Reason #43: Gender Ratio'd 8:1 at Work, 5:1 at School

Start with the math. In mechanical engineering, women earn about 17.9% of bachelor’s degrees. That is roughly 5:1 men to women (American Society for Engineering Education [ASEE], 2024). 

It does not balance after graduation. In the U.S. workforce, women are 11.4% of employed mechanical engineers, which is about 7.8:1. Call it 8:1 if you like (U.S. Bureau of Labor Statistics [BLS], 2025). Compared with the usual suspects, ME is near the bottom. Among branches with published workforce shares, only aerospace is lower. Electrical sits a bit higher. Civil and chemical are higher still. Industrial is higher again (BLS, 2025).

Those ratios matter when you are young and building your life. College and the first few years of entry-level work are where most people form friend groups, meet partners, and find early mentors. In ME the pool is skewed before you show up, and it narrows as you move through labs, clubs, and late projects. The social world that rides along with your major has fewer mixed-gender spaces and fewer same-gender peers for women in particular. The long hours do not help.

If you are a man, you will spend four to six years (see Reason #2) in rooms that feel like a sausage fest, then step into offices that feel the same. If you are a woman, you will look for same-gender classmates to team with and for mentors who look like you, and find fewer. That is not a single bad course or a single bad shop. It is the standard mix for this field in this country, repeated each fall when the next cohort arrives with the same ratios (ASEE, 2024; BLS, 2025).

You can build a career here. Many do. The shape of your days will still reflect the headcount. Fewer options for who to study with, fewer options for who to ask hard questions after a design review, fewer informal networks where people pull each other along. That is not neutral background. It is the water you swim in.

A naysayer will say this is a STEM-wide problem. It is not. Computer science awards 22 percent of its bachelor's degrees to women. Chemical engineering: 37 percent. Industrial: 40 percent. Mechanical engineering: 17.9 percent (ASEE, 2024). The problem is not STEM. It is this branch of it.

Eight to one is not a community. It is a headcount. 

References

American Society for Engineering Education. (2024, October 27). Engineering & Engineering Technology by the Numbers, 2023. https://ira.asee.org/wp-content/uploads/2024/10/Engineering-Engineering-Technology-By-the-Numbers-2023-27-October-2024.pdf

U.S. Bureau of Labor Statistics. (2025, January 29). Table 11. Employed persons by detailed occupation, sex, race, and Hispanic or Latino ethnicity (2024 annual averages). https://www.bls.gov/cps/cpsaat11.htm

Reason #42: Meetings, Not Machines

You picture torque curves and heat sinks. You get calendars and portals. Most days in mechanical engineering, the work that moves is the work you schedule, summarize, route, and sign. Slides go out, trackers go green, and the machine is a rumor you visit between standups, (see Reason #9). 

The cadence is administrative by design. You inherit DV/PV plans across three owners, reshuffle a thermal soak because the chamber is booked, then paste a tidy roll-up for a manager who will skim the bullets and ask for a risk line. A supplier flips a flange spec and your day becomes ECO forms, updated GD&T, and a DFMEA revision that must stop blinking before Purchasing can issue parts. Nothing here is fake. It is simply not engineering as you imagined it. The technician fixes the wobble; you narrate why the deviation can ship and collect signatures that prove diligence (see Reason #16).

Tools tell the story better than titles. Teamcenter or Windchill for PLM. SAP dates fighting the MRP. A PPAP packet that wants FAIRs, control plans, and a capability slide nobody reads twice. CAPA closures that live in SharePoint. Jira tickets that are really email with numbers. The plant asks for a deviation before lunch; Compliance asks for a UL note before close. You spend your afternoon re-exporting a PDF because the vendor portal rejects embedded fonts. The “design” lives in the margins: resize a gasket land, bump a fillet, add a keeper washer so the drop test clears.

This is what “cost center” work feels like from the chair (see Reason# 23). You are measured on variance and on-time artifacts, not on authored mechanisms. The tasks that count are custodial: keep the fixture repeating, keep the bill of materials aligned with the ERP, keep the document control clean so Audit has something to file. When the shaker queue slips, you defend schedule on three calls, not with a wrench but with calendar triage. What part of this resembles “engineering” as you pictured it.

A software engineer's standup ends with a deployment. A chemical engineer's shift ends with a yield report. Your standup ends with a tracker update and another invite.

You can tell yourself the meeting is where decisions happen. Often the meeting is where decisions are recorded. The real calls were made upstream, yesterday, by people you do not see (see Reason #32). You will keep the paper moving. The paper will keep the product moving. Your title will keep you in the room.

Reason #41: Your Electives Are Someone Else’s Core

You keep being told you can "customize" ME with electives. What you discover is that the menu is a sampler platter. Controls is two courses and a lab. Mechatronics is a tour. CFD is a taste. Composites is a seminar with pretty color plots. Meanwhile whole departments across the hall call those topics the spine of their degree. See Reason #2.

ABET makes this structural. The accreditation criteria for mechanical engineering require "coverage of both thermal and mechanical systems" and "in-depth coverage of either thermal or mechanical systems." That is the entire program-specific curriculum requirement for your discipline (ABET, 2026). Compare that to electrical engineering, where ABET mandates "advanced mathematics, such as differential equations, linear algebra, complex variables, and discrete mathematics" plus the ability to "analyze and design complex electrical and electronic devices, software, and systems containing hardware and software components." Or compare it to civil engineering, where ABET requires students to analyze problems in at least four technical areas, conduct experiments in at least two, design systems in more than one civil context, and demonstrate knowledge of sustainability, project management, and public policy. EE's criteria name the math. Civil's criteria name four technical areas and two experimental areas. ME's criteria name two broad domains and leave the rest to the department. The breadth is not a bonus. It is a design constraint written into the accreditation standard itself (See Reason #8).

The calendar makes it worse. A typical ME curriculum carries 45 credits of required core: statics, dynamics, thermodynamics, fluid mechanics, heat transfer, materials, manufacturing, controls introduction, machine design, and a senior capstone. That list has not meaningfully changed in decades (See Reason #35). After you finish the core, the math and science prerequisites, the general education requirements, and the communication courses, you have roughly 9 to 15 credit hours of technical electives left. Three to five courses. That is your entire window for specialization across a four-year degree (Purdue ME, 2025; UC Berkeley ME, 2025). The catalog calls it flexibility. The transcript calls it a few lines at the bottom of the page.

The split shows up in what those courses actually deliver. Your one controls elective covers PID tuning and a second-order transfer function on a benchtop. EE's control sequence runs four deep and ends in observers, optimal control, and code that ships in production systems. Your mechatronics course is wiring, sensors, and a PID that behaves under lab conditions. Their embedded systems track is scheduling, safety, and timing analysis for hardware you will never own. You claim a CFD elective and learn to nurse a mesh. Aero majors climb from potential flow to turbulence modeling until the solver is a research topic. You make a laminate panel in one composites class. They design an airframe. See Reason #29.

