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This study introduces an effective approach for water #decontamination utilizing Fe-Co #PrussianBlue Analogue (PBA) nanospheres immobilized on #biochar. This novel photocatalyst, PBA-on-biochar, exhibits remarkable efficiency in the degradation of chloroquine phosphate via the photo-Fenton process under both LED and sunlight. https://lnkd.in/gP7zy2UG

🚀Join us for an insightful course by Interfaces which was jointly made with different academic institutions and industrial supervisors. 🌟 The "Interfaces", a European Union funded project, focused on establishing multi-step biocatalytic reactions using heterogenized enzymes. These innovative 'heterogeneous biocatalytic reaction cascades' aim to: ✔️Minimize waste generation through catalyst re-use ✔️Simplify and reduce processing steps ✔️Avoid hazardous materials operational modes and reaction mediums for desired yields and products Here you will dive deep into enzymes and biocatalysis,learn how our rotating bed reactor (RBR) technology can enhance your processes, making them faster, smarter, and more efficient. Don't miss this opportunity to expand your knowledge and optimize your processes with the latest in biocatalytic technology! 🔗Follow this link for a FREE course https://hubs.li/Q02z2tZs0 #life-science #Biocatalysis #Enzymes #SpinChem #RBR #SustainableProcesses #InterfacesProject #EuropeanInitiative #ChemicalEngineering #GreenChemistry #chemistry #industrialchemistry

Have you had a chance to check out our recent publications in ACS Omega? https://lnkd.in/eNMM4f77 It provides valuable insight into the use of Bismuth-Based Z-Scheme Heterojunction Photocatalysts for the remediation of contaminated water, the Challenges, and prospects. The article covers bismuth-based semiconductors, synthesis methods, and strategies to improve their efficiency in wastewater decontamination. Additionally, it explores the Z/S scheme junction for photocatalytic degradation of dyes and antibiotics. It will be worth reading the article and referring to it.

#SpecialIssue Open for #Submissions! #Homogeneous and #Heterogeneous Catalytic Oxidation and Reduction #GuestEditor: Dr. Weiwei Wang, Nanjing Tech University Dr. Xiaxi Yao, Changshu Institute of Technology Dr. Wei Chen, Taizhou University 👉Find this #issue at: https://lnkd.in/d9iM9s8D In #Section: #Catalytic Materials 👉Find this #section at: https://lnkd.in/eUb4iEad Looking forward to your contributions! #catalytic #oxidation #reduction #Fenton #Fenton-like #enzyme-like #catalysis #photocatalysis #sonocatalysis #electrocatalysis #piezoelectric catalysis #cocatalysis

New Nature Communications paper exploring electrochemical chlorinations. Thomas Wirth's work at Cardiff University / Prifysgol Caerdydd has focused on researching hypervalent iodine chemistry, advancing sustainable and scalable methods for chlorination. This paper titled: "Electrocatalytic continuous flow chlorinations with iodine(I/III) mediators" published in Nature Communications highlights the use of Vapourtec's Ion electrochemical reactor for rapid screening of different reaction parameters, which was essential for supporting continuous flow chlorination reactions, demonstrating the efficiency of hypervalent iodine(I/III) compounds. Want to find out more? Click here https://lnkd.in/eppgXbKj Sagar Arepally Tuhin Patra Jakob Seitz Thomas Wirth #FlowChemistry #ContinuousFlow

PFAS (Per- and polyfluoroalkyl substances) are widely used for their #water- and grease-resistant properties, but their persistence in the environment and potential #health risks have made their removal from water sources a top priority. The #PFASSELECT project has explored the potential of membrane filtration as a flexible, #energy-efficient solution—whether as a standalone process or in combination with standard treatment methods. Want to learn more? Discover how membrane technology is shaping the future of PFAS removal by reading our leaflet! 🔗 https://lnkd.in/dWccANB8 TECNALIA Research & Innovation TECNALIA Membrane Technology Eindhoven University of Technology CNR-ITM VITO Fraunhofer IKTS Imperial College London Institute of Chemical and Engineering Sciences Helmholtz-Zentrum Hereon Universidad de Zaragoza Aston University University of Montpellier Twente membranes University of Twente EMI Twente BV NX Filtration RTWH Aachen NCSR "DEMOKRITOS" LiqTech POLYMEM SAS Foundation for Research and Technology - Hellas (FORTH) FilaTech Group Rauschert Kloster Veilsdorf GmbH CiaoTech - Gruppo PNO PNO Innovation (Portugal) INNOVATION PLACE ENGIE H2SITE Me-Sep TECNALIA Ventures UNE - Asociación Española de Normalización European Health and Digital Executive Agency (HaDEA) Susana XARÁ #membrane #membranetechnologies #nanomembrane

