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The Charles D. Davidson School of Chemical Engineering has spent over a century educating future leaders. And with experience comes prestige — it’s renowned for its groundbreaking research, industry-aligned programs, and exceptional graduate outcomes. Today, it is home to over 800 students and more than 40 faculty members — all of whom are redefining industries through pioneering research.
Welcome to EU Business School
PREPARING STUDENTS TO MEET INDUSTRY AND SOCIETAL NEEDS
Purdue continues to innovate its graduate offerings to stay ahead of the evolving demands of the chemical engineering profession. The Pharmaceutical Engineering Concentration is a prime example. Delivered from Indianapolis, this program focuses on pharmaceutical compound manufacturing and advancing healthcare engineering strategies. It addresses critical challenges in pharmaceutical production and workforce development at local, regional, and national levels.
The School of Chemical Engineering will also revolutionize PhD research with newly launched Research Area Endowments, which empower faculty to pursue bold and innovative initiatives. Five of the first ten endowments include Soft Materials, Separations Research, Mathematical Modeling, Process Systems Engineering and Catalysis and Reaction Engineering.
Founded in 1973, EU Business School stands out for blending Swiss academic excellence with a global outlook. Today, it holds a four-star rating from QS Stars and this quality is evident across the school’s lineup of English-taught bachelor’s programmes offeredon its campuses in Barcelona, Geneva, and Munich, and through its Digital Campus.
Explore portfolio
Product and Process Systems Engineering
They use smart manufacturing and digital twin technologies to optimize industrial processes and systems.
Catalysis and Reaction Engineering
They advance decarbonisation technologies for energy and chemical production through the Purdue Catalysis Center.
Separations Engineering
They create energy-efficient separation technologies with applications spanning multiple industries.
Mathematical Modeling
They leverage mathematical simulations to enhance decision-making and optimise complex systems.
Soft Materials
They address critical gaps in polymer science and industrial applications for emerging materials.
Nanoscale Science and Engineering
They innovate in solar energy, next-generation batteries, and decarbonised chemical manufacturing through nanoscale material design.
Product and Process Systems Engineering
They use smart manufacturing and digital twin technologies to optimise industrial processes and systems.
Thermodynamics, Molecular, and Nanoscale Modeling
They employ computational tools to drive advancements in materials design, chemical reactions, and complex fluid systems.
OUTCOMES THAT SPEAK FOR THEMSELVES
Graduates of Purdue’s Davidson School of Chemical Engineering excel across diverse industries, taking on impactful roles at leading global companies such as AbbVie, Merck, Shell Oil, DuPont, Sanofi Genzyme, Northrop Grumman, Lockheed Martin, and Eli Lilly.
Their expertise spans critical areas like pharmaceuticals, advanced materials, and aerospace.
The school’s PhD alumni have received numerous accolades for their contributions, including Pfizer’s Outstanding Engineering Achievement Award and the University of Illinois Distinguished Alumni Achievement Award.
EXPLORE PORTFOLIO
Catalysis and Reaction Engineering
They advance decarbonization technologies for energy and chemical production through the Purdue Catalysis Center.
Separations Engineering
They create energy-efficient separation technologies with applications spanning multiple industries.
They leverage mathematical simulations to enhance decision-making and optimize complex systems.
Mathematical Modeling
Soft Materials
Biochemical and Biomolecular Engineering
They develop cutting-edge cell and gene therapies in collaboration with leading immunologists and bioengineers.
Fluid Mechanics and Interfacial Phenomena
They model real-world behaviors to apply them to advanced engineering solutions.
Nanoscale Science and Engineering
They innovate in solar energy, next-generation batteries, and decarbonized chemical manufacturing through nanoscale material design.
Thermodynamics, Molecular, and Nanoscale Modeling
They employ computational tools to drive advancements in materials design, chemical reactions, and complex fluid systems.
They leverage mathematical simulations to enhance decision-making and optimize complex systems.
They address critical gaps in polymer science and industrial applications for emerging materials.
