Engineering Gap Index Find your state

380,847
engineers a year.That is how many more America would graduate at China’s rate.

Every state, shaded by its engineering and computer science share of bachelor’s degrees against China’s 33.2%. Brighter is higher. Maryland is the only one past halfway. Choose any state.

The gap holds against every benchmark.

The United States awards 222,848 engineering and computer science bachelor’s degrees a year, 12.3% of the roughly 1.8 million it confers. China’s rate is 33.2%, nearly three times the American rate. Match it, and America graduates roughly 600,000 engineers a year. Other countries are ahead too. Germany’s rate is 27.7% and South Korea’s 25.8%, both more than double the American figure. Japan, close to the U.S. at 14.5%, is spending ¥300 billion to push its share up. Measured against any of them, or a heavily discounted China, the country is still hundreds of thousands short.

United States, today
12.3%
Japan
14.5%
India
15.0%
France
17.9%
South Korea
25.8%
Germany
27.7%
China benchmark missing 380,847
33.2%
1 of 51states reaches even half the China benchmark. It is Maryland, at 20.9%.
12 of 51states graduated fewer engineering and computer science bachelor’s degrees in 2024–25 than in 2022–23. Nationally the count rose about 8% (2024–25 is provisional), and the shortfall is still 1.7 times what the country produces.
54%of projected engineering and computer job openings are covered by degrees, counting every two-year credential.

Source: IPEDS Completions, 3-yr avg AY 2022–23 through 2024–25 (NCES; 2024–25 provisional), bachelor’s degrees, CIP 14 + 11, C2023–C2025; China 33.2%: PRC Ministry of Education, 2022 bachelor’s graduates by discipline, the most recent China has published (NSF NCSES S&E Indicators Fig. HED-30: 32.8%, 2020); Germany 27.7%, South Korea 25.8%, France 17.9%, India 15.0%, Japan 14.5%: NSF NCSES Fig. HED-30, engineering + CS share of first university degrees, 2020, the newest international compilation (CS is folded into engineering for Japan, as for China; France’s flagship engineering degrees are 5-year master’s-level diplômes, which the first-degree basis counts).

America is near its best share ever. It is still a third of China’s rate.

Engineering and computer science as a share of all American bachelor’s degrees, every published year from 1950 to 2021–22. The country halved its share between 1950 and the 1976 trough, doubled it back by the mid-1980s, lost it again when computer science degrees fell sharply after the dot-com bust, and has climbed since 2010 to within a point of its record. The whole American range fits inside the bottom third of the chart: China’s benchmark is the line at the top.

Engineering + computer scienceEngineering aloneChina benchmark, 33.2%Swipe the chart →

Maryland

Engineering + CS share of bachelor’s degrees
20.9%
Missing engineers a year at China’s rate
Three-year trend, share of degrees
National rank by share
What they study
Job openings a year, engineers + computing + technicians

Where the engineers are made: every producing institution

Circle area = eng+CS bachelor’s degrees per year Swipe the map →

Where this state’s engineers come from

#InstitutionEng+CS / yr% of its degrees

Jobs vs. degrees: engineering + CS occupations, state projection 2024–2034

Job openings per year (growth + replacement)
Eng + CS degrees produced per year (associate + bachelor’s)
of which net new jobs per year (growth only)

Where the openings are

OccupationOpenings / yr

Coverage: degrees ÷ openings

Openings are the state labor agency’s own 10-year projection: new jobs plus replacing workers who retire or leave the field (BLS method). Not every opening goes to a new graduate, so this measures coverage; it is not a count of unfilled positions. Occupations: engineers (SOC 17-2), computer occupations (SOC 15-12) and engineering technicians (SOC 17-3, the associate-degree tier), the jobs CIP 14 + 11 degrees feed; degrees here include associate degrees to match. Source: state projections via Projections Central (U.S. Dept. of Labor).

The gap against China’s benchmark

This state, today
United States, today12.3%
China benchmark33.2%

Three-year trend: eng+CS share of degrees

2022–232023–242024–25

Every state, ranked by share.

Height is each state’s engineering and CS share of bachelor’s degrees. The dashed line is half of China’s rate. Only Maryland clears it. Tap or hover any bar to open that state. Every state also has its own page.

#1 Maryland 20.9%#51 District of Columbia 6.3%
RankStateShare of degrees (scale: 0–33.2% China benchmark; tick = 12.3% national)ShareMissing/yr
Source: IPEDS Completions 2022–23 to 2024–25 (3-yr avg; 2024–25 provisional), CIP 14 + 11, bachelor’s degrees only, first majors. Exclusively-online national institutions excluded. The District of Columbia is ranked for completeness, but it is a city compared against states: its universities skew toward law, policy and international affairs, so read its last-place share in that light.

The degree that built the country.

Every time America decided it needed to be stronger, it made engineering degrees cheap and common, and it did so by law.

Morrill, ROTC, the GI Bill, Sputnik. The essay puts the index in 160 years of context, and explains why the share of degrees, not the raw count, is the number a government can actually move.

  • 1862Morrill Act: land-grant colleges for “agriculture and the mechanic arts” in every state.
  • 1916National Defense Act creates ROTC: education paid for in exchange for service.
  • 1944GI Bill sends a generation to college and staffs the postwar industrial boom.
  • 1958Sputnik answered by the National Defense Education Act, and NASA.
  • 202612.3% of U.S. bachelor’s degrees are engineering + CS. China: 33.2%.

The Digital ROTC proposal.