Industry reads the transcript the same way. Recruiters treat your electives as interest, not competence. A hiring manager looking for serious embedded controls work, CFD at the turbulence-model level, composite certification experience, or power electronics depth will pull from the department that owns the pillar. You help at the edges. You write the report that proves you helped. See Reason #33. The elective signals curiosity. The four-course sequence signals capability. Employers know the difference even if the brochure pretends they do not.

Electives are fine for curiosity. They are poor scaffolding for a career when they are everyone else's foundation.

References:

ABET. (2026). Criteria for accrediting engineering programs, 2026-2027. https://www.abet.org/accreditation/accreditation-criteria/criteria-for-accrediting-engineering-programs-2026-2027/

Purdue University, School of Mechanical Engineering. (2025). ME electives and technical electives. https://engineering.purdue.edu/ME/Undergraduate/METechElects.html

UC Berkeley, Department of Mechanical Engineering. (2025). Technical electives. https://me.berkeley.edu/undergraduate/technical-electives/

Reason #40: If It’s Admin, It’s Automatable

In 1994, the Automotive Industry Action Group published QS-9000 and replaced three proprietary quality systems with one. Ford's Q-101, Chrysler's supplier manual, GM's Targets for Excellence, all collapsed into a single standard with five core tools: APQP, PPAP, FMEA, MSA, and SPC. PPAP alone defined eighteen standardized elements every supplier had to produce (AIAG, 1994). Before that year, your DFMEA belonged to a relationship. After it, your DFMEA belonged to a template. See Reason #51. That was the year your work became portable.

The market noticed. Global engineering research and development spending reached $1.53 trillion in 2024, with approximately 70 percent of engineering services delivery now performed in offshore locations (NASSCOM & Everest Group, 2025). India's engineering R&D sector grew from $20 billion in 2015 to roughly $134 billion in 2025 (Zinnov, 2015; NASSCOM, 2025). Bain & Company, surveying over 500 senior engineering executives, found that mechanical engineering was the original discipline outsourced and is now classified as a "legacy" operation that providers have "significantly optimized" (Bain, 2023). The consulting firms that study your field call it legacy. See Reason #21 and Reason #23. Meanwhile, U.S. engineering services employment grew at 2.8 percent annually over the same period (BLS, 2024). The work did not expand at home. It moved.

What moved was everything the templates made transferable. CAD drafting and legacy drawing conversion. BOM creation and maintenance. DFMEA and PFMEA documentation. Test report writing. Tolerance analysis with predefined stack-ups. Supplier quality packages. FEA runs with boundary conditions someone else defined. An entire industry of ISO-certified offshore providers exists to perform these tasks at 50 to 65 percent cost savings (NASSCOM & Everest Group, 2025). What stayed was whatever required your body in the room: the shaker test you had to witness, the supplier audit you had to walk, the fixture you had to fit on a floor only you had visited. See Reason #52. The division was never about skill. It was about whether the work could be written down. Economist Alan Blinder found "little or no correlation between an occupation's offshorability and the skill level of its workers" (Blinder, 2009). The correlation was with codification. If it fit a template, it fit a time zone.

Other engineering branches did not get hit the same way because their work resisted the same codification. Civil engineers stamp bridges and buildings under PE requirements that anchor the work to a jurisdiction. See Reason #58. You cannot offshore a structural seal. Electrical and computer engineers work in innovation cycles fast enough that the framework changes before anyone can templatize it. Chemical engineers run processes tied to specific plants, proprietary formulations, and safety constraints that do not survive a handoff to a team that has never smelled the reactor. Software developers get offshored too, but they get offshored as developers, building new products at scale, not as documentation processors filling in legacy templates. Mechanical engineering was the original discipline outsourced because it was the first one whose deliverables were fully standardized into auditable, portable artifacts. Bain's 2023 survey of engineering executives is explicit: ME is now classified as a "legacy" operation, while digital engineering, the territory of EE and CS, commands a dominant 62 percent of the global engineering services outsourcing market (Bain, 2023; FMI, 2025). The other disciplines got offshored to grow. You got offshored to optimize.

The academic literature identified the mechanism decades ago. Codification of tacit knowledge into standardized artifacts is the prerequisite for both outsourcing and automation (Balconi, 2002). Once a DFMEA lives in a structured template rather than in someone's judgment, it no longer needs to live in the same building as the product. The National Academy of Engineering said the quiet part plainly in 2008: "the same standardized tasks have increasingly been replaced by software tools that can perform them automatically" (NAE, 2008). Standardization did not just make the work movable. It made the work scriptable. See Reason #33 and Reason #65.

You survived your workload by standardizing it. You built the templates, wrote the procedures, and turned judgment calls into dropdown menus so the volume would not crush you. Every shortcut you created to stay afloat made the next person cheaper and the person after that optional. The sequence was not accidental. Standardization made it portable. Offshoring proved it was cheap. See Reason #68 for what comes next.

You paved the road. Someone else will drive on it.

References:

Automotive Industry Action Group. (1994). QS-9000 Quality System Requirements. AIAG.

Balconi, M. (2002). Tacitness, codification of technological knowledge and the organisation of industry. Research Policy, 31(3), 357-379. https://doi.org/10.1016/S0048-7333(01)00113-5

Bain & Company. (2023). The digital shift fuels outsourcing in engineering and R&D. https://www.bain.com/insights/the-digital-shift-fuels-outsourcing-engineering-r-and-d-report-2023/

Blinder, A. S. (2009). How many U.S. jobs might be offshorable? World Economics, 10(2), 41-78. https://www.princeton.edu/blinder/papers/07ceps142.pdf

Bureau of Labor Statistics. (2024). Employment for engineering services (NAICS 541330). Retrieved from FRED, Federal Reserve Bank of St. Louis. https://fred.stlouisfed.org/series/IPUMN541330W200000000

Future Market Insights. (2025). Engineering services outsourcing market report. https://www.futuremarketinsights.com/reports/engineering-services-outsourcing-market

NASSCOM & Everest Group. (2025). The global ER&D shift: Evolution of engineering services and India's competitive edge. https://nasscom.in/knowledge-center/publications/global-erd-shift-evolution-engineering-services-and-indias

National Academy of Engineering. (2008). The offshoring of engineering: Facts, unknowns, and potential implications. The National Academies Press. https://doi.org/10.17226/12067

Zinnov. (2015). Global R&D services outsourcing market report. Via PR Newswire. https://www.prnewswire.com/in/news-releases/global-rd-services-outsourcing-market-grew-by-87-in-2015-530816321.html

Reason #39: The Party Line Says Everything Is Fine

You will hear the same speech in three places: the open house, the senior design showcase, and the plant floor. Mechanical engineering is broad, resilient, full of options. The chorus is confident. The facts are not. Readers of this blog, some of you seasoned professionals, might be reading sourced criticisms of the mechanical engineering field for the very first time. That is not an accident. It is how the pipeline keeps itself tidy.

