Chemical engineering is one of the most technically demanding and economically rewarding undergraduate disciplines in American higher education. It applies the principles of chemistry, physics, mathematics, and biology to the design, analysis, and optimization of processes that transform raw materials into useful products, from petroleum refining and pharmaceuticals to semiconductors, polymers, food processing, and clean energy systems. The field produces graduates who are among the highest-paid STEM professionals at career entry and who occupy central roles in industries that collectively constitute a substantial fraction of the U.S. and global economy.
Chemical engineering is also a relatively concentrated discipline. Roughly 8,700 bachelor’s degrees are awarded per year, at a smaller universe of programs than mechanical or electrical engineering. That concentration creates a more legible landscape for students and counselors. The programs that lead this ranking are identifiable, their strengths are well-defined, and the differences between them and lower-ranked programs are substantive rather than marginal.
College Transitions has developed a new, data-driven ranking of the top 100 undergraduate chemical engineering programs in the country. We evaluated all 150 four-year institutions that awarded at least 12 chemical engineering bachelor’s degrees between 2022 and 2024. Here is what we found.
How We Built the Ranking
The approach evaluates institutions across five components, each converted to a percentile score across the full 150-program universe.
| Component | Weight | Data Source |
| Major Emphasis | 12% | IPEDS Degree Completions |
| Program Scale | 13% | IPEDS Degree Completions (log) |
| Academic Rating | 30% | IPEDS / Common Data Set |
| Earnings & ROI | 25% | College Scorecard (Tier 1) / Georgetown CEW |
| PhD Productivity | 20% | NSF SED: “Chemical and petroleum engineering,” 2015–2024 |
The Earnings & ROI component applies our Tier 1 C4 formula: field-specific chemical engineering earnings from the College Scorecard are available for 88 percent of programs, the highest coverage rate of any engineering discipline we have ranked. ChE graduates command some of the strongest labor market outcomes in all of STEM. Median field earnings across the universe average roughly $85,000 four years after graduation, and top programs exceed $100,000. The 55 percent sub-weight on field-specific earnings is well-supported by data quality at this coverage level.
PhD Productivity (20 percent) uses NSF Survey of Earned Doctorates data for the field “Chemical and petroleum engineering,” 2015 through 2024. The NSF category combines chemical engineering with petroleum engineering, which affects interpretation for schools with large petroleum engineering programs, notably Colorado School of Mines, the University of Tulsa, and Texas A&M, whose PhD scores partly reflect petroleum engineering doctoral alumni. The 50/50 blend of raw count and per-capita rate rewards both large programs and smaller programs with strong per-student research placement.
The Top 25
The top 25 programs are shown below. Chemical engineering’s top tier is dominated by a mix of elite private research universities, leading technical institutes, and a handful of flagship public programs, a pattern consistent with a field whose graduate outcomes depend heavily on research culture and industry connections.
| Rank | Institution | State | Type | Score |
| 1 | Massachusetts Institute of Technology | MA | Tech | 87.7 |
| 2 | Johns Hopkins University | MD | Private | 85.5 |
| 3 | University of Notre Dame | IN | Private | 84.5 |
| 4 | Georgia Institute of Technology | GA | Tech | 84.4 |
| 5 | Carnegie Mellon University | PA | Private | 83.7 |
| 6 | University of California-Berkeley | CA | Public | 79.5 |
| 7 | Worcester Polytechnic Institute | MA | Tech | 78.6 |
| 8 | Rice University | TX | Private | 78.5 |
| 9 | Rensselaer Polytechnic Institute | NY | Tech | 78.5 |
| 10 | Cornell University | NY | Private | 78.3 |
| 11 | Lehigh University | PA | Private | 77.0 |
| 12 | Northeastern University | MA | Private | 75.8 |
| 13 | Northwestern University | IL | Private | 75.6 |
| 14 | North Carolina State University | NC | Public | 75.5 |
| 15 | Princeton University | NJ | Private | 75.4 |
| 16 | University of Michigan-Ann Arbor | MI | Public | 74.1 |
| 17 | University of Texas at Austin | TX | Public | 74.1 |
| 18 | California Institute of Technology | CA | Tech | 74.1 |
| 19 | University of Pennsylvania | PA | Private | 73.2 |
| 20 | Vanderbilt University | TN | Private | 72.3 |
| 21 | University of Wisconsin-Madison | WI | Public | 71.8 |
| 22 | University of Florida | FL | Public | 71.5 |
| 23 | Bucknell University | PA | Private | 71.5 |
| 24 | Villanova University | PA | Private | 70.6 |
| 25 | Stevens Institute of Technology | NJ | Tech | 70.0 |
Table 1. Top 25 Undergraduate Chemical Engineering Programs, 2026 College Transitions Ranking.