Digital ROTC: federal student loans that cover two years of engineering, computer science, or cybersecurity school at a community college, whether those years end in an associate degree or transfer into a bachelor’s program. The loans are forgiven in full after 24 to 36 months of service in government technology roles. It applies the GI Bill model to the engineering workforce.

Every institution in America, counted the same way.

The rules are published here so the number can be argued with.

Counting what

Engineering (CIP 14) + Computer & Information Sciences (CIP 11), first majors, bachelor’s degrees only. The China benchmark is a bachelor’s-equivalent figure, a share of first university degrees, so both sides of the comparison count the same thing. Through v1.1 the American share used an associate + bachelor’s denominator against that same bachelor’s-only benchmark, which overstated the gap; v1.2 corrects it. The old method put the national shortfall at 739,994; on the current data and the 33.2% benchmark it is 380,847. Associate-level output is still reported per state (the associate-degree figure) because community colleges are where Digital ROTC applies: the program covers two years of study with loans forgiven after service at a community college, and those years can end in an associate degree or transfer into the bachelor’s pipeline this index measures. The associate-level figures are shown here but are not mixed into the benchmark. The institution tables are bachelor’s-only, matching the state totals they sit beside. Three-year average (AY 2022–23 through 2024–25, the newest federal data available; the 2024–25 file is provisional until NCES revises it) from the U.S. Dept. of Education’s IPEDS Completions survey, every degree-granting institution in America. Per-capita figures use Census Vintage 2025 state population estimates.

The online correction

Institutions where ≥80% of undergraduates study exclusively online (WGU, SNHU, UMGC, Univ. of Phoenix, Univ. of the People…) are excluded from state totals: their graduates are national, not state-based. Without this correction Utah would rank near the top on WGU’s output alone. Online flags use the most recent IPEDS distance-education survey (fall 2024; the fall 2025 file is not yet released). The uncorrected variant is published in the dataset for transparency.

The benchmarks

China: engineering accounted for 33.2% of bachelor’s degrees awarded in 2022 (1,565,928 of 4,715,658, computer science included as China classifies it), per the PRC Ministry of Education’s own published statistics, the most recent discipline breakdown Beijing has released. Two independent checks land on the same rate: NSF NCSES Science & Engineering Indicators Figure HED-30 puts China at 32.8% of first university degrees in 2020, and the MOE’s 2021 table shows 32.78%. China reports no field-of-study data to UNESCO or the OECD, so no international compilation runs past 2020; the MOE tables do. The benchmark is degrees awarded, which is what IPEDS counts, and bachelor’s-equivalent, which is what this index measures; the American data runs through 2024–25 because that is what each side publishes. Through v1.2 the benchmark was 36%, taken from undergraduate entrants choosing engineering; a similar 36.6% figure is China’s share of doctoral degrees in engineering (Figure TAL-43, 2022). Neither is a bachelor’s completion rate. Because provincial counting is inconsistent, results are also quoted at a conservative 25% (a national shortfall of 231,742 degrees a year) and at a deep discount of 20%, where it is 140,824; the charts plot the 33.2% benchmark alone. Both rates are below what allied democracies post: Germany 27.7% and South Korea 25.8% engineering + CS share of first university degrees, with France at 17.9%, India at 15.0% and Japan at 14.5% (NSF NCSES Figure HED-30, 2020, the newest international compilation; CS is folded into engineering for Japan as for China; NSF’s OECD-classified US figure on the same basis is 13.0%, vs the 12.3% IPEDS CIP 14 + 11 figure used everywhere else on this page). This is a production index: it measures where engineers are trained, not where they live or work.

Why share of degrees, not headcount?

Share measures what a system chooses to produce, so it is the fair metric for a country with a large higher-education sector that also graduates nurses, teachers and accountants. But the conclusion does not depend on the denominator. NSF counts about 2 million science and engineering first university degrees for China in 2020 against America’s 900,000, and roughly 70% of China’s are engineering. Call it 1.4 million engineers a year against our 222,848. That is more than six times as many outright, and population-adjusted it is still roughly half again as many per resident. The gap holds whether it is measured by share, per capita or raw headcount.

Don’t tech layoffs mean there’s no shortage?

The layoff headlines concentrate in one corner of the market: entry-level hiring at consumer software companies. The demand base is much wider. BLS projections put annual openings across engineering, computer and engineering-technician occupations at about 467,000 a year (growth plus replacement; most openings are retirements and exits, which do not pause for a hiring cycle). Against that, the country produces roughly 223,000 eng+CS bachelor’s degrees and 42,000 associate degrees a year: a little more than half of openings covered, counting every two-year credential. Employers in defense, semiconductors, advanced manufacturing and the power grid face those numbers regardless of what consumer tech does this quarter.

Jobs vs. degrees: the state-by-state demand check

Each state page compares degree output with the state’s own labor-market projection: average annual openings, 2024–2034, for engineers (SOC 17-2), computer occupations (SOC 15-12) and engineering technicians (SOC 17-3), as published by each state’s labor agency and aggregated by Projections Central (Projections Managing Partnership, U.S. Dept. of Labor). Openings follow the BLS method: growth plus replacement of workers who retire or transfer out. Because technicians are the associate-degree tier, coverage is measured against associate + bachelor’s degrees, not the bachelor’s-only figure the ranking uses. Summed across the states, that is openings a year against degrees: coverage. (BLS’s own national 2023–33 projection, quoted above, is ~467,000; the states’ 2024–34 projections run a little higher.) Coverage is a demand-side check on the benchmark gap, not a substitute for it: a state can cover most of its openings and still be far below the China benchmark, and high coverage in a thin economy is a sign of weak demand, not strong production. Only one state, Vermont, graduates more than it is projected to hire.