The reassurance starts with the Bureau of Labor Statistics. The BLS projects 9 percent growth for mechanical engineers from 2024 to 2034 and labels it "much faster than average." University program pages copy that phrase verbatim. What they do not copy is the denominator. Nine percent growth on a base of 293,100 produces 2,650 net new positions per year. The other 15,450 of the 18,100 annual openings are replacements for people who retired or left. Roughly 30,000 new bachelor's graduates enter every year. The growth label measures how fast the pool is expanding. It does not tell you how many people are already in it (see Reason #1).

The universities add a second layer. Most engineering programs report graduate outcomes using the National Association of Colleges and Employers First Destination Survey. NACE defines "career outcomes" to include full-time employment, part-time employment, graduate school enrollment, military service, and volunteer programs. A graduate working twenty hours a week at a staffing agency while job-hunting counts as a positive outcome. A graduate who fled to a master's program because the job market was closed counts as a positive outcome (see Reason #19). Graduates who are "not seeking" are excluded from the denominator entirely. And the minimum knowledge rate that NACE recommends is 65 percent. The national average is 41 percent (NACE, 2025; RIT, 2025). That means most schools publish a "career outcomes rate" based on confirmed knowledge of fewer than half their graduates, using a definition of "outcome" that includes working part-time and going back to school. The number that lands on the brochure was built to look good. It was not built to inform you.

The expectation gap is not accidental. A study of 1,061 mechanical engineering seniors across nine U.S. universities found that students' career intentions were significantly shaped by their perceptions of creative opportunities in the field, not by labor market data (Magarian and Seering, 2021). The curriculum sells creativity. The market buys compliance.

Compare the brochure to what the federal data actually shows. The Federal Reserve Bank of New York reports that 20.1 percent of recent mechanical engineering graduates are underemployed, working in jobs that typically do not require a college degree (NY Fed, 2026). That is the worst rate among the major engineering branches. Computer engineering: 15.8 percent. Civil: 15.6 percent. Aerospace: 14.7 percent (see Reason #63). The NSF's National Survey of College Graduates counted roughly one million people in the United States whose highest degree is in mechanical engineering. Only 293,100 work as mechanical engineers (see Reason #1). For every working mechanical engineer there are 2.5 more people with the same credential doing something else. None of this appears on the program page next to the 9 percent growth label.

The financial incentive to keep the brochure clean is not abstract. Fifty-six percent of public research universities now charge a differential tuition premium specifically for engineering, meaning engineering students pay more per credit hour than students in other departments (Hemelt, Stange, Furquim, Simon, and Sawyer, 2022). Mechanical engineering is the largest engineering discipline in the country, which makes it the most valuable pipeline to keep full (see Reason #4). ABET accredits 323 mechanical engineering programs and does not limit enrollment at any of them (see Reason #13). The department does not ask whether the market can absorb the graduates. The department asks whether the lecture hall is full. It is. It has been for a decade. The pipeline doubled its output from 18,498 to 37,353 degrees between 2009 and 2021 while the BLS projected roughly the same number of openings across four consecutive projection cycles (NCES, 2022; BLS, 2024). Nobody on the recruiting stage mentioned that.

Other disciplines do not need the same reassurance because their numbers do not require it. Computer science does not publish "debunking myths" articles because demand outpaces supply and the median salary is $30,000 above yours. Civil engineering does not need to inflate a career outcomes rate because the PE creates a hard, visible distinction between licensed and unlicensed that maps directly to employment. The fields that feel compelled to reassure you are the fields whose data cannot do it for them. If the numbers were reassuring on their own, nobody would need to package them (see Reason #59).

A naysayer will tell you to do your own research. The research was built to be hard to do. The university reports a "career outcomes rate" that includes part-time work and grad school. The BLS reports a growth rate that omits the supply side. NACE sets a knowledge rate floor so low that most schools publish outcomes they can only verify for four graduates in ten. A peer-reviewed study of university recruitment materials identified nine distinct patterns of misleading data-based claims, including cherry-picked metrics, omitted comparison groups, and ambiguous category labels (Bradley, 2013). A five-year follow-up found the practices had not meaningfully changed (Bradley, 2018). The engineering education literature has a term for the mechanism that keeps the gap alive. James Trevelyan, studying the transition from education to practice, found that student "expectations, habitual work practices and values tend to conflict with realities of engineering workplaces" and identified assessment practices and curriculum gaps as an "implied or hidden curriculum shaping student expectations and values" (Trevelyan, 2019). The hidden curriculum does not need a memo. It is built into what gets tested, what gets celebrated, and what never gets mentioned. The professional society that should be pushing back collects dues and publishes a magazine (see Reason #13). You are not uninformed because you failed to look. You are uninformed because every layer of the pipeline reports a number that sounds like good news, and none of them reports the number next to it.

The party line does not need to lie. It just needs to measure the right thing and stay quiet about the rest.

References

Bradley, J. (2013). Integrity in higher education marketing? A typology of misleading data-based claims in the university prospectus. International Journal for Educational Integrity, 9(2). https://doi.org/10.21913/IJEI.V9I2.894

Bradley, J. (2018). Integrity in higher education marketing and misleading claims in the university prospectus: What happened next...and is it enough? International Journal for Educational Integrity, 14(7). https://doi.org/10.1007/s40979-018-0026-9

Bureau of Labor Statistics. (2024). Mechanical engineers. Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/mechanical-engineers.htm

Federal Reserve Bank of New York. (2026). The labor market for recent college graduates. https://www.newyorkfed.org/research/college-labor-market

Hemelt, S. W., Stange, K. M., Furquim, F., Simon, A., & Sawyer, A. (2022). Why is math cheaper than English? Understanding cost differences in higher education. Journal of Labor Economics, 40(4), 831-880. https://doi.org/10.1086/709535

Magarian, J. N., & Seering, W. (2021). From engineering school to careers: An examination of occupational intentions of mechanical engineering students. Engineering Management Journal, 33(1), 31-55. https://doi.org/10.1080/10429247.2020.1860414

National Association of Colleges and Employers. (2025). First-destination survey standards and protocols. https://www.naceweb.org/job-market/graduate-outcomes/first-destination/standards-and-protocols/

