structure, extended surface area, and retention capacity, biochar has also been proposed as an efficient water and soil remediator, with potential benefits for crop production. The impact of biochar is however still controversial. Studies have shown that its properties can be highly dependent on the type of originating biomass and production methods, suggesting it is possible to tailor biochar for different purposes. This Collection aims to highlight the benefits and drawbacks of biochar and welcomes original research on biochar production and applications towards a sustainable environment: https://lnkd.in/eCxYnaFN

In fact, replacing fossil energy sources—such as burning natural gas—with Green Hydrogen in high-heat processes within the Aluminium Industry is a technically viable option for reducing the carbon footprint of both primary and secondary aluminium production. However, implementing Green Hydrogen on an industrial scale requires managing costs effectively. This entails ensuring that electricity is generated from renewable sources at competitive prices—a challenging feat. Additionally, the complexities and costs of transporting Green Hydrogen underscore the need for accessible, clean, and affordable electricity near aluminium facilities. In summary, while Green Hydrogen holds promise for reducing the industry’s carbon footprint, companies aiming for aluminium production with emissions below 4 tCO2/t Al must meet specific criteria: operating Aluminium Smelters with 100% renewable electricity and producing Green Hydrogen at a competitive cost.    These prerequisites pose significant challenges for many companies, demanding careful site selection for implementation. GREEN HYDROGEN IN THE SHORT TERM, ...., HOW TO ACHIEVE IT?: https://lnkd.in/eGvzanRd #greenhydrogen #greenaluminium