Massachusetts Institute of Technology (#1, 87.7) leads the ranking with near-perfect PhD Productivity (97.5, reflecting 96 doctoral recipients at a per-capita rate of 21.0 per 1,000 undergraduates), a 95.9 Earnings & ROI score (field earnings of $98,644, among the highest nationally), and a 92.0 Major Emphasis score reflecting that ChE is central to MIT’s engineering identity. The Department of Chemical Engineering at MIT is one of the world’s premier research environments for the discipline, with active research spanning biological engineering, materials synthesis, catalysis, and energy systems.
Johns Hopkins University (#2, 85.5) scores 94.7 on Major Emphasis and 93.7 on PhD Productivity (68 doctoral recipients at 11.2 per capita), a result that reflects the deep integration of ChE with the broader Hopkins research mission in biomedical engineering and materials science. Its ranking reflects real research depth in a program where the department is a substantial institutional priority rather than a peripheral engineering offering.
University of Notre Dame (#3, 84.5) is this ranking’s most striking result for a general audience: a Catholic research university in Indiana finishing third nationally in chemical engineering. Notre Dame scores 87.2 on Academic Rating and 90.3 on Earnings & ROI, and its 86.0 Major Emphasis score reflects a ChE program that is one of the most prominent engineering departments at the institution. For a private research university without the brand recognition of MIT or the size of Georgia Tech, Notre Dame’s position reflects a ChE program that has invested deliberately in faculty depth, research infrastructure, and industry connections in the pharmaceutical and energy sectors.
Georgia Institute of Technology (#4, 84.4) leads all programs on Program Scale (98.7, reflecting 497 ChE degrees over three years) and scores 92.5 on Major Emphasis. Its 89.3 PhD Productivity score reflects 90 doctoral recipients over the decade, the third-highest raw count in the dataset. Carnegie Mellon (#5, 83.7) rounds out the top five with the highest Earnings & ROI score in the full dataset (96.1), reflecting field-specific earnings of $102,617 and CMU’s strong institutional ROI, a result of graduates’ entry into high-compensation technology, finance, and chemical industry roles.
What Separates the Best Programs?
The Earnings Advantage of Chemical Engineering
Chemical engineering produces some of the strongest and most consistent early-career earnings of any undergraduate major in the United States. The field-specific earnings data in this ranking confirms it. Across 132 programs with available data, median ChE earnings four years after graduation range from roughly $65,000 to $109,000. At the high end, Rice University ($108,850), UC Berkeley ($108,067), Penn ($107,816), Cornell ($105,514), and Carnegie Mellon ($102,617) reflect labor markets, including Houston energy, Bay Area technology, and Wall Street quantitative finance, where ChE graduates command high compensation.
The earnings premium reflects the structural advantages of ChE training: quantitative rigor in thermodynamics, transport phenomena, and reaction kinetics that translates directly to process engineering, materials development, and quantitative analysis roles. Chemical engineers are credentialed problem-solvers whose skills are valued across a broader range of industries than most engineering disciplines, from oil and gas to pharmaceuticals to semiconductors to finance. The 55 percent weight on field-specific earnings is particularly useful for ChE because the earnings signal is both available and informative.
The High-Achiever Anomalies: Cooper Union and the Small Technical Schools
The Cooper Union for the Advancement of Science and Art (#48, 59.6) deserves specific mention as a distinctive case in this ranking. Cooper Union scores second-highest in the full dataset on per-capita PhD productivity, at 25.5 chemical and petroleum engineering doctoral recipients per 1,000 undergraduates, behind only Caltech. That is a real signal of a research-productive student body at an institution operating a selective, rigorous engineering program with free or low-cost tuition. Its lower composite score reflects a small program (61 ChE degrees over three years) and institutional characteristics that affect the Academic Rating component. For students with the academic profile to gain admission, Cooper Union offers a ChE undergraduate experience that is outstanding by the metrics that matter most for graduate school preparation.
Colorado School of Mines (#26) scores a perfect 100 on Major Emphasis and 95.3 on Program Scale (416 degrees over three years, the eighth-largest ChE program in the country), but ranks 26th overall because of a lower Academic Rating (47.1). The NSF PhD field assignment, “Chemical and petroleum engineering,” particularly benefits Mines, whose proximity to Colorado’s energy sector means a disproportionate share of its PhD-pursuing alumni enter petroleum engineering doctoral programs. Its 89.8 PhD Productivity score should be read with that context in mind.