National Center for Education Statistics. (2022). Table 325.47: Degrees in chemical, civil, electrical, and mechanical engineering. Digest of Education Statistics. https://nces.ed.gov/programs/digest/d22/tables/dt22_325.47.asp

Rochester Institute of Technology. (2025). Salary and career info for mechanical engineering ME. https://www.rit.edu/careerservices/study/mechanical-engineering-me

Trevelyan, J. (2019). Transitioning to engineering practice. European Journal of Engineering Education, 44(6), 821-837. https://doi.org/10.1080/03043797.2019.1681631

Reason #38: The Other Engineers (and Techs) are Happier

Feeling the pinch from underpayment, See Reason #27, you look up your job title on PayScale and see 3.69 out of 5 for job satisfaction. Then you check the neighbors. Electrical engineers sit at 3.90. Civil at 3.93. Chemical at 3.92. Software at 3.96. Aerospace at 3.98. That non-ME cluster averages about 3.94. Mechanical engineering trails it by roughly 6 percent. Same method, same scale, same five-point survey across every page. The report is the product, the meeting is the milestone, and the drawing is the deliverable, See Reason #33 (PayScale, n.d.-a through n.d.-f).

A second survey with a larger sample confirms the pattern and adds a dimension PayScale does not measure. CareerExplorer's ongoing career satisfaction survey, drawing from over 1,800 mechanical engineers, rates the discipline at 3.0 out of 5 stars. That places mechanical engineering in the bottom 33 percent of all careers. Not just behind other engineers. Behind most professions. Aerospace engineering scores 3.4 and sits in the top 34 percent. Software scores 3.2. Electrical scores 3.1. Same job title family, different ends of the satisfaction spectrum. The most revealing subdimension is meaningfulness. Mechanical engineers rate the meaningfulness of their work at 2.7 out of 5. Nearly half, 47 percent, rated it a 1 or 2. If you spend your days shepherding ECOs, massaging BOMs, and closing CAPA logs so production can move (See Reason #26), that number will not surprise you (CareerExplorer, n.d.-a through n.d.-d).

Even the technologist variant edges you out. PayScale shows mechanical engineering technologists at 4.00 on the same scale. The sample is small, so the asterisk applies, but it matches what you feel on the floor. The technologist stands the rig up (See Reason #16). You write the report that explains why it did not move faster. Satisfaction tends to follow ownership of the thing that moves the needle, not the slide that proves you tried, See Reason #32 (PayScale, n.d.-g).

The roots go back to school and the pipeline you were sold. You were told the math would open the doors, then you watched doors open for people who could make the fixtures repeat by Friday (See Reason #31). That mismatch between syllabus and shop feeds the quiet drag you see in the ratings. It also explains why the longer program and the detour semesters feel wasteful when you land in a role that is mostly validation and status updates (See Reason #2).

You will not hate it. You will just like it less.

References:

PayScale. (n.d.-a). Mechanical Engineer salary. https://www.payscale.com/research/US/Job=Mechanical_Engineer/Salary

PayScale. (n.d.-b). Electrical Engineer salary. https://www.payscale.com/research/US/Job=Electrical_Engineer/Salary

PayScale. (n.d.-c). Civil Engineer salary. https://www.payscale.com/research/US/Job=Civil_Engineer/Salary

PayScale. (n.d.-d). Chemical Engineer salary. https://www.payscale.com/research/US/Job=Chemical_Engineer/Salary

PayScale. (n.d.-e). Software Engineer salary. https://www.payscale.com/research/US/Job=Software_Engineer/Salary

PayScale. (n.d.-f). Aerospace Engineer salary. https://www.payscale.com/research/US/Job=Aerospace_Engineer/Salary

PayScale. (n.d.-g). Mechanical Engineering Technologist salary. https://www.payscale.com/research/US/Job=Mechanical_Engineering_Technologist/Salary

CareerExplorer. (n.d.-a). Are mechanical engineers happy? https://www.careerexplorer.com/careers/mechanical-engineer/satisfaction/

CareerExplorer. (n.d.-b). Are aerospace engineers happy? https://www.careerexplorer.com/careers/aerospace-engineer/satisfaction/

CareerExplorer. (n.d.-c). Are software engineers happy? https://www.careerexplorer.com/careers/software-engineer/satisfaction/

CareerExplorer. (n.d.-d). Are electrical engineers happy? https://www.careerexplorer.com/careers/electrical-engineer/satisfaction/

Reason #37: The Vendor Writes Your Design

Your “new product” kickoff starts with a parts list you didn’t write. The motor comes as a package with the gearbox, the controller, and the exact bolt pattern the vendor’s catalog has had for twenty years. Your CAD opens on their STEP, not yours. The meeting ends with assignments to confirm hole clearances and draw a bracket for someone else’s box, see Reason #33. 

This is how mechanical work narrows. Procurement wants NEMA or IEC frames because the shop stocks them. Compliance wants UL-listed assemblies because the test plan is shorter. Quality wants suppliers with PPAP history. All of that is sensible, and all of it moves the lever arm away from you, see Reason #26. The compressor is a vendor skid. The battery is a module with a sealed BMS and a CAN spec you cannot see. The hydraulic power unit is a catalog manifold with port patterns you will not change. You integrate, you shim, you reroute hoses, and you call the outline “architecture.”

Even the analysis comes pre-baked. The vendor FEA drives the wall thickness. Their performance map decides your operating points. Their harness length sets your enclosure and your thermal path. Your drawing says “per supplier print” in more places than it says anything else. When a tolerance stack fails, you revise your plate, not their casting, because their tooling is amortized and your plate is cheap, see Reason #21.

Academia sells first-principles freedom. Industry sells parts that already exist. In the gap (see Reason #32), your creativity turns into constraint management: REACH certificates in the portal, CE clauses on the nameplate, ERP/BOM numbers that make the ECO route clean. You can call this “systems thinking.” It often feels like shopping with paperwork. See Reason #2 if you want to remember how many semesters you paid to be here: 

Glut writes the spec. When ten COTS products queue for one project, managers pick what they can defend: catalog modules with warranties and part numbers already living in ERP. Risk shifts to the vendor, and most choices go with it. You weren’t out-engineered. You were out-supplied by lead times and a price list, see Reason #23.

A naysayer will tell you integration is real engineering. It is. But the engineer who integrates someone else's design has less leverage, less ownership, and less claim to the outcome than the engineer who created it.

You will learn a lot about vendor portals. You will learn less about making something from zero, see Reason #14.

Reason #36: Testing Is The Job

Your first “design” assignment is a spreadsheet. You inherit a DV/PV matrix with a hundred rows, a vibration rig queue that runs longer than your project, and a release date that only moves one way. You thought the model came first. The fixtures come first. The plan comes first. The report gets written before anything breaks (see Reason #33). 

