NURUL HUSNINA SAIFOL BAHRI’s Post

HOW TO WRITE AN AWARD-WINNING RESEARCH STATEMENT🥇🏆 1. Introduction 📚 Example: I am keen to explore the transformative potential of polymer chemistry in addressing critical challenges in materials science. My primary focus is on developing innovative polymeric materials with enhanced properties for applications in sustainability and biomedicine. This aligns with my academic background and research interests cultivated during my Master’s program at XYZ University. 2. Background and Motivation 🌱 Example: The environmental impact of plastic waste drove my motivation to find sustainable alternatives. This interest deepened during my Master’s thesis on the synthesis of novel biodegradable polymers using green chemistry principles. 3. Research Experience 🔬 Example: • Master’s Thesis at XYZ University: • Project Title: Synthesis and Characterization of Biodegradable Polymers • Summary: Developed a series of biodegradable polymers from renewable resources. Utilized NMR and FTIR for structural analysis and assessed biodegradability using soil burial tests. Published results in the Journal of Polymer Science. 4. Research Objectives 🎯 Example: My research will focus on the following objectives: 1. Synthesis of Biodegradable Polymers: • Develop new synthetic routes for biodegradable polymers using renewable resources. • Example: Designing copolymers with enhanced mechanical properties for packaging applications. 2. Polymer-based Drug Delivery Systems: • Investigate polymer nanocomposites for targeted drug delivery. • Example: Creating nanocomposites with tunable release profiles for cancer therapeutics. 5. Methodology 🛠️ Example: • Synthesis Techniques: • Employ step-growth polymerization and ring-opening polymerization for polymer synthesis. • Example: Use microwave-assisted polymerization to enhance reaction efficiency. • Characterization Methods: • Utilize advanced techniques like NMR, FTIR, GPC, and SEM for polymer characterization. • Example: Conduct thermal analysis (DSC, TGA) to assess polymer stability and degradation. 6. Expected Outcomes and Impact 🌟 Example: The expected outcomes of my research include: • Novel Biodegradable Polymers: • Development of polymers with superior mechanical and biodegradability properties. • Impact: Providing sustainable alternatives to conventional plastics. • Advanced Drug Delivery Systems: • Creation of efficient polymer-based nanocomposites for targeted drug delivery. • Impact: Enhancing the efficacy and safety of therapeutic treatments. 7. Conclusion and Future Directions 🔮 Example: My research in polymer chemistry aims to contribute significantly to sustainable materials science and biomedical applications. By developing innovative biodegradable polymers and advanced drug delivery systems, I hope to address critical global challenges. Looking forward, I plan to expand my research to explore polymer applications in other fields such as renewable energy and electronics.

5 Chemistry Tricks Every IIT JEE Aspirant Should Know The IIT JEE Chemistry section can be both scoring and challenging. A solid grasp of concepts, combined with smart tricks, can give you the edge. Here are five proven techniques to help you ace Chemistry: 1. Master the Mole Concept The mole concept is the foundation of Chemistry. To solve related problems faster: Always convert given quantities into moles. Remember the triangle: Mass = Moles × Molar Mass. Use Avogadro’s number only when explicitly required; avoid unnecessary conversions to save time. Example: For a gas at STP, remember that 1 mole occupies 22.4 L—no need for extra calculations! 2. Use Shortcuts for Periodic Trends Periodic table questions often revolve around trends (atomic radius, ionization energy, etc.): Diagonal Rule: Properties of diagonally related elements in the periodic table are often similar (e.g., Li ↔ Mg, Be ↔ Al). “Z Effect” for Zeff: Across a period, effective nuclear charge increases, so atomic size decreases. These trends save time during multiple-choice questions. 3. Simplify Organic Reactions with Visual Mapping Organic Chemistry can be overwhelming, but reaction mechanisms are easier to understand with these tips: Memorize functional group conversions using a flow chart. Practice key name reactions (e.g., Aldol condensation, Sandmeyer reaction). Shortcut: Look for electron-rich and electron-deficient centers to predict reaction pathways. 4. Physical Chemistry Calculations? Think Formulas! Topics like thermodynamics, chemical kinetics, and equilibrium rely heavily on formulas. Create a formula sheet for quick revision (e.g., ΔG=ΔH−TΔS\Delta G = \Delta H - T\Delta SΔG=ΔH−TΔS). Use approximate values for constants in calculations to save time. For example: R=8.314≈8R = 8.314 \approx 8R=8.314≈8 (where precision isn’t critical). 5. Use Elimination and Approximation in MCQs When you’re unsure about an answer: Eliminate options that are clearly wrong based on units or magnitudes. Use approximation techniques to simplify calculations. Example: If a value like 6.022 × 102310^{23}1023 appears, round it to 102410^{24}1024 during rough estimates. Bonus Tip: Practice is Key None of these tricks will work unless you practice! Use past IIT JEE papers and mock tests to apply these methods. Which of these tricks do you already use? Let me know in the comments!

