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Muhammad Irfan

Chemical Engineer

Call: +8613512199818 | +923016450990

Email: mirfanchem876@gmail.com

LinkedIn: https://www.linkedin.com/in/muhammad-irfan-3ab86232a

 

 

Welcome to my professional portfolio. I am a dedicated chemical engineer currently pursuing a Ph.D., with over four years of diverse industry experience, complemented by my ongoing role as a research assistant at East China University of Sciences and Technology for more than 1.5 years.

My professional journey bridges industry challenges and academic exploration, driven by a commitment to sustainability and innovation. I’ve held positions in pharmaceutical and agrochemical industries as a Lab Engineer, Assistant Manager, and Quality Engineer, where I played pivotal roles in optimizing processes, maintaining stringent quality standards, and enhancing operational efficiency.

My academic background includes a Master’s in Chemical Engineering and advanced research focusing on sustainable practices and cutting-edge chemical engineering solutions. Over the years, I’ve contributed to impactful publications, addressing topics such as zinc-coated urea fertilizers, nanotechnology in food science, and environmental sustainability. Alongside my research, I have participated in various international conferences, reinforcing my commitment to advancing chemical engineering on a global scale. This site showcases my journey, highlighting my professional achievements, ongoing research, and my unwavering dedication to solving real-world challenges in both academia and industry.

Project 1

As a research assistant, I am currently engaged in an advanced project focusing on the development of PVDF/PES (Polyvinylidene Fluoride/Polyethersulfone) composite membranes, specifically designed for wastewater treatment applications.

 

My work involves the fabrication and optimization of both hollow fiber and flat sheet membranes, targeting improved performance in filtration processes. The core objective of this research is to address the critical issue of membrane fouling, a major challenge in wastewater treatment systems. By employing a combination of PVDF, known for its excellent mechanical properties and chemical resistance, and PES, valued for its superior hydrophilicity and thermal stability,

 

I am working to create membranes with enhanced anti-fouling capabilities. The project integrates advanced techniques such as phase inversion for membrane casting, pore size control, and surface modification, aiming to reduce biofouling, scaling, and organic fouling in long-term operation. This research holds significant potential for the wastewater treatment industry, as the reduced fouling in these membranes can lead to higher efficiency, lower maintenance costs, and prolonged membrane lifespan. Through careful experimentation and analysis,

 

I am striving to contribute to more sustainable and efficient wastewater management solutions, leveraging cutting-edge membrane technology.

Project 2

In addition to my work on PVDF/PES composite membranes, I am actively involved in a research project focused on developing carbon-based Polypropylene (PP) foams.

 

This project aims to explore the potential of incorporating carbon materials, such as carbon black, carbon fibers, and activated carbon, into the PP matrix to enhance its properties. Polypropylene, widely used due to its lightweight and versatile properties, often faces limitations in mechanical strength and thermal stability. By integrating carbon-based fillers,

 

I am working on improving the electrical conductivity, thermal insulation, and electromagnetic interference (EMI) shielding properties of these foams. The research employs advanced techniques like foam extrusion and chemical blowing agents, which promote uniform cell structure and improve the foam’s overall performance. Additionally, by using Dicumyl Peroxide (DCP) as a crosslinking agent, the project targets further enhancement in the foam’s mechanical properties and durability.

 

This project is highly technical and research-oriented, as it not only addresses the need for lightweight, high-performance materials in industries such as automotive and packaging but also explores sustainable solutions by optimizing the use of carbon-based materials. Through experimental analysis and testing, this research could lead to innovative applications where enhanced thermal and electrical properties are critical, pushing the boundaries of traditional polymer foam technology.

© Engr. Muhammad Irfan 2024. All Right Reserved.

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