Academic Units - College of Engineering - Purdue University

The Aeronautics and Astronautics curriculum emphasizes the disciplines of aerodynamics, aerospace systems, astrodynamics and space applications, propulsion, structures and materials, dynamics and control, and further provides courses that integrate these disciplines into the design of flight vehicles to perform the required mission.

The field of aeronautical and astronautical engineering addresses the challenging problems encountered in the design and operation of many types of aircraft, missiles, and space vehicles and places a constant demand on research and development groups for an even greater understanding of basic physical phenomena.

Employers from around the world contact the School of Aeronautics and Astronautics with information regarding positions available within their organizations.

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Biomedical Engineering applies principles and methods of engineering and life sciences to design solutions for human biology and medicine.

Undergraduate students take life-science courses in combination with engineering design courses, studying physical and chemical properties of human tissues in order to design more effective implants. Other areas and projects include cell and tissue research, as well as the design of new biomaterials for use in medical therapies.

Programs of focus include biomaterials, musculoskeletal biomechanics, tissue engineering, medical imaging, cardiovascular instrumentation, therapeutic and diagnostic devices, and biological signal processing.

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Civil and Construction Engin​eers shape the world. Civil and Construction Engineering is founded on creating, designing, and improving communities. We teach our students to apply sustainable design principles and problem-solving skills to systems of natural and built environments. Civil and Construction Engineers are constantly working to engineer a better future for people and our planet by creating new landmarks for our cities and nations, implementing systems that preserve and improve our natural resources, developing sustainable networks that provide clean energy, and building the infrastructure that allows us to move and take shelter safely and efficiently.

Purdue's Civil and Construction Engineering Program prepares students to tackle future challenges and serve as key stakeholders in improving our society. Our program offers multiple pathways to a Civil Engineering (BSCE) degree for students to find their passion. With ten open technical electives courses, students can tailor their education towards a desired future career. The Construction Engineering (BSCNE) degree is tailored to prepare graduates for professional work in the construction industry. The Construction Engineering curriculum includes about 80 percent engineering courses and 20 percent management courses focused on the knowledge necessary for construction careers.

Instructional laboratories in structural behavior, geotechnics, hydraulics, geomatics, environmental, and civil engineering materials enable experiential learning that reinforces theory. Our deeply-committed faculty serve as upperclassman advisors, providing many opportunities to interact and develop relationships with those that are creating the future of civil and construction engineering. For the final year in civil engineering, students participate in a capstone Senior Design course where diverse teams tackle projects through real world applications and theoretical role play.

The future of Civil and Construction Engineering is founded in the research we conduct. These innovations are developed by our students and faculty then created and tested in our world-renowned facilities. With faculty and student research, we collaboratively design sustainable, safe, resilient and reliable infrastructure and environmental solutions of the future.

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Electrical and Computer Engineering – a discipline that plays a central role in the ongoing technology and information revolution – encompasses the development, design, research, and operation of electrical and electronic systems and components, including computers. Sub-disciplines include: automatic control; biomedical imaging and sensing; communications, networking, signal and image processing; computer engineering; fields and optics; microelectronics and nanotechnology; power and energy systems; and VLSI and circuit design.

Undergraduate students have the option of pursuing a bachelor’s degree in either Electrical Engineering (BSEE) or Computer Engineering (BSCmpE). BSEE graduates design, develop and work with a wide range of technologies including biomedical devices, computer chips, communication devices, microcontrollers, lasers, robots, and electrical machines. BSCmpE graduates are provided with a broad view of the computer field with courses covering the full range of hardware and software design, covering the sub-areas of computer architecture, software systems, and intelligent systems. Both degree programs benefit from state-of-the-art laboratories that provide hands-on experience that culminates in a capstone senior-design project.

All students, especially those at the graduate level, have the opportunity to pursue world-class research in any of the ECE sub-disciplines at top-notch facilities in the three buildings that house ECE: The EE building, the MSEE building, and Wang Hall. Also available for research in experimental microelectronics and nanotechnology are the facilities at the Birck Nanotechnology Center in Discovery Park, at whose heart is a 25,000 sq. ft. class 1-10-100 nanofabrication cleanroom (Scifres Nanofabrication Laboratory).

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Within the School of Sustainability Engineering and Environmental Engineering (SEE) the degrees are in Environmental and Ecological Engineering (EEE).  SEE’s use the principles of systems engineering, biology, and chemistry to develop strategies to protect human and environmental health. Our unique degree name, Environmental and Ecological Engineering, was chosen to highlight our approach to managing complex problems with an integrated perspective that considers both environmental issues and ecological interactions. In the undergraduate curriculum there is an early focus on systems thinking and systems understanding with the inclusion of significant course requirements in ecology, sustainability, and industrial ecology. The EEE degree program strives for resilient design thinking that takes into account complexity and connectivity between systems. 

Employment opportunities for SEE graduates are excellent. The U.S. Dept. of Labor projects substantial growth in jobs for the foreseeable future. Starting salaries are comparable to other Engineering fields and opportunities for advancement to positions of responsibility are excellent.

Among the 14 “Grand Challenges of Engineering” announced by the National Academy of Engineering, six of the 14 are explicitly in the domain of Sustainability engineering and Environmental engineering. Environmental engineering has a clear impact on societies and quality of life. Students interested in engineering that can make a positive difference for people should consider Sustainability Engineering and Environmental Engineering. Meet with an advisor or faculty member to craft an individualized plan of study to meet your career goals.

Research within Sustainability Engineering and Environmental Engineering may be characterized as being multidisciplinary and focused on cutting edge issues. The SEE discovery mission is positioned to respond to society’s need to understand the world we live in, and to develop strategies for sustainably managing Earth’s limited resources and ecosystems so that they will be available for generations to come. Topics emphasized within the SEE research portfolio include: environmental fate of air, water, and soil contaminants; sustainable urban design; renewable energy and the water-energy nexus; water and wastewater treatment; sustainable industrial systems; water, air, and nutrient cycling; sustainability engineering education; bio-based materials and products; industrial ecology and industrial processes; air quality.

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In everything we build—cars, planes, boats, computers, cell phones, bridges, skyscrapers, dental implants—the properties of the materials used determine the product's performance.

Materials Engineering's academic programs have been developed around broad and basic phenomena, applied to all major classes of artificial materials—ceramics, metals, glasses, polymers, and semiconductors. The undergraduate and graduate programs integrate our faculty strengths across the field's four cornerstones: structure, properties, processing, and performance.

Purdue's School of Materials Engineering is dedicated to meeting the materials needs of modern society through:

Learning—training the next generation of materials experts for every industrial sector

Outreach—providing leadership within the materials profession

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Nuclear engineering is firmly grounded in the understanding and application of modern physics. It has demonstrated vast potential for growth in power generation, medicine, industrial processes and engineering plasmas, space technologies, and national defense.

Nuclear engineers at Purdue contribute to such advanced technologies as fission and fusion power plasma physics, beam-target interactions, computational physics, new medical technologies and procedures, improved food safety, advanced materials processing, advanced imaging, and the safe treatment and disposal of spent nuclear fuel.

Students experience the small-classroom feel. Because Nuclear Engineering is a relatively small school, undergraduate students experience closer interaction with professors. Currently the School of Nuclear Engineering has about 14 professors.

Indiana's first and only nuclear reactor (PUR-1) has its home at Purdue University. PUR-1 is a great teaching tool for our students. It headlines field trips for high-school juniors and seniors who participate in demonstrations and experiments.

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