#SPRINTTESTINGSOLUTIONS! #BETANALYSIS #8655567444 #The BET method is a widely used technique for measuring the surface area and pore size distribution of materials. #Applications: 1. Catalysis: BET is used to characterize the surface area and pore structure of catalysts, which is crucial for understanding their activity and selectivity. 2. Adsorption and separation: BET is used to study the adsorption of gases and liquids on materials, which is important for applications such as gas separation, water purification, and carbon capture. 3. Materials science: BET is used to characterize the surface area and pore structure of materials such as metals, ceramics, and polymers. 4. Pharmaceuticals: BET is used to characterize the surface area and pore structure of pharmaceutical powders, which is important for understanding their behavior and stability. 5. Food science: BET is used to study the surface area and pore structure of food powders, which is important for understanding their behavior and stability. 6. Environmental science: BET is used to study the surface area and pore structure of environmental samples, such as soils and sediments. 7. Nanotechnology: BET is used to characterize the surface area and pore structure of nanomaterials, which is important for understanding their behavior and properties.

I am delighted to share a major milestone in my pursuit of a Bachelor's degree in Metallurgical Engineering—successfully defending my thesis on the innovative reuse of Non-Metal Fraction (NMF) from leached Printed Circuit Boards (PCBs) waste for nanofluids application in collaboration between Universitas Indonesia (UI), Nano Center Indonesia, and Badan Riset dan Inovasi Nasional RI (BRIN RI). This project not only pushes the boundaries of sustainable recycling but also dives deep into unexpected scientific phenomena. While PCBs are a rich source of precious metals like copper and gold, 70% of their composition consists of non-metals—primarily carbon and silica. My research focused on repurposing this NMF or Leached PCB residue as a thermal fluid for quenching applications. By Hydrometallurgical leaching, me and my partner Geildyan Athallah Dwiputra successfully separated 27% of the metal content. However, the real challenge arose when milling the NMF particles to nanometer sizes (<100 nm) as required for nanofluid applications. Here’s where science became interesting. Instead of achieving smaller particle sizes, I observed an increase in size during prolonged milling—a surprising anomaly. This led me to investigate the underlying causes, focusing on the study of evolution of NMF under wet milling using ethanol as a process control agent (PCA). This anomaly, due to the ductile nature of PCB polymers, aligns with Suryanarayana's (2001) theory on material behavior under stress. Challenges included ethanol evaporation from overheating, reducing its effectiveness as a process control agent (PCA) and increasing viscosity, which diminished the milling impact. While the outcome was different from my initial target of achieving particles under 100 nm, the discovery of these phenomena opens up new avenues for optimizing the milling process. Future research should focus on controlling temperature during milling, adjusting the Ball-to-Powder Ratio (BPR) to improve impact energy, and ensuring better PCA stability to prevent particle agglomeration.  A huge thanks to everyone who supported me along this journey, my supervisor dear Prof. myrna ariati , Mr. Wahyuaji Narottama Putra, and Mr. Alfian Noviyanto. My research fellows Geildyan Athallah Dwiputra, Andi Muhammad Athallah, Tiara Dwi Aisha, Daffa Prasetia Putra, Permana Galih Jatnika, and Faris Nurul Fajar Best wishes on your journey guys. As I move forward, I’m eager to explore more sustainable solutions and advance e-waste recycling technology. I’d love to connect with professionals interested in sustainable recycling or nanoparticle research. Let’s collaborate and innovate together to drive advances in e-waste recycling and nanotechnology! #nanotechnology #Advancematerials #metallurgical

