Exciting Announcement: Introducing Chemical Engineering and Management (CEM) Program!!!
We are thrilled to announce a transformation within our program in Chemical and Process Engineering (CPE). In line with the evolving landscape of the industry and the growing demand for versatile skill sets, we are excited to introduce the new Chemical Engineering and Management (CEM) Program!
What’s New? Our CEM program is not just a change in name but a refreshed curriculum designed to equip aspiring engineers with a comprehensive skill set that combines chemical engineering principles with essential management expertise. We are integrating various management elements into our curriculum to offer a holistic educational experience that prepares graduates to excel in technical and managerial roles.
Benefits of the CEM Program:
Diversified Skill Set: By enrolling in our CEM program, students will gain a multifaceted skill set that combines technical proficiency in chemical engineering with strategic management acumen. This blend of expertise will make our graduates highly adaptable and sought after in today’s competitive job market.
Enhanced Career Opportunities: In addition to mastering core engineering principles, students will develop crucial management skills such as leadership, project management, and strategic decision-making. This broader skill set opens doors to a wide range of career opportunities across various industries, from traditional engineering roles to leadership positions in multinational corporations.
Industry-Relevant Curriculum: Our revamped curriculum is carefully crafted to reflect the current needs and trends of the industry. By integrating management elements, we ensure that our graduates are equipped with the knowledge and skills that are highly relevant and in demand by employers worldwide.
Networking and Collaboration: The CEM program fosters collaboration and networking opportunities among students from diverse backgrounds. Through group projects, case studies, and industry partnerships, students will have the chance to collaborate with peers and professionals, building valuable connections for their future careers.
Join Us: Are you ready to embark on a transformative journey that blends the best of engineering and management? We invite you to join us in our Chemical Engineering and Management (CEM) Program and unlock your full potential in the dynamic field of chemical engineering.
Course Description of the new CEM master’s program
Application of thermodynamics in chemical industries. Chemical and phase equilibrium of heterogeneous closed and open systems. Statistical Mechanics and background of equations of state and GE models. Application of equations of state to industrial uses. Experimental determination of thermodynamic properties. Modelling of thermodynamics properties. Molecular
Simulation of chemical system.
This hands-on course is designed to provide Master's degree students with a comprehensive understanding of heterogeneous kinetics and catalysis, exploring the fundamental principles, practical applications, and experimental techniques in the field. Heterogeneous catalysis plays a
pivotal role in various industrial processes, environmental remediation, and energy conversion technologies. Through a combination of lectures, laboratory sessions, and practical exercises, students will delve into the underlying mechanisms governing surface reactions, catalyst design, and optimization strategies. By the end of this course, students will have gained a deep
understanding of heterogeneous kinetics and catalysis, along with practical skills essential for pursuing research or careers in academia, industry, or government agencies.
Transport problems involving momentum, heat, and mass transfer in chemical engineering and process engineering application. Conservation of momentum, heat, and mass transfer in laminar and turbulent flow in microscopic approach. Equations of change for multi-component
systems including charge. Steady and transient simultaneous heat and mass transfer. Interfacial stability. Determination of transport properties. Computer Fluid Dynamics Simulation.
This advanced course is tailored for aspiring and practicing chemical engineers seeking a comprehensive understanding of the critical processes involved in evaluating the techno-economic feasibility and conducting due diligence for chemical engineering projects. The course
combines theoretical principles with practical applications to equip participants with the skills and knowledge required to make informed decisions in the dynamic and competitive landscape of chemical engineering.
In business landscape, chemical engineers play a crucial role not only in developing innovative technologies but also in translating these advancements into viable and sustainable business opportunities. This course is designed to equip chemical engineering professionals with the skills necessary to bridge the gap between technical expertise and entrepreneurial acumen.
Students will explore the principles of business canvas development, a strategic tool used to articulate, evaluate, and refine business models.
Utilize knowledge to solve or analyze engineering problems that occur in a factory, as well as to
work in an industrial environment. Students must write a working report summarizing their jobs
and outcomes.
Advanced design strategies for separation processes with the following topics: Advantage of integrating unit operation, Reactive distillation, Reactive extraction, Liquid-membrane extraction, Chromatography, Simulated moving bed chromatography.
This course provides an in-depth exploration of energy technology and energy management within the context of chemical engineering. It covers fundamental principles of thermodynamics, energy conversion processes, and energy efficiency improvement in the chemical industry. Additionally, the course delves into the production, utilization, and environmental impacts of various energy sources, including fossil fuels, clean fuels, and renewable energy, including fuel cells, bioenergy, solar energy, and wind energy. Students will gain the knowledge and skills
needed to analyze, optimize, and implement energy-efficient practices in chemical processes and systems.
This course is designed to provide students with a comprehensive understanding of the
principles, technologies, and applications associated with biorefinery systems. Biorefineries play a crucial role in sustainable development by integrating biological and chemical processes to convert biomass into a wide range of valuable products, including biofuels, biochemicals, and biomaterials. The course will cover fundamental concepts related to biomass feedstocks, biorefinery platform technologies, and the utilization of renewable resources for the production of energy and high-value products. Emphasis will be placed on exploring various biorefinery pathways, such as thermochemical, biochemical, and hybrid processes, and their integration
into existing industrial frameworks.
Process invention heuristics and analysis including process synthesis, process simulation,
process optimization, cost analysis and estimation, controllability analysis, environmental protection and safety considerations.
This course integrates chemical product design principles with essential project management and business-related concepts. Students will explore the categories of products in chemical engineering, understand the steps in chemical product design, apply product design principles to practical problems, and delve into the broader aspects of project management and business considerations.
ALecture by experts, studies, seminar and/or individual investigations in selected or specific areas of chemical engineering, including the topics concerning the new or advanced knowledge in chemical engineering.
Lecture by experts, studies, seminar and/or individual investigations in selected or specific areas of chemical engineering, including the topics concerning the new or advanced knowledge in chemical engineering.
