Nanotechnology researchers, based at Deakin University's Institute, claim to have found a super-efficient way to mechanochemically trap and hold gases in powders, with potentially enormous and wide-ranging industrial implications. They have made a potentially game-changing discovery in the production, storage and transport of hydrogen: powdered hydrogen. Mechanochemistry is referring to a chemical reactions that are triggered by mechanical forces as opposed to heat, light, or electric potential differences. In this case, the mechanical force is supplied by ball milling – a low-energy grinding process in which a cylinder containing steel balls is rotated such that the balls roll up the side, then drop back down again, crushing and rolling over the material inside. Some Interesting points about this process: · The boron-nitride powder which is been used as a absorbent, can be re-used multiple times to carry out the gas separation process and storage again and again. · There is no process wastes. This process doesn’t require any harmful chemicals nor produces any by-product. Boron-nitride is also classified as a level 0 chemical, something that is perfectly safe to have in house. This means we can store hydrogen anywhere and use it whenever we need it. · Current way of storing hydrogen is in a high-pressure tank, or by cooling the gas down to a liquid form. Both process large amount of energy and harmful chemicals. This mechanochemical process doesn’t require high pressure or low temperature to store hydrogen, which makes it a safer and cheaper process than traditional methods. With their current research, the research team has been able to test their process on a small scale, separating about two to three litre of material. But they hope that with the help of industry they can scale up to a full pilot and they have submitted a potential patent application for their process. #hydrogen #storageandtransportation #sustainability #greenenergy #cleanenergy
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Science ❤️ A major breakthrough in AC synthesis!!!The New technology of synthetic electrochemistry is one of the top ten emerging technologies in chemistry for 2023 assessed by the International Union of Pure and Applied Chemistry (IUPAC). Because of its green, safe and low energy consumption characteristics, the new synthetic electrochemical technology is expected to develop into a new quality of productivity, which is used to solve the current environmental pollution, safety production risks and high energy consumption problems caused by the current productivity driven by fossil energy. This new synthesis technology mainly uses direct current (DC) as the driving force and controls the chemical reaction process by adjusting the current or voltage. Alternating current (AC) is characterized by polarity reversals and periodic fluctuations, and has the advantage of more adjustable electrical parameters such as waveform, frequency, duty cycle, and so on, offering "unlimited potential" for precise material manufacturing. However, the introduction of more dimensional electrical parameters into the electrochemical synthesis reaction leads to an exponential increase in the optimizable reaction conditions, which greatly increases the research difficulty. So far, AC synthesis technology is still in its infancy, and only a few simple application studies have been reported.
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The Myth Behind Small Things with Novel Applications Abstract Nanomaterials, which are extremely small and ubiquitous, can exhibit exceptional physicochemical properties that make them suitable for detecting analytes in actual samples or bio-systems. The unique properties of these miniaturised materials confer far-reaching benefits as a way of offering innovative solutions that mere conventional analytical methods cannot achieve in many fields. My Inaugural lecture presents research findings on synthesising, characterising, and applying nano-based materials through chemical and green-mediated synthesis to elucidate this concept. Also, it focuses on various aspects of materials science, which seek to unravel the development of susceptible and successfully fabricated electrochemical sensors for detecting biological analytes, adulterants, environmental pollutants and heavy metals in real-life samples. In a bid to find innovative solutions to environmental issues, the potential of green synthesis methods which are environmentally friendly with multiple applications, uses electrochemical-based sensors for detecting neurotransmitters (dopamine, serotonin, epinephrine, ascorbic, uric, aflatoxin B1 (AFB1), bromate, heavy metals such as lead, and copper, organochlorine pesticides, polyaromatic hydrocarbon and adulterants such as sunset yellow, caffeine and Lidocaine in different food products, biological, pharmaceutical, and water samples. Overall, my lecture spans diverse areas of materials science, electrochemistry, environment, and nanotechnology, which have implications for sensor development, environmental protection, the food industry and sustainable materials synthesis. Keywords: Sensor, Electrochemistry, Nanomaterials, Biological analytes, Adulterants, Environmental pollutants, Heavy metals
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🏫Do you think the gap between academic research and industrial needs in PEM electrolysis is holding back progress? 🏭The authors of this Nature Nanotechnology article (https://lnkd.in/ewGbjXUG) certainly think it is and have some great suggestions.🚀 Here are my take home points from this article: 🔬 Academia focuses heavily on reducing noble metals in catalysts, while Good catalysts don't always make good electrodes - utilization of the catalyst and ink properties matter in real-world applications. ⚡ Adapting to fluctuating renewable energy sources is a key industrial challenge that needs more academic attention. Great to see Finn Tierney working in this direction in GECOS group. ⏳ Stability testing timelines differ greatly between academia and industry, leading to mismatched expectations. 🔍 Scale-down approaches can be as valuable as scale-up for solving real-world problems.