An exciting and productive week for Noël Research Group as we deposited three papers on #ChemRxiv, showcasing the versatility of flow technology in synthetic organic chemistry: 1)  Our first study introduces a streamlined modular flow platform for synthesizing heteroatom-CF3 motifs. Using readily available organic precursors and cesium fluoride as the fluorine source, we can efficiently produce NCF3(R), SCF3, and OCF3 anions on demand. This approach addresses the synthetic, legislative, and environmental challenges associated with introducing these fluorinated motifs. 🔗 https://lnkd.in/eqV79F6f 2)  Our second paper addresses a long-standing challenge in C-H functionalization by exploring the coupling of volatile alkanes with arenes. In this preprint, we present a practical cross-coupling strategy for (hetero)aryl bromides and gaseous alkanes, utilizing hydrogen atom transfer photocatalysis and nickel catalysis. Flow technology was crucial for precise control over reaction conditions, enabling straightforward reaction optimization, scope expansion, and scalability. DFT studies helped us understand unique experimental observations, identifying oxidative addition as the rate- and selectivity-determining step. 🔗https://lnkd.in/eGB7fTJ6 3)  Our third ChemRxiv contribution introduces a novel modular and automated photoreactor system for light-assisted hydrogenation of carbon dioxide to carbon monoxide or methane. The integration of automation and modularity streamlines the screening of various catalysts and reaction conditions. By selecting the right catalyst, this platform enables on-demand production of carbon monoxide for carbonylative cross-coupling reactions. 🔗https://lnkd.in/eAWEi4YS Check them out – all are open access! We'd love to hear from you if you have suggestions for future work. #flowchemistry #organicchemistry #research #volatilealkanes #crosscoupling #automation #fluorine #sustainable #scaleup

Thrilled to share our latest research on #AmmoniaBorane, among the most used #hydrogencarrier(s). Our team has unraveled the dehydrogenation pathways catalyzed by metal nanoparticles, using experimental techniques and #compchem. Filling this knowledge gap is important for shaping the future of hydrogen storage and utilization and then of #hydrogeneconomy. Curious about our findings and their implications? Read the full paper here: https://shorturl.at/Py95i #MaterialsScience #Research #Hydrogen #Catalysis Università degli Studi dell'Insubria INSTM - Consorzio Interuniversitario Nazionale per la Scienza e Tecnologia dei Materiali Matteo Uboldi @ACSCatalysis

Pleased to share our latest working paper on ChemRxiv: "Multi-Objective Synthesis Optimization and Kinetics of a Sustainable Terpolymer", led by Jin Da Tan and supervised by Ramalingam Balamurugan and Kedar Hippalgaonkar. We employed multi-objective Bayesian optimization to develop a sustainable terpolymer with <50% styrene incorporation that has above room temperature Tg. Our work also derived ternary reactivity ratios using ODEs to understand competing monomer reactivities. Read the full paper: https://lnkd.in/gs8i9rK3 #MaterialsScience #SustainableChemistry #BayesianOptimization #PolymerSynthesis #GreenChemistry #MachineLearning

De Nora historical contribution to the chlor-alkali process is undeniable. Its roots in the chlorine, caustic soda, and potash industry date back to the creation of the earliest commercial diaphragm cells in the 1920s, the first mercury cells in the 1940s, and the development of the very first membrane cell in the 1970s.   Discover more about the science behind the process, the evolution of the technology and De Nora's role in the field by reading the article down below. #chloralkali #electrochemistry #chlorine #science https://lnkd.in/dkAzRZuk