This is not an accident. Mechanical work is judged by what survives. So you learn to schedule shaker time, thermal soak cycles, and drop tests before you learn to explore. You machine coupons for fatigue because certification asks for numbers older than your plant. You write acceptance criteria that trace to UL and CE clauses. You buy more thermocouples. You design fixtures that will never be sold and debug chambers that will never leave the lab. The fun part is a sprint. Verification is the marathon.

The language shifts under you. “Design review” means the test plan. “Prototype” means a bundle of fixtures and a work instruction. “Root cause” means fill the DFMEA column that says detection. You manage polymer creep in a clamp, not a new mechanism. You chase a tolerance stack because the metrology says the fixture moved, not the part. None of this reads like the brochure. All of it reads like your calendar.

Oversupply makes the pattern stick. When there are ten résumés for every seat (see Reason #24), the safest task wins the headcount. The safest task is proving the last thing works one more time. You can call that quality. You can also call it the cheapest way to keep a line running while the new ideas live somewhere else (see Reason #21 and Reason #7).

Management loves testing because testing is visible. Schedules track green boxes that say complete. Finance loves it because the spend is traceable to requirements (see Reason #23). You will love it on the days when the fixtures repeat and the plots behave. What part of that sounds like design?

Software tests run in seconds and report results the same day. Chemical process validation produces live yield data. Mechanical validation takes weeks, consumes fixtures, and generates reports that outlive the engineer who wrote them.

If you picture yourself drawing the future, prepare to spend most days measuring the present and filing it.

Reason #35: Timeless Core, Stalled Field

You study what your great-grandfather studied. Statics, dynamics, materials, thermo, fluids, machine design. The pillars are the same and the proofs are the same, only hidden by newer notation and nicer figures. The pitch has not changed because the curriculum has not changed, which is one reason the degree remains the default choice for undecided engineers (see Reason #4). A century ago you could have earned this degree with different fonts and a stack of physical textbooks. Today you do it with software and spreadsheets.

Mechanical engineering hardened its theory in the horse-and-buggy age and never truly moved the fence. Classical dynamics still begins with Newton and ends with the same small vibrations and rigid bodies your predecessors solved for carts and linkages. Thermo still marches through Carnot, Rankine, Otto, Brayton, property tables that were already old when the first steam turbines turned. Fluids still pivots on Reynolds and the same laminar to turbulent stories. Modern wrappers arrive, but the center hardly moves. You learn timeless laws and then watch them wear new GUIs.

Meanwhile next door the ground keeps shifting, sometimes literally. Electrical grew whole new pillars: solid-state physics, digital logic, information theory, signal processing, control as software, learning systems. Chemical tunneled from unit ops to molecular design, catalysis, polymers, and bio-process as normal coursework. Aero pushed wind-tunnel intuition into high-order CFD, composite structures, fly-by-wire, GN&C, and hypersonics. Even Civil keeps adding layers because reality forced it to: climate change pushes performance-based design and coastal resilience; thawing permafrost and subsidence rewrite geotechnical assumptions; environmentalism and sustainability drag life-cycle carbon and durability science into the core; BIM turns drawings into living models. Their syllabi changed because the discipline did.

The accreditation body confirms the pattern. ABET publishes program-specific criteria that every accredited engineering program must satisfy. These criteria define the mandatory curricular areas for each discipline. Table 1 compares the current requirements. Civil engineering now explicitly requires computer science or data science and principles of sustainability, risk, and resilience as mandatory curriculum areas. Electrical engineering requires software systems design, discrete mathematics, data structures, and computer programming. Chemical engineering's criteria are being actively rewritten right now, with proposed changes posted in October 2025 adding biologically-based engineering applications and faculty development mandates. Aerospace's criteria are also under active revision, with new proposed language posted the same month (ABET, 2025a). Mechanical engineering's program-specific criteria require “coverage of both thermal and mechanical systems” and “in-depth coverage of either thermal or mechanical systems.” That is the entire discipline-specific requirement. It is the same language ABET published in the 2003-2004 cycle, the first year program-specific criteria existed under EC2000 (ABET, 2003). It is the same language in the 2025-2026 cycle. It is the same language in the 2026-2027 cycle. No proposed changes have been posted. No review is underway. Four other disciplines either evolved their accreditation requirements or are evolving them right now. Mechanical engineering's accreditor has not asked the fence to move because the discipline never asked the accreditor (see Reason #13) (ABET, 2025b).

Table 1. ABET Program-Specific Curriculum Requirements by Engineering Discipline, 2025-2026

Discipline	Key Required Curricular Areas	21st-Century Additions	Proposed Changes (2026-27)
Civil	Mechanics, materials, numerical methods, design in 2+ contexts, problems in 4+ specialty areas	Computer science or data science; sustainability, risk, and resilience	None posted (criteria recently updated)
Electrical / Computer	Probability/statistics, calculus, sciences, complex devices/software/systems with HW+SW components	Discrete math, data structures, programming (computer); linear algebra, complex variables (electrical)	None posted (criteria recently updated)
Chemical	Diff. equations, statistics, advanced chemistry and physics	Being actively rewritten	Yes: bio-based engineering applications, faculty development mandates
Aerospace	Aerodynamics, materials, structures, propulsion, flight mechanics, stability and control	Orbital mechanics, space environment, attitude determination, telecommunications (astronautical)	Yes: new proposed criteria posted Oct. 2025
Mechanical	Thermal systems, mechanical systems	None	None posted. None under review.

Source: ABET, Criteria for Accrediting Engineering Programs, 2025-2026 and 2026-2027 editions. Proposed changes from Section IV of each edition. ME criteria verified identical in 2003-2004, 2011-2012, 2014-2015, 2018-2019, 2021-2022, 2025-2026, and 2026-2027 editions.

Five disciplines. Four of them either added 21st-century requirements to their accreditation criteria or are rewriting them as you read this. One of them has not changed a word in more than two decades and has nothing proposed. That is mechanical engineering. The field that markets itself as the broadest degree in engineering (see Reason #8) is the only one whose accreditor still defines the curriculum with a phrase that would have fit on a syllabus in 1960: thermal systems and mechanical systems. The curriculum still trains you for invention. The market gives 84 percent of you custodial and compliance work instead (see Reason #14).

ME updates the lab rather than the laws. Control might offer a taste of state-space before returning to Bode plots. Mechatronics shows up so you can speak to the controller someone else owns. Senior design adds process and teamwork because the content does not add a new law. You can call that timeless. You can also call it stuck (see Reason #7). The gap between what the frozen curriculum teaches and what the job actually demands is why the plant has to re-educate you from day one (see Reason #52).

If you want tools that last forever, ME will give you a very, very solid set. If you want to stand where the frontier is moving, you will spend most days watching it pass your classroom on its way to other departments.

