Engineering — Design Solutions That Build and Improve the World
What Is Engineering?
Engineering is the application of math, science, and creativity to solve real-world problems. It is among the highest-paying undergraduate majors and spans dozens of specializations from civil and mechanical to electrical, chemical, and biomedical engineering. Engineering programs are rigorous, combining advanced mathematics and physics with hands-on laboratory work and design projects. Students learn to analyze problems systematically, design practical solutions, and build and test those solutions in the real world. Engineering graduates are in consistent demand across industries including manufacturing, construction, technology, energy, aerospace, and healthcare.
Why Study Engineering?
Engineering offers some of the highest starting salaries of any bachelor's degree, with median entry-level pay exceeding $70,000. The analytical and problem-solving skills you develop are valued by employers in virtually every industry, and many engineers transition successfully into management, consulting, entrepreneurship, and even medicine. Engineering is also one of the few fields where a bachelor's degree alone commands a professional-level salary without requiring graduate school.
Skills You Will Develop
Common Classes in Engineering
Here are the 10 core courses you can expect in a typical Engineering program:
Calculus I, II, III & Differential Equations
The mathematical foundation of all engineering disciplines: limits, derivatives, integrals, multivariable calculus, and ordinary differential equations.
Physics I & II (Mechanics & Electromagnetism)
Classical mechanics, thermodynamics, waves, electricity, magnetism, and optics. The physical principles that engineers apply daily in their work.
Introduction to Engineering Design
The engineering design process: problem identification, brainstorming, prototyping, testing, and iteration. Often includes team-based projects using CAD software.
Statics & Dynamics
Forces on stationary and moving objects: equilibrium, friction, particle dynamics, and rigid body motion. Essential for mechanical, civil, and aerospace engineers.
Thermodynamics
Energy, heat transfer, work, entropy, and the laws of thermodynamics. Applications in engine design, HVAC systems, power generation, and chemical processes.
Materials Science
Properties of metals, polymers, ceramics, and composites. How material selection affects design decisions in construction, manufacturing, and product development.
Fluid Mechanics
Behavior of liquids and gases: pressure, flow rates, viscosity, and the Bernoulli equation. Critical for civil, mechanical, chemical, and aerospace engineers.
Circuits & Electronics
Basic circuit theory, Ohm's law, Kirchhoff's laws, capacitors, inductors, transistors, and op-amps. Foundation for electrical and computer engineering.
Engineering Ethics & Professional Practice
Ethical responsibilities of engineers, professional licensing (PE exam), codes of conduct, case studies of engineering failures, and the societal impact of engineering decisions.
Senior Design Capstone
A year-long team project to design, build, and present a solution to a real engineering problem. Industry-sponsored projects are common, and the experience is highly valued by employers.
Career Paths in Engineering
Salary ranges are approximate national averages. Growth projections are from BLS through 2032 and will vary by location and experience.
Degree Pathways for Engineering
Associate (A.S.)
Pre-engineering program at community college. Covers math and science prerequisites that transfer to a four-year engineering program. Not sufficient for engineering careers on its own.
Bachelor's (B.S.)
The standard entry credential. Must be from an ABET-accredited program for most employers and for PE licensure. Four to five years depending on co-op requirements.
Master's (M.S. / M.Eng.)
Specialization and advanced technical knowledge. Increasingly common and sometimes required for roles in emerging fields like robotics, AI, or biomedical devices.
Doctoral (Ph.D.)
For research-intensive roles in R&D labs, academia, or national laboratories. Common in fields like materials science, nanotechnology, and advanced manufacturing.
Industry Outlook
Engineering employs over 1.7 million professionals in the United States with a median salary of $80,000+. While growth rates vary by specialty, the overall demand for engineers remains strong, particularly in renewable energy, semiconductor manufacturing, infrastructure, and biomedical devices. The Bureau of Labor Statistics projects steady growth across most engineering disciplines, and the field consistently ranks among the top 10 highest-paying bachelor's degree fields.
Expert Tips for Engineering Students
- 1
Choose an ABET-accredited program. This accreditation is required for Professional Engineer (PE) licensure and is expected by virtually all employers. Do not attend a non-accredited engineering program.
- 2
Pursue internships and co-ops aggressively. Engineering is a field where hands-on experience matters enormously. Many companies make full-time offers to their interns, often with significant signing bonuses.
- 3
Do not be discouraged by the difficulty. Engineering programs have high dropout rates because the coursework is genuinely hard. Study groups, tutoring centers, and office hours are essential — use them.
- 4
Consider getting your PE license if you are in civil, mechanical, or electrical engineering. It is required for signing off on public infrastructure projects and significantly increases your professional credibility and salary.
- 5
Engineering skills transfer broadly. Many engineers move into management, consulting, finance, patent law, or entrepreneurship. The problem-solving mindset is valued everywhere.