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4 Years On Campus Bachelors Program
Tulane UniversityTulane University's Engineering Physics major combines a strong foundation in physics and mathematics with engineering design, computation and practical problem-solving. The program prepares students to work with emerging technologies such as nanomaterials, quantum electronics, semiconductors and advanced devices, while providing substantial experience in laboratory methods, data analysis, teamwork and engineering design.
Curriculum Structure
First Year: Students build their scientific and mathematical foundation through General Physics I and II (PHYS 1310 and PHYS 1320), General Chemistry I with Laboratory (CHEM 1070 and CHEM 1075), and calculus courses. These subjects establish the principles of mechanics, electricity, magnetism and chemical science needed for advanced physics and engineering coursework.
Second Year: Students progress into Modern Physics I and II (PHYS 2350 and PHYS 2360), Product and Experimental Design (ENGP 2310) and Statics (ENGP 1410). They also study computing and engineering fundamentals, including Electric Circuits (ENGP 2010) and Engineering Thermodynamics (ENGP 2120), developing the ability to connect physical principles with practical engineering applications.
Third Year: Students strengthen their technical knowledge through Computational Physics and Engineering (ENGP 3170), Advanced Laboratory I (ENGP 3530) and specialised physics and engineering electives. Courses in materials science, electronics and other engineering fields allow students to explore emerging technologies while preparing for their summer industry or research internship.
Fourth Year: Students complete the two-semester Team Design Project and Professional Practice I and II (ENGP 4310–4320), applying scientific and engineering principles to a substantial design project. Advanced engineering electives allow students to deepen their knowledge in areas such as materials, mechanical systems, electrical engineering, computational methods or nanotechnology.
Focus Areas
Engineering physics, applied physics, materials engineering, computational engineering, nanotechnology, quantum electronics, electronic circuits, engineering design, scientific instrumentation, materials for energy and advanced devices.
Learning Outcomes
Scientific and Mathematical Reasoning: Apply physics, mathematics and engineering principles to solve complex technical problems.
Engineering Design: Develop solutions that consider safety, public welfare, environmental impacts and practical constraints.
Experimental Skills: Design experiments, operate scientific equipment, analyse data and interpret results.
Computational Skills: Use computational methods to investigate physical systems and support engineering analysis.
Teamwork and Communication: Collaborate across disciplines, communicate technical findings and manage project objectives.
Ethics and Professional Responsibility: Evaluate the ethical, social and environmental implications of engineering decisions.
Professional Alignment (Accreditation)
ABET accreditation: Tulane's Engineering Physics program is accredited by the Engineering Accreditation Commission of ABET under its General Criteria, with no applicable program-specific criteria. This provides external recognition that the program meets established engineering education standards.
Reputation (Employability Rankings)
Tulane's School of Science and Engineering emphasises interdisciplinary research in materials engineering, computational engineering and nanodevices. The program's industry or research internship and two-semester capstone project give students opportunities to develop applied experience relevant to technology and engineering careers. A specific program-level employability ranking or graduate employment rate is not stated in the official program information.
Tulane University places practical engineering experience at the centre of its Engineering Physics major. Students progress from introductory design and laboratory work to a summer industry or research internship and a two-semester capstone project. This structure helps them apply physics and engineering concepts to real technical challenges while developing teamwork, project management and professional communication skills.
Key experiential learning opportunities include:
Product and Experimental Design (ENGP 2310): Introduces students to engineering design and experimental problem-solving early in the degree.
Electric Circuits Laboratory (ENGP 2011): Develops practical skills in electrical measurements, circuit analysis and experimental testing.
Advanced Laboratory I (ENGP 3530): Builds experience in laboratory methods, scientific measurement, data analysis and interpretation.
Computational Physics and Engineering (ENGP 3170): Develops computational approaches for modelling physical systems and solving engineering problems.
Summer Industry or Research Internship: Students normally complete an internship during the summer after their third year, gaining exposure to professional engineering or scientific research environments.
Team Design Project (ENGP 4310–4320): Work collaboratively on a two-semester capstone project, applying engineering principles to design, evaluate and develop practical solutions.
Computational Engineering Certificate: Students can select approved computational physics and engineering electives to complete this specialised certificate.
Engineering Minors: Students can add a minor in Electrical, Materials or Mechanical Engineering, subject to the program's requirements. The university states that a minimum of nine additional credits beyond the major is required.
Research Opportunities: Explore faculty research involving advanced materials, materials for energy, biomolecular materials, nanostructures and the application of quantum mechanics to devices.
Tulane's Engineering Physics major prepares graduates for careers that combine scientific understanding with engineering design and technology development. Students can pursue opportunities in research and development, advanced manufacturing, materials engineering and computational analysis, or continue into graduate study in science and engineering.
Potential career roles include research and development engineer, materials engineer, computational engineer and semiconductor or device development engineer.
Students can strengthen their career preparation through the following opportunities:
Career Services: Tulane's career-development resources can support students with career planning, internship searches, resume preparation, interview skills and employer engagement.
Industry Experience: The required summer internship provides an opportunity to gain professional experience and explore potential career directions before graduation.
Capstone Project: The two-semester team design project helps students demonstrate technical problem-solving, project planning, collaboration and communication skills to prospective employers.
Research and Technology Connections: Departmental research in nanodevices, advanced materials, energy materials and computational engineering exposes students to areas relevant to emerging technology industries.
Professional Recognition: ABET accreditation provides external recognition of the program's engineering education standards, which can be relevant when pursuing engineering employment or further professional development.
Employment Statistics and Salaries: A program-specific graduate employment rate and salary figure are not stated in the official program information.
Graduation Outcomes: Graduates are prepared to pursue research and development careers, advanced study in engineering or physical sciences, and other professional fields including management, law and medicine.
Further Academic Progression: Graduates can pursue master's or doctoral study in Engineering Physics, Applied Physics, Materials Engineering, Electrical Engineering, Mechanical Engineering, Computational Science or related disciplines, subject to the chosen institution's admission requirements. The program's combination of physics, engineering design and computational training also provides a foundation for specialised study in nanotechnology, semiconductors, advanced materials and quantum technologies. Students interested in medicine, law or management can explore the relevant professional or graduate programs and complete any additional prerequisites required.
US universities use a holistic admissions review. Beyond grades and standardized test scores, they weigh the strength of your overall profile to understand who you are as a student and a person.
Profile Assessment: Science applicants are generally assessed on the rigour of their Mathematics and laboratory-science coursework. Relevant preparation may include Biology, Chemistry, Physics, Calculus or Statistics, depending on the intended field. Research, science fairs, Olympiads, laboratory exposure, independent investigation and environmental or community-science projects can demonstrate scientific curiosity and analytical thinking.Advanced Placement(AP) Guidance: AP availability depends on the student's school. Relevant APs can strengthen an application and may earn university credit, but are not compulsory unless the university or programme explicitly requires them.Essays & recommendations: Personal essays and teacher/counselor recommendations give context to your achievements and help demonstrate fit with the program.PhysicistEngineering PhysicistAerospace EngineerResearch ScientistMaterials EngineerOptical EngineerElectronics EngineerInstrumentation EngineerData AnalystNuclear EngineerSystems EngineerApplied Scientist
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