References

ABET. (2003). Criteria for accrediting engineering programs, 2003-2004. Retrieved from Internet Archive: https://web.archive.org/web/20030405224809/http://www.abet.org/images/Criteria/E1%2003-04%20EAC%20Criteria%2011-15-02.pdf

ABET. (2015). Criteria for accrediting engineering programs, 2014-2015. https://www.abet.org/wp-content/uploads/2015/04/E001-14-15-EAC-Criteria.pdf

ABET. (2025a). Proposed changes to accreditation criteria. https://www.abet.org/accreditation/accreditation-criteria/proposed-changes/

ABET. (2025b). Criteria for accrediting engineering programs, 2025-2026. https://www.abet.org/wp-content/uploads/2024/11/2025-2026_EAC_Criteria.pdf

ABET. (2025c). Criteria for accrediting engineering programs, 2026-2027. https://www.abet.org/accreditation/accreditation-criteria/criteria-for-accrediting-engineering-programs-2026-2027/

Reason #34: Two and a Half MEs

For every mechanical-engineering opening, there are about two and a half of you. Call it Two and a Half MEs. No laugh track, no Malibu beach house, just arithmetic you cannot out-argue (see Reason #24 and Reason #1).

Here are the numbers you live under. Openings run about 18,100 per year in mechanical engineering (BLS, 2025). In a recent year, 36,224 new ME bachelor's degrees were awarded (NCES, 2022). Initial H-1B entrants in mechanical-engineering occupations added another 2,714 fresh competitors (USCIS, 2025). About 5,300 already-qualified MEs were unemployed at any moment using a 1.8% proxy for the broader architecture and engineering group, applied to 286,760 employed MEs (BLS CPS & OEWS, 2025). Mechanical Engineering Technology graduates add roughly 1,455 more who often apply to the same requisitions (ASEE, 2024). Add that up and you get roughly 45,700 people for 18,100 seats, or about 2.5 applicants per opening. The flow is steady, not a one-off spike (USCIS, 2025; NCES, 2022).

Table 1. The ME Supply-Demand Arithmetic, Annual Snapshot

Supply Component	Annual Count	Source
ME bachelor's degrees awarded	36,224	NCES, 2020-21
Already-unemployed MEs (1.8% proxy)	~5,300	BLS CPS/OEWS, 2025
H-1B initial entrants (ME occupations)	2,714	USCIS FY2024, Table 8
ME Technology bachelor's graduates	1,455	ASEE, 2023
Total annual supply	~45,700
Annual openings (demand)	18,100	BLS OOH, 2024-34
Ratio (supply per opening)	2.5 : 1

Sources: NCES Table 325.47 (2022 Digest); BLS CPS Table 25 and OEWS (2025); USCIS Characteristics of H-1B Specialty Occupation Workers, FY 2024, Table 8; ASEE Engineering & Engineering Technology by the Numbers, 2023 edition; BLS Occupational Outlook Handbook (2024-2034 projections).

The H-1B line in Table 1 deserves a closer look, because it does not affect every engineering discipline equally. Table 2 shows the breakdown. USCIS approved 2,714 initial H-1B petitions for mechanical engineering occupations in FY 2024. That is more than civil engineering (1,756) and not far behind industrial (2,080). Electrical engineering draws the most at 3,949, but EE also has 17,500 openings per year to absorb them. ME has 18,100. The ratio of H-1B entrants to openings is similar, but ME is already running a larger domestic surplus. The H-1B inflow makes a tight market tighter. It does not create the problem. It compounds it.

The "continuing employment" column matters just as much. Those 5,296 ME renewals represent H-1B holders already sitting in roles whose employers chose to keep them rather than open the seat. Civil engineering has 2,271 continuing. Industrial has 3,291. ME's continuing total is the second highest of any named engineering category, behind only electrical. That is 5,296 positions per year that did not become openings for anyone else.

Table 2. H-1B Petitions Approved for Initial Employment by Engineering Occupation, FY 2024

USCIS Occupation Category	Initial Employment	Continuing Employment	Total Approved
Architecture, Eng., and Surveying, N.E.C. *	4,624	5,392	10,016
Electrical/Electronics Engineering	3,949	9,296	13,245
Mechanical Engineering	2,714	5,296	8,010
Industrial Engineering	2,080	3,291	5,371
Civil Engineering	1,756	2,271	4,027
Engineering subtotal	15,123	25,546	40,669

Source: USCIS, Characteristics of H-1B Specialty Occupation Workers: Fiscal Year 2024 Annual Report to Congress, Table 8. "Initial employment" = new H-1B entrants. "Continuing employment" = renewals or extensions of workers already in H-1B status. * "N.E.C." = Not Elsewhere Classified. This catch-all includes aerospace, chemical, biomedical, environmental, nuclear, and all other engineering occupations not listed by name.

What does two and a half per seat do to "entry-level"? Well, you already know if you read Reason #12, but if not. It turns "preferred" into required. It turns "nice to have" into the first screen. It makes internships the gate you were told to use, then it removes the gate for your field (see Reason #5) or replaces it with seasonal technician work that does not carry over. In a crowd, hiring favors the person who already lived inside the fixtures and calendars you will inherit (see Reason #10) not the person who could learn them quickly (see Reason #14). What do you think "preferred experience" means in a market like that?

It stays crowded because the pipeline keeps refilling. ME is the default major for undecided engineers, so the inflow never slows even when the roles narrow (see Reason #4). Your pool is not just your class; it is global, it is last year's class, and it is incumbents who never left the queue (again, see Reason #24). There is no guild to thicken the shield when budgets tighten or when titles blur between engineer and technologist without changing the work (see Reason #13).

Table 3 shows what this looks like when you line up degrees against openings across disciplines. ME awards 36,224 bachelor's degrees for 18,100 openings. Two graduates per seat. Civil engineering awards 15,051 degrees for 23,600 openings. Fewer graduates than jobs. Electrical is nearly balanced at 16,914 to 17,500. Industrial engineering has four times as many openings as graduates. The field that sells itself as the broadest, most flexible option produces the worst degree-to-opening ratio of any named engineering discipline except chemical, and chemical's number is a BLS coding artifact, not a placement problem.

