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Hello! I'm excited to share findings from our recent survey on biocatalyst understanding among students from various backgrounds, which was carried out as part of our project in the Biocatalyst subject, led by Dr. -Ing Amizon Azizan. Biocatalysts, primarily enzymes derived from living organisms, catalyze specific reactions with high efficiency and selectivity. They are used in various industries including pharmaceuticals, food production, and biofuels, offering environmentally friendly alternatives to traditional chemical processes. Biocatalysts combines biology, chemistry, and engineering to develop sustainable and efficient technologies (Kuo et al., 2022). The survey, administered via Google Forms to students from diverse fields, covered a broad spectrum of biocatalyst topics. The findings revealed a notable awareness of biocatalysts among respondents, highlighting the influence of their educational backgrounds. Let's explore the impact of interdisciplinary knowledge on biocatalysis! Here is the list of references I consulted when completing the survey: 1. Bisswanger, H. (2014). Enzyme assays. Perspectives in Science, 1(1–6), 41–55. https://lnkd.in/gHvHZgVm 2. Intasian, P., Prakinee, K., Phintha, A., Trisrivirat, D., Weeranoppanant, N., Wongnate, T., & Chaiyen, P. (2021). Enzymes, in Vivo Biocatalysis, and Metabolic Engineering for Enabling a Circular Economy and Sustainability. In Chemical Reviews (Vol. 121, Issue 17, pp. 10367–10451). American Chemical Society. https://lnkd.in/g-vwW8bn 3. Kuo, C. H., Huang, C. Y., Shieh, C. J., & Dong, C. Di. (2022). Enzymes and Biocatalysis. In Catalysts (Vol. 12, Issue 9). MDPI. https://lnkd.in/gWm6mcGB 4. Nikulin, M., & Švedas, V. (2021). Prospects of using biocatalysis for the synthesis and modification of polymers. In Molecules (Vol. 26, Issue 9). MDPI AG. https://lnkd.in/gyRWc5dC 5. Rocha, R. A., Speight, R. E., & Scott, C. (2022). Engineering Enzyme Properties for Improved Biocatalytic Processes in Batch and Continuous Flow. In Organic Process Research and Development (Vol. 26, Issue 7, pp. 1914–1924). American Chemical Society. https://lnkd.in/gpANekbg 6. Wackett, L. P., & Ellis, L. B. M. (2009). Biodegradation Database and Prediction, Microbial. #biocatalyst #chemicalengineering #surveyresults #uitmshahalam

I am thrilled to share that recently, I published the article: Development of a Non-Covalent Molecularly Imprinted Polymer via Precipitation Method for the Selective Separation of D-Xylose From Sugarcane Residues!🎉 This work was developed during my master’s studies and reflects months of dedication, learning, and collaboration. The research focuses on the development of biomimetic polymers for the selective separation of D-xylose, aiming to valorize sugarcane residues. I want to express my heartfelt gratitude to my co-authors, Ademar Wong, Weida Rodrigues Silva, and Profa. Dra. Maria del Pilar Taboada-Sotomayor, for their invaluable contributions, guidance, and support throughout this journey. If you’re interested in this field or have questions about the research, feel free to reach out—I’d be happy to connect and exchange ideas!🌱🔬 #Research #ScientificPublication #Sustainability #Polymers #Chemistry #BiomassValorization #AcademicJourney"

Introduction to BioCatalyst: Exploring Nature's Catalyst Starting an exciting exploration into the realm of biocatalysts with my inaugural LinkedIn post! Interested in biocatalysts? Let's demonstrate this innovative concept together! A biocatalyst is a substance that accelerates a chemical reaction by modifying specific substances without being consumed by it, acting as a facilitator for faster and more efficient reactions. It is an enzyme that provides sustainable solutions across various industries. Biocatalysis has become a crucial component of contemporary organic synthesis, exerting a substantial impact on academia, as well as the chemical and pharmaceutical sectors. Its effectiveness is due to the quick expansion of chemical reactions, aided by advanced enzyme identification methods and high-throughput laboratory evolution techniques focused on improving biocatalysts. Enhancing decarbonisation by utilizing the transformative capabilities of biocatalysts. Utilizing biocatalysts as natural catalysts leads to sustainable solutions and aids in decreasing carbon emissions. Enzymes can catalyse chemical reactions that transform carbon dioxide into valuable products such as biofuels, bioplastics, and chemicals utilized in industrial processes. We are paving the way for a more environmentally friendly future together. The enclosed poster depicts information about biocatalysts as part of an assignment supervised by Dr. -Ing Amizon Azizan for the Biocatalyst subject. References: - Yokoyama, M. (2018, August 13). What is Biocatalysis? News-Medical. https://lnkd.in/g6UCUjer - all, I. (2022, January 24). Biocatalysis | Enzymatic Catalysis. Mt.com. https://lnkd.in/grcRqzDZ -Catalyst | Examples, Definition, & Facts | Britannica. (2024). In Encyclopædia Britannica. https://lnkd.in/gW4x7maK

I'm excited to announce the publication of our manuscript titled "Review on the Downstream Purification of the Biologically Produced 1,3-Propanediol" in Applied Microbiology: Theory & Technology. This open-access paper is now available for everyone to read at the following link: https://lnkd.in/gsiaxhbw. Our review paper addresses the increasing availability of fermentable carbon sources for 1,3-propanediol (1,3-PDO) production due to the booming biodiesel, oleochemical, and agricultural industries. Despite these sustainable feedstocks, the downstream purification process of the bio-based 1,3-PDO, which accounts for 50-70% of the total production cost, remains a significant challenge for economic viability. Given the complex nature of the fermented broth, the low volatility, and the polar nature of 1,3-PDO, achieving highly purified 1,3-PDO requires multiple refining steps. Our article provides a comprehensive overview of these downstream processes, with a focus on resin adsorption and ion-exchange chromatography as the primary polishing steps. We hope our findings contribute valuable insights to the field and encourage further advancements in biotechnological processes. #Research #Biotechnology #OpenAccess #Microbiology #Publication #Science #Sustainability #IndustrialBiotechnology