Post No # 18 Undergraduate Research Assistant in HV Lab, KFUEIT, Rahim Yar Khan: Molecular chain scission in XLPE Cable Molecular chain scission is the process where the long polymer chains that make up a polymer material break down into smaller segments. This process can occur due to various factors such as mechanical stress, chemical reactions, or exposure to radiation (like high-energy electrons). Here's a detailed explanation: Causes of Molecular Chain Scission: 1. Mechanical Stress: Repeated mechanical loading and unloading can cause the polymer chains to break. This is often seen in applications where the material undergoes cyclic stresses. 2. Chemical Reactions: Exposure to chemicals can lead to reactions that break the bonds within the polymer chains. Oxidation is a common chemical process that can cause chain scission. 3. Radiation: High-energy radiation, such as UV light, X-rays, or gamma rays, can break the bonds in the polymer chains. High-energy electrons can also cause scission, which is particularly relevant in high-voltage cable applications. Effects of Molecular Chain Scission: 1. Reduction in Molecular Weight: The breaking of polymer chains reduces the average molecular weight of the polymer material. This reduction typically leads to a decline in the material’s mechanical strength and durability. 2. Loss of Mechanical Properties: The material becomes more brittle and less able to withstand mechanical stresses. Tensile strength, impact resistance, and elongation at break can all be negatively affected. 3. Decreased Thermal Stability: Polymers with shorter chains have lower thermal stability. This means the material is more likely to degrade at lower temperatures. 4. Increased Electrical Conductivity: In high-voltage cables, chain scission can lead to the formation of conductive pathways. This increases the risk of electrical failures and reduces the insulation properties of the material. Prevention of Molecular Chain Scission: 1. Use of Stabilizers: Adding stabilizers such as antioxidants and voltage stabilizers can help capture high-energy electrons and prevent chain scission. These stabilizers absorb the energy that would otherwise break the polymer chains. 2. Material Blending: Blending polymers with other materials (e.g., nanocomposites) can enhance their overall stability and resistance to chain scission. 3. Protective Coatings: Applying protective coatings can shield the polymer from environmental factors that cause chain scission. Applications and Research: In high-voltage cable insulation, research focuses on adding voltage stabilizers to materials like cross-linked polyethylene (XLPE). These additives help to improve the electrical and mechanical properties of the polymer, extending the service life of the cables. Xiangrong Chen, Orient Cable, Gavin Xia, Muneeb Ahmed, Shakeel Akram, Nazirul Mubin, Jeddah Cables Company, Chen, Dachao Chen, Fast Cables, Azhar Sardar

Topic-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 in Chemical Engineering/Mtech in Nanotechnology/Phd in Chemical Engineering Industrial Research work

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 Industrial Research project Mtech in Nanotechnology/Mtech in Chemical Engineering Students can apply

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 Hurry up interested Nanotechnology inbox me The Layout of Research paper is Ready pls fellow fast 🏃♂️ I want Quick Response Mtech in Chemical or Chemistry Scopus Journal it will be published

https://lnkd.in/gcMNJK8b Now I Will be publishing some articles from my college I got four Research projects I am earning from Research (Rs 18,500 Per Research project as Income) Two Nanotechnology One Space technology One Chemical Engineering Dual Degree in Mtech helps to increase Research Interest Score Funded Research Project 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

16 Marie Curie PhD Positions. NANAQUA offers top-level training to a new generation of high-potential doctoral candidates (DC) in emerging water treatment techniques, providing them with both transferable and scientific skills that are essential for thriving careers in this vital and rapidly expanding field. In this interdisciplinary training through research program, NANAQUA DCs will focus on nano(functionalized) materials that are redefining the possibilities for safe, efficient, and sustainable water treatment solutions. NANAQUA is set to create a tangible impact through a synergistic mix of pioneering doctoral research, intersectoral secondments, international mobility, and cross-disciplinary education. By fostering this dynamic and multifaceted environment, NANAQUA not only aims to advance scientific knowledge but also to cultivate a new generation of innovators motivated to ensure sustainable water resources globally. The challenge Freshwater resources, vital for ecosystems, face risks by contaminants of emerging concern (CECs) originating from human activities, such as endocrine-disrupting compounds (EDCs), per- and poly-fluoroalkyl substances (PFAS) and pharmaceuticals and personal care products. Current limitations Current wastewater treatment systems predominantly rely on biodegradation processes, which, while effective for general organic matter reduction, typically remove less than 40% of CECs. To enhance CEC removal, various Advanced Oxidation Processes (AOPs), including ozone and Fenton’s reaction, have been introduced. These processes generate reactive radicals to break down CECs and can be used alone or in conjunction with biological treatments, potentially reducing effluent toxicity by about 36% across the EU. Nanotechnology has the potential to revolutionize water treatment by providing innovative solutions to filter and degrade harmful contaminants that conventional methods cannot address. The precise manipulation at the molecular level allows for the creation of nanomaterials with tailored properties, such as increased reactivity and selectivity, ideal for targeting specific waterborne pollutants. To advance this field, researchers are focusing on developing more efficient nanocatalysts and integrating smart nanosensors for real-time water quality monitoring. Solutions NANAQUA is set to integrate nanotechnology and nano(functionalized) materials (NMs) into (photo)chemical and biological degradation systems. The unique attributes of these materials enhance the generation of reactive species and effectiveness of advanced oxidation processes (AOPs), enabling a superior degradation of CECs. Concurrently, in biological systems, NMs act as microscale catalysts, boosting the metabolic rates of bacteria and leading to a faster and more complete biodegradation. . IELTS GRE not required. No Application fee. Monthly stipend 10 Lac 65 Hazar Rupees. https://lnkd.in/dz9md2xN