Brigham Young University: A Per-Capita PhD Outlier
Brigham Young University (#32) is one of the most analytically interesting programs in this ranking. It scores in the top tier on PhD Productivity, reflecting 75 chemical and petroleum engineering doctoral recipients over the decade, a high absolute count for a program of its size, and a field earnings figure of $99,093 that places it in the 90th percentile of the universe. BYU’s ChE program has built a research-active faculty culture and sends a disproportionate share of graduates to PhD programs, reflecting both a student body with strong quantitative preparation and an institutional culture that values graduate education. For students seeking a ChE program with strong research placement at an institution with lower tuition than elite private universities, BYU is an undervalued option.
The University of Delaware: The Hidden Giant
University of Delaware (#36) is one of the discipline’s least-appreciated programs nationally. Delaware scores 88.0 on PhD Productivity (88 doctoral recipients, one of the highest absolute counts in the dataset and the leading figure among public universities outside the very top tier), reflecting decades of investment in ChE research infrastructure dating to the postwar era. Delaware’s Center for Catalytic Science and Technology and its long-standing ties to the chemical industry in the Delaware Valley, including DuPont, W.L. Gore, and AstraZeneca, create an undergraduate research environment that consistently sends students to top doctoral programs. Its moderate composite score reflects institutional characteristics on the Academic Rating component rather than any deficiency in program-specific quality.
Patterns, Themes, and What They Mean for Your Students
Chemical engineering is one of the clearest cases in STEM where program-specific quality matters more than institutional prestige, and the patterns in this ranking carry specific implications for counselors advising students drawn to it.
ChE is a field where depth of research infrastructure is the decisive differentiator. A chemical engineering education depends on access to pilot plants, reaction engineering laboratories, materials characterization equipment, and, increasingly, computational resources for molecular simulation and process optimization. Programs that have invested in that infrastructure over decades produce graduates who can do sophisticated experimental and computational work from their sophomore or junior year. Programs that have not are offering a curriculum without the supporting environment. The PhD Productivity component is the best available proxy for this infrastructure: programs that consistently send undergraduates to doctoral study have built the research culture and physical environment that makes it possible.
Industry sector alignment matters enormously for ChE career outcomes. Chemical engineers enter industry sectors with very different compensation profiles: petroleum and gas (Houston, Gulf Coast), pharmaceuticals and biotechnology (New Jersey, Boston, San Francisco), semiconductors and advanced materials (Bay Area, Austin, Phoenix), and specialty chemicals. Programs embedded in specific regional industry clusters, such as Rice for energy, Delaware for pharma and specialty chemicals, UC Berkeley for technology and advanced materials, and UT Austin for energy and semiconductor manufacturing, develop recruiting relationships and industry research partnerships that matter more for career outcomes than national ranking position. Counselors should help students identify their target industry and map programs with strong connections to that sector.
The top of this ranking is more stable than most STEM fields. MIT, Georgia Tech, CMU, Cornell, and UC Berkeley have occupied the top tier of chemical engineering for decades, reflecting the accumulated advantage of sustained research investment, distinguished faculty lineages, and industry relationships built over generations. For students admitted to these programs, the quality signal is clear. But the middle of the ranking, including Notre Dame, Worcester Polytechnic, Lehigh, Northeastern, NC State, and Bucknell, represents strong and often undervalued alternatives for students seeking excellent ChE programs without the admission competitiveness of the very top tier.
Co-op and experiential learning programs deserve more weight than rankings give them. Northeastern (#12) and Drexel (#42) have built ChE programs around mandatory co-op rotations that place students in pharmaceutical, chemical, and materials companies in alternating blocks. For students whose primary goal is industry employment, particularly in process engineering, manufacturing, or pharmaceutical development, the quality of co-op placement and the industry relationships these programs have built may matter as much as composite score. Students whose career goals are industry-oriented rather than research-oriented should weigh co-op access heavily alongside the components in this ranking.
Chemical engineering remains one of the most strategically valuable undergraduate degrees available, combining technical depth with labor market strength in a way that few disciplines match. The programs that lead this ranking have earned their positions through decades of investment in faculty, infrastructure, and industry connections. Students who choose carefully among them, matching program strengths to their own career goals, will find that the landscape of excellent ChE programs is richer and more geographically diverse than general university rankings suggest.