Table 3. Bachelor's Degrees vs. Annual Openings by Engineering Discipline

Discipline	BS Degrees	BLS Openings/yr	Degrees per Opening
Mechanical Engineering	36,224	18,100	2.0
Computer Engineering †	7,338	4,700	1.6
Aerospace Engineering †	5,251	4,500	1.2
Electrical/Electronics Eng.	16,914	17,500	1.0
Chemical Engineering	9,986	1,100	9.1 *
Civil Engineering	15,051	23,600	0.6
Industrial/Mfg/Systems †	5,847	25,200	0.2
Computer Sci. (inside Eng.) †	26,324	129,200 **	0.2

Sources: Degree counts for mechanical, civil, electrical/electronics, and chemical engineering from NCES Table 325.47, Digest of Education Statistics, 2022 edition (2020-21 academic year). Degree counts marked † from ASEE Engineering & Engineering Technology by the Numbers, 2023 edition, Table 1.1.1 (2022-23 academic year), because NCES does not break out those disciplines. BLS openings from Occupational Outlook Handbook, 2024-2034 projections. Sorted by degrees per opening, highest first. Counts reflect bachelor's degrees only and do not include H-1B entrants, unemployed incumbents, or engineering technology graduates.

* Chemical engineering's high ratio reflects BLS coding: only 1,100 annual openings are classified under "chemical engineers," but many ChemE graduates enter pharma, biotech, and process roles coded under other occupations.
** Computer Science (inside Engineering) is shown in italics because its BLS match is "software developers, QA analysts, and testers" (129,200 openings/yr), a broad category absorbing graduates from CS programs both inside and outside engineering schools, bootcamps, and self-taught developers.

Table 3 only counts degrees. It leaves out H-1B entrants, unemployed incumbents, and engineering technology graduates. Tables 4-A through 4-E run the same four-component supply calculation from Table 1 on every other discipline, and Table 5 puts the results side by side. The methodology is identical: bachelor's degrees plus unemployed proxy plus H-1B initial entrants plus engineering technology graduates, divided by BLS projected annual openings.

Look at civil engineering in Table 4-B. Even after adding 1,756 H-1B entrants, 6,640 unemployed incumbents, and 213 technology graduates on top of 15,051 bachelor's degrees, the total supply is 23,660 for 23,600 openings. One to one. The market absorbs essentially everyone. Industrial engineering in Table 4-C is even better. Fewer than 16,000 people competing for 25,200 seats. A 0.6 ratio. More openings than candidates. These are not exotic fields. They are standard engineering disciplines taught at the same universities, with the same four-year commitment, the same calculus sequence, the same senior design capstone. The difference is what happens after graduation.

Table 4-A. Electrical/Electronics Engineering Supply-Demand Arithmetic

Supply Component	Annual Count	Source
EE bachelor's degrees awarded	16,914	NCES, 2020-21
Already-unemployed EEs (1.8% of ~287,900)	~5,182	BLS OOH/CPS proxy
H-1B initial entrants (EE occupations)	3,949	USCIS FY2024, Table 8
EE Technology bachelor's graduates	536	ASEE, 2023
Total annual supply	~26,581
Annual openings (demand)	17,500	BLS OOH, 2024-34
Ratio (supply per opening)	1.5 : 1

Table 4-B. Civil Engineering Supply-Demand Arithmetic

Supply Component	Annual Count	Source
Civil Eng. bachelor's degrees awarded	15,051	NCES, 2020-21
Already-unemployed CEs (1.8% of ~368,900)	~6,640	BLS OOH/CPS proxy
H-1B initial entrants (civil eng.)	1,756	USCIS FY2024, Table 8
Civil Eng. Technology bachelor's graduates	213	ASEE, 2023
Total annual supply	~23,660
Annual openings (demand)	23,600	BLS OOH, 2024-34
Ratio (supply per opening)	1.0 : 1

Table 4-C. Industrial Engineering Supply-Demand Arithmetic

Supply Component	Annual Count	Source
Industrial Eng. bachelor's degrees †	5,847	ASEE, 2022-23
Already-unemployed IEs (1.8% of ~351,100)	~6,320	BLS OOH/CPS proxy
H-1B initial entrants (industrial eng.)	2,080	USCIS FY2024, Table 8
Industrial Eng. Technology bachelor's graduates	998	ASEE, 2023
Total annual supply	~15,245
Annual openings (demand)	25,200	BLS OOH, 2024-34
Ratio (supply per opening)	0.6 : 1

Table 4-D. Aerospace Engineering Supply-Demand Arithmetic

Supply Component	Annual Count	Source
Aerospace Eng. bachelor's degrees †	5,251	ASEE, 2022-23
Already-unemployed AEs (1.8% of ~71,600)	~1,289	BLS OOH/CPS proxy
H-1B initial entrants (aerospace eng.)	N/A *	In USCIS N.E.C. catch-all
Aerospace Eng. Technology bachelor's grads	211	ASEE, 2023
Total annual supply (floor)	~6,751+
Annual openings (demand)	4,500	BLS OOH, 2024-34
Ratio (supply per opening, floor)	1.5+ : 1

* USCIS does not break out aerospace engineering individually. Aerospace H-1B approvals are included in "Architecture, Engineering, and Surveying, N.E.C." (4,624 total initial approvals for all unlisted engineering disciplines). The true supply is higher than shown.

Table 4-E. Chemical Engineering Supply-Demand Arithmetic

Supply Component	Annual Count	Source
Chemical Eng. bachelor's degrees awarded	9,986	NCES, 2020-21
Already-unemployed ChemEs (1.8% of ~21,600)	~389	BLS OOH/CPS proxy
H-1B initial entrants (chemical eng.)	N/A *	In USCIS N.E.C. catch-all
Chemical Eng. Technology bachelor's grads	N/A	Not listed in ASEE
Total annual supply (floor)	~10,375+
Annual openings (demand)	1,100	BLS OOH, 2024-34
Ratio (supply per opening, floor)	9.4+ : 1 **

* USCIS does not break out chemical engineering individually. ** Chemical engineering's extreme ratio reflects BLS occupation coding, not actual placement difficulty. BLS classifies only 1,100 annual openings under "chemical engineers," but ChemE graduates routinely enter pharma, biotech, and process roles coded under different occupations.

Table 5 is the punchline. Same methodology, same sources, same year. ME sits at the top at 2.5 to 1. Electrical is 1.5. Aerospace is 1.5 and that is a floor estimate because its H-1B data is hidden in the catch-all. Civil is perfectly balanced. Industrial has a surplus of openings. The discipline you were told was the safest, broadest, most flexible choice is the most oversaturated by every measure the federal government publishes.

Table 5. Full Supply-Demand Ratio by Engineering Discipline

Discipline	Total Supply	BLS Openings/yr	Supply per Opening
Mechanical Engineering	~45,700	18,100	2.5
Electrical/Electronics Eng.	~26,581	17,500	1.5
Aerospace Engineering	~6,751+	4,500	1.5+
Civil Engineering	~23,660	23,600	1.0
Industrial/Mfg/Systems Eng.	~15,245	25,200	0.6
Chemical Engineering **	~10,375+	1,100	9.4+

Sources: See Tables 1 and 4-A through 4-E. All supply totals use the same four-component methodology (bachelor's degrees + unemployed proxy + H-1B initial entrants + engineering technology graduates). Aerospace and chemical totals are floor estimates because USCIS does not break out their H-1B data individually. ** Chemical engineering's ratio is inflated by BLS occupation coding; see Table 4-E footnote. Sorted by ratio, excluding chemical.