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Recovery of matrix from thermosetting composites( by chemical recycling): A Comprehensive Review 1 Abstract Keywords: Thermosetting composites, matrix recovery, recycling, sustainability, mechanical properties. 2 Introduction 3 Challenges in Recycling 4 Methods 4.1 Mechanical Recycling 4.2 Thermal Recycling 4.3 Chemical Recycling(main focus) 4.4 Hybrid recycling 5 Emerging Technologies(focus on it also) 6 Evaluation of Recovered Matrix Materials 7 Future Perspectives(focus on it) 8 Conclusion 9. References Good Evening Boss,We are working 💪 This Project and this Research will be completed soon. Saptarshi Mukherjee-Department of Nanotechnology and Chemical Engineering (Industrial Research project)
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We are happy to invite the quality and concern Book chapter in our next Book entitled "HYBRID BIOACTIVE NANOPARTICLES: Fabrication, Performance and Industrial Applications, on the platform of Jenny Stanford Publisher. This comprehensive handbook will delve into the world of sustainable nanotechnology. This proposed book would envision the urgent need for eco-friendly alternatives in the synthesis and utilization of nanoparticles to address the growing need for sustainable and environmentally friendly approaches. By exploring innovative methods of creating nanoparticles using biocompatible materials, plant extracts, and other renewable resources, towards showcasing their practical applications in diverse fields. This handbook will aspire to be a corner-stone resource in the evolving landscape of nanotechnology. Query & abstract submission: [email protected] Lovely Professional University LPU School of Chemical Engineering and Physical Sciences New Jersey Institute of Technology DTU - Technical University of Denmark University of Johannesburg University of Johannesburg: Library All India Council for Technical Education (AICTE) University Grants Commission (UGC) Office of the Principal Scientific Adviser to the Government of India Government of Uttar Pradesh
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🌞 Researchers have found a way to super-charge the ‘engine’ of sustainable fuel generation – by giving the materials a little twist. 🔋 The researchers, led by the University of Cambridge, are developing low-cost light-harvesting semiconductors that power devices for converting water into clean hydrogen fuel, using just the power of the sun. These semiconducting materials, known as copper oxides, are cheap, abundant and non-toxic, but their performance does not come close to silicon, which dominates the semiconductor market. However, the researchers found that by growing the copper oxide crystals in a specific orientation so that electric charges move through the crystals at a diagonal, the charges move much faster and further, greatly improving performance. Tests of a copper oxide light harvester, or photocathode, based on this fabrication technique showed a 70% improvement over existing state-of-the-art oxide photocathodes, while also showing greatly improved stability. The researchers say their results, reported in the journal Nature, show how low-cost materials could be fine-tuned to power the transition away from fossil fuels and toward clean, sustainable fuels that can be stored and used with existing energy infrastructure. “Something about that diagonal direction in these materials is magic,” said Professor Sam Stranks from the Cambridge University Department of Chemical Engineering and Biotechnology. Learn more about their process 👇 #AdvancedMaterials #Energy #Fuel #CambridgeUniversity #CambridgeUni #Cambridge #UniversityOfCambridge
A simple ‘twist' improves the engine of clean fuel generation
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Researchers at the Southern University of Science and Technology and other academics have made significant advancements in seawater electrolysis, specifically in developing a more stable nickel-iron alloy electrode. This innovation holds the potential to produce hydrogen gas sustainably and more efficiently. The technique faces challenges like chlorine oxidation reactions, anode degradation due to chloride ions, and expensive catalysts. To overcome these, the team has tapped into a promising solution using a nickel-iron (NiFe) compound, known for its activity and cost-effectiveness, combined with a wood-based carbon structure that enhances conductivity. Professors Chen Hong, Ni Bingjie, and Shao Zongping have introduced an innovative method, incorporating tungsten into the nickel-iron alloy, significantly enhancing the anode's corrosion resistance and stability for seawater electrolysis. Their creation, a W-doped nickel iron sulfide electrode supported by wood-based carbon, exhibits improved conductivity and efficiency due to its three-dimensional porous structure. This electrode excels in oxygen and hydrogen evolution reactions within alkaline seawater, outperforming standard catalysts in activity and stability, making it a cost-effective solution for seawater electrolysis. The study showcases the potential of utilizing wood waste-derived carbon structures in advanced electrochemical devices and emphasizes the importance of sustainable green hydrogen production methods.