One of the main research topics of the Research group for bioprocess intensification from Department of Biotechnology, Faculty of Technology Novi Sad, University of Novi Sad, is development of novel valorization routes for different types of agro-industrial waste/effluents using beneficial microorganisms, thus defining bioprocess solutions for production of wide spectra of microbial value-added products. Our newest study was published in collaboration with colleagues from Department of Food Preservation Enginnering with expertise in development of novel technological processes for fruit and vegetable processing, as well as with research group From Faculty of Sciences, University of Novi Sad, proficient in profiling, recovery and development of application routes for bioactive compounds. If you were interested to find out more on possibilites to recover polyphenols or produce microbial plant biostimulants using strawberry juice production wastewater, the study could be found using the following link: https://lnkd.in/dp94saSG This research was funded by the Provinicial Secretariate for Higher Education and Scientific Research of the Autonomous Province of Vojvodina in the framework of the project “Development of industrial symbiosis in the AP Vojvodina through valorization of fruit processingby-products using green technologies”. Ivana Danilov Vanja Vlajkov, PhD Tatjana Dujković Zdravko Šumić Aleksandra Tepić Horecki Anita Milić Nemanja Živanović Natasa Simin Marija Lesjak

Excited to have completed the 'Industrial Biotechnology' course on Coursera! 🎓 This course deepened my understanding of the applications of biotechnology in industries such as pharmaceuticals, agriculture, and biofuels. Grateful for the opportunity to enhance my skills and knowledge in this dynamic field. #IndustrialBiotechnology #LifelongLearning #BiotechInnovation #Coursera

Sustainable plastics from CO2 with the help of microbes. The new co-research project "e-propane" kicked off within SPIRIT ecosystem led by Borealis with support of Spinverse. The target is to make a Proof of Concept study for a direct CO2-to-propane conversion via genetically engineered microbes (with high yield) and assess requirements for its implementation in bioreactors and the economic competitiveness. Read more about the fascinating project in the article below based on interview with project leader prof. Silvan Scheller from Aalto University + insights by Ismo Savallampi, Borealis Finland and Anni Alitalo, Q Power Oy Partners include also Tampere University, Fortum, Neste, Solar Foods Other research leaders: Marika Kokko, Pekka Oinas, Paula Jouhten Funding from Business Finland #research #collaboration #innovation #ecosystem #sustainability #plasticsindustry #circulareconomy #microbiology #microbes #biotechnology #carbondioxide #emissions #co2 #renewable

Direct Synthesis of High-Purity Benzaldehyde Chemicals Prof. Tierui Zhang and Prof. Run Shi from the Technical Institute of Physics and Chemistry of the Chinese Academy of Sciences have successfully synthesized high-purity benzaldehyde compounds directly from the selective electrooxidation of benzyl alcohol, as described in a study published in Science Advances. Compared to traditional H-type electrochemical cells, the organic-solid-water (OSW) three-phase reaction system has demonstrated unique benefits in lowering ohmic losses and streamlining the procedures involved in product separation and purification. Water is a clean hydrogen and oxygen resource. Hence, electrocatalysis in an aqueous electrolyte has been acknowledged as a green technique for organic redox processes. However, due to the low solubility of many organics in the aqueous phase, most dilution-reaction-purification methods require several steps. As a result, there is still a barrier to the widespread use of electrocatalysis in the organic synthesis community.

Energy-Transfer Enabled 1,4-Aryl Migration Author: ChemistryViews Moving a functional group to a different location in a molecule can be useful in organic synthesis. Aryl group migrations are examples of such functional group translocations. The di-π-methane rearrangement, for example, is a photochemical strategy for moving different functional groups within organic molecules. In this rearrangement, two π-bonds undergo simultaneous migration, leading to the formation of new carbon–carbon bonds and the rearrangement of substituent groups. Visible-light-mediated triplet–triplet energy transfer catalysis (TTEnT) can be used in different photochemical transformations, but its use in rearrangement reactions has been relatively limited so far. Huan-Ming Huang, ShanghaiTech University, China, and colleagues have developed an unprecedented di-π-ethane rearrangement featuring a 1,4-aryl migration promoted by energy transfer catalysis under visible light (general reaction pictured). The team used an iridium-based photocatalyst, ethyl acetate as the solvent, and 450 nm LED light to convert a range of aryl vinyl ethane substrates into the desired substituted cyclopropanes. The products were obtained in mostly good to high yields. The method has a broad substrate scope and good functional group tolerance, and due to the mild reaction conditions, it can be used in the late-stage modification of drugs and natural products. The team performed preliminary mechanistic studies, which provided evidence for the involvement of radical species in the di-π-ethane rearrangement and for an energy-transfer mechanism. Energy‐Transfer Enabled 1,4‐Aryl Migration, Shu-Ya Wen, Jun-Jie Chen, Yu Zheng, Jia-Xun Han, Huan-Ming Huang, Angew. Chem. Int. Ed. 2024. https://lnkd.in/d2iV3Tg9

Yeast Breakthrough Offers Sustainable Protein Source for Agriculture’s Future In a world increasingly focused on sustainability, the quest for alternative carbon sources in industrial biotechnology has taken a promising turn. Researchers from the Department of Biotechnology at Delft University of Technology, led by Marcel A. V https://lnkd.in/esg6Jvrz