Overview

Chemical engineering sits at the intersection of chemistry, physics, and mathematics, converting raw materials into useful, sustainable products that power global industries. Students pursuing the BEng (Hons) Chemical Engineering at the University of Sheffield learn to design, scale up, and optimize processes that drive technological innovation. The curriculum integrates foundational engineering principles with active hands-on training using state-of-the-art pilot-scale equipment in modern teaching facilities like The Diamond. Early modules establish core concepts in thermodynamics, fluid mechanics, and reaction kinetics, progressing toward complex process safety and integrated plant design projects. Undergraduates learn alongside active researchers who are pioneering advancements in energy transition, carbon capture, and sustainable manufacturing. This program is ideally suited for inquisitive problem-solvers who want to transform molecular science into large-scale, sustainable industrial applications. Graduates gain a rigorous technical foundation, computational proficiency, and the practical expertise required to thrive in modern process industries.

What You'll Learn

Mass and energy balances, fluid flow, and heat transfer principles

Thermodynamics, phase equilibria, and chemical reaction kinetics

Process design, pilot-scale operations, and separation techniques

Process safety, environmental impact, and industrial sustainability

Computational modeling, process simulation software, and system control

Integrated plant design and economic feasibility evaluation

Advanced reaction engineering and sustainable energy conversion

Learning Outcomes

By the end of the program, students will possess a deep and multi-tiered understanding of chemical engineering principles, ranging from molecular-level transport phenomena to full-scale industrial plant design. Graduates will be equipped to critically evaluate complex engineering challenges, applying scientific fundamentals and computational tools to design safe, economically viable, and environmentally sustainable chemical processes. Through extensive laboratory experimentation and collaborative design projects, learners acquire essential practical skills in operating industrial-scale pilot plants, analyzing experimental data, and communicating technical findings to diverse audiences. Furthermore, the curriculum allows students to specialize in emerging sectors such as renewable energy, bioprocessing, or advanced materials through elective options and individual research work. Ultimately, students emerge with the analytical precision, ethical awareness, and technical mastery needed to lead innovative solutions in global process industries.