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Recovery of matrix from thermosetting composites( by chemical recycling): A Comprehensive Review 1 Abstract Keywords: Thermosetting composites, matrix recovery, recycling, sustainability, mechanical properties. 2 Introduction 3 Challenges in Recycling 4 Methods 4.1 Mechanical Recycling 4.2 Thermal Recycling 4.3 Chemical Recycling(main focus) 4.4 Hybrid recycling 5 Emerging Technologies(focus on it also) 6 Evaluation of Recovered Matrix Materials 7 Future Perspectives(focus on it) 8 Conclusion 9 References Mtech Nanotechnology/Mtech Chemical Engineering It's a Industrial Research project
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#AminatedGrapheneOxidePowder (DETA Modified) Product Code: 104555 CAS Number: 7440-44-0 Packaging: 500 mg Storage Conditions: Store at room temperature in a dry, light-protected environment Specifications: Quantity: 500 mg DETA Grafting Ratio: ~3.24% Shelf Life: 180 days Stock: 1 unit available, 3-5 business days delivery Overview of the Product Aminated graphene oxide powder (DETA modified) refers to graphene oxide that has been modified with diethylenetriamine (DETA), introducing amino functional groups to the graphene surface. DETA is a polyamine compound, and the modification enhances the chemical reactivity of graphene oxide, enabling it to interact with other molecules and materials more effectively. Technical Specifications: DETA Grafting Ratio: ~3.24% Packaging: 500 mg Appearance: Black powder Product Features Enhanced Chemical Reactivity: The introduction of DETA's amino groups increases the chemical reactivity of graphene oxide, facilitating further functional modifications and enabling stronger interactions with other materials. Improved Dispersibility: DETA modification enhances the dispersibility of graphene oxide in both aqueous and organic solvents, making it more suitable for applications in various fields. Versatility: Due to its enhanced chemical functionality, this modified graphene oxide can be used in a wide range of applications, including materials science and environmental protection. Applications Composite Materials: Used as a nanofiller to improve the mechanical, thermal, and electrical properties of composite materials. Coatings and Inks: Suitable for high-performance coatings and inks, providing enhanced properties like wear resistance and conductivity. Biomedicine: Potentially applicable in drug delivery systems and biosensors, due to its improved biocompatibility from the amino modification. Environmental Applications: Can be used in water treatment and other environmental remediation processes due to its enhanced adsorption properties. This product offers flexibility for use in advanced materials research and applications. Let me know if you need additional information. [email protected] https://lnkd.in/gd_BgBKf
Graphene: From Lab to Commercialization, When Will It Shine in the Market? - [email protected]
https://graphenerich.com
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We selected six appealing papers for this edition of our Scientific Highlights, reflecting the broad scope of research at out institute. #HIMSSciHigh 1. THE THREE PARADIGMS OF SUSTAINABLE CHEMISTRY Chris Slootweg presents an integrated view of a fully sustainable future chemistry by bringing together the three underlying paradigms: green chemistry, circular chemistry, and safe-and-sustainable-by-design (SSbD). Journal: One Earth Read more: https://lnkd.in/eW4EzU6Z 2 HOW A FORMYL GROUP MAKES MOLECULAR MOTORS MORE EFFICIENT With advanced time-resolved laser spectroscopy and quantum chemical calculations, Molecular Photonics researchers contributed to the development of more efficient molecular motors in the group of Nobel laureate Ben Feringa (University of Groningen). Journal: Nature Chemistry Authors: Jinyu Sheng, Wojciech Danowski, Andy Sardjan, Jiaxin Hou, Stefano Crespi, Alexander Ryabchun, Maximilian Paradiz Domínguez, Wybren Jan Buma, Wesley Browne, Ben L. Feringa Read more: https://lnkd.in/eE_Rqirp 3 HOW CAN RENEWABLE SYNGAS BECOME COST-COMPETITIVE IN 2050? Research in Sustainable Energy Technology shows that syngas can be replaced by renewable H2 and/or CO in essentially all industrial applications. For the majority, this will be cost competitive when natural gas prices are at least around 3 €/GJ, and carbon taxes increase from 90 €/tCO2 today to 300 €/tCO2 in 2050. Journal: ChemSusChem Authors: Remko Detz, Marit Beerse, Nicole Meulendijks, Pascal Buskens, Bob van der Zwaan Read more: https://lnkd.in/dNuMv24g 4 EFFICIENT AND RAPID CROSS-COUPLING OF ARYL BROMIDES WITH ALKYL BORANES In a cooperation between the groups for Flow Chemistry and Homogeneous, Supramolecular and Bio-inspired Catalysis, a novel metallo-photocatalytic procedure was developed to couple aryl bromides with alkyl boranes, derived from abundantly available olefins with high regioselectivity. Journal: Nature Communications Authors: Ting Wan, Luca Capaldo, Jonas Djossou, Angela Staffa, Felix de Zwart, Bas de Bruin, Timothy Noel. Read more: https://lnkd.in/e7NdmtDS 5 NOVEL MS HYPHENATED SEPARATION METHODS FOR COMPLEX MIXTURES OF PEPTIDES AND PROTEINS The Separation and Mass Spectrometry group published two articles describing the use of advanced separation methods to study complex mixtures of peptides and proteins. One paper describes an advanced 2D LC method, and the other reports on nanoflow native ion exchange. Journal: Analytical Chemistry Authors: Rick van den Hurk, Bart Lagerwaard, Nathan Terlouw, Mingzhe Sun, Job Tieleman, Anniek X. Verstegen, Saer Samanipour, Bob Pirok, and Andrea Gargano (paper1) Ziran Zhai, Despoina Mavridou, Matteo Damian, Francesco Mutti, Peter Schoenmakers, and Andrea Gargano (paper2) Read more: https://lnkd.in/ejExtsBq
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