And none of this is new. Table 6 shows ME bachelor's degrees over fifteen years alongside the BLS projected annual openings that applied during each period. The degree count nearly doubled in a decade, from 18,498 in 2009-10 to a peak of 37,353 in 2019-20. It has since declined to 28,568 in 2023-24, a 24 percent drop from the peak. The BLS openings figure ranged from 17,900 to 21,200 across that same window. In 2009-10, the degree count was below the openings figure. By 2015-16, ME was awarding more degrees than the BLS projected openings in any cycle. By 2017-18, the ratio crossed 1.7 using the most generous openings figure the BLS ever published for this occupation. Even now, after three straight years of declining degree production, the ratio still sits at 1.6. The supply doubled, peaked, and fell. The demand never moved. Civil engineering degrees grew too, from 11,335 to 15,051 over the same window, but civil had 23,600 openings per year waiting for them. ME never had more than 21,200. The pipeline kept filling. The exits did not widen. And even when the pipeline finally narrowed, the exits stayed the same size.

Table 6. ME Bachelor's Degrees Awarded vs. BLS Projected Annual Openings, 2009-10 to 2023-24

Academic Year	ME Bachelor's Degrees	Change from Prior	BLS Openings/yr *	BLS Cycle	Degrees per Opening
2009-10	18,498		21,200	2016-26	0.9
2010-11	19,171	+673	21,200	2016-26	0.9
2011-12	20,541	+1,370	21,200	2016-26	1.0
2012-13	21,990	+1,449	21,200	2016-26	1.0
2013-14	24,301	+2,311	21,200	2016-26	1.1
2014-15	26,394	+2,093	21,200	2016-26	1.2
2015-16	29,216	+2,822	21,200	2016-26	1.4
2016-17	32,308	+3,092	21,200	2016-26	1.5
2017-18	35,181	+2,873	21,200	2016-26	1.7
2018-19	36,817	+1,636	19,200	2019-29	1.9
2019-20	37,353	+536	20,200	2020-30	1.8
2020-21	36,224	-1,129	17,900	2022-32	2.0
2021-22 †	32,891	-3,333	19,200	2022-32 rev.	1.7
2022-23 †	29,792	-3,099	19,200	2022-32 rev.	1.6
2023-24 †	28,568	-1,224	18,100	2024-34	1.6

Sources: Degree data for 2009-10 through 2020-21 from NCES Table 325.47, Digest of Education Statistics (2022 edition). Rows marked † use ASEE Engineering & Engineering Technology by the Numbers (2022, 2023, and 2024 editions, Table 1), which covers a smaller institutional sample than NCES; counts are not directly comparable to NCES rows but reflect the same directional trend. BLS projected annual openings from Table 1.10, Occupational Separations and Openings, Employment Projections program, SOC 17-2141.

* BLS projects annual openings as decade-long averages, not year-by-year counts. The openings figure shown for each row is from the projection cycle in effect at the time, verified from archived BLS data via the Wayback Machine. Complete cycle history: 2016-26 cycle: 21,200/yr; 2019-29 cycle: 19,200/yr; 2020-30 cycle: 20,200/yr; 2022-32 cycle (original Sept 2022): 17,900/yr; 2022-32 cycle (revised Sept 2023): 19,200/yr; 2024-34 cycle (current): 18,100/yr. The 2016-26 cycle is the earliest for which BLS published annual openings in this format (Table 1.10 was introduced with the 2016-26 separations methodology). "Degrees per opening" counts only bachelor's degrees and does not include H-1B entrants, unemployed incumbents, or engineering technology graduates.

Geography gets a vote. Physical tests, line stops, supplier trials, and pilot builds happen in places, not in browsers. When the opening finally picks a name, it often picks the person within driving distance of the plant (see Reason #20). The arithmetic that crowded you into the funnel is the same arithmetic that either keep you near the fixtures after you get through (see Reason #25) or in greener pastures (see Reason #22) if you don't.

References

American Society for Engineering Education. (2023). Engineering & Engineering Technology by the Numbers, 2022. https://ira.asee.org/by-the-numbers/

American Society for Engineering Education. (2024). Engineering & Engineering Technology by the Numbers, 2023. https://ira.asee.org/by-the-numbers/

American Society for Engineering Education. (2025). Engineering & Engineering Technology by the Numbers, 2024. https://ira.asee.org/by-the-numbers/

Bureau of Labor Statistics. (2025). Aerospace engineers, Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/aerospace-engineers.htm

Bureau of Labor Statistics. (2025). Chemical engineers, Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/chemical-engineers.htm

Bureau of Labor Statistics. (2025). Civil engineers, Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/civil-engineers.htm

Bureau of Labor Statistics. (2025). Computer hardware engineers, Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/computer-hardware-engineers.htm

Bureau of Labor Statistics. (2025). Data tables for the overview of May 2024 occupational employment and wages. https://www.bls.gov/oes/2024/may/featured_data.htm

Bureau of Labor Statistics. (2025). Electrical and electronics engineers, Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/electrical-and-electronics-engineers.htm

Bureau of Labor Statistics. (2025). Industrial engineers, Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/industrial-engineers.htm

Bureau of Labor Statistics. (2025). Mechanical engineers, Occupational Outlook Handbook. https://www.bls.gov/ooh/architecture-and-engineering/mechanical-engineers.htm

Bureau of Labor Statistics. (2025). Software developers, quality assurance analysts, and testers, Occupational Outlook Handbook. https://www.bls.gov/ooh/computer-and-information-technology/software-developers.htm

Bureau of Labor Statistics. (2025). Table 1.10: Occupational separations and openings, projected 2024-34. Employment Projections. https://www.bls.gov/emp/tables/occupational-separations-and-openings.htm

Bureau of Labor Statistics. (2025). Unemployed persons by occupation and sex (Annual averages). https://www.bls.gov/cps/cpsaat25.htm

National Center for Education Statistics. (2022). Table 325.47: Degrees in chemical, civil, electrical, and mechanical engineering, 1959-60 through 2020-21. https://nces.ed.gov/programs/digest/d22/tables/dt22_325.47.asp

U.S. Citizenship and Immigration Services. (2025). Characteristics of H-1B specialty occupation workers: Fiscal Year 2024 Annual Report to Congress. https://www.uscis.gov/sites/default/files/document/reports/ola_signed_h1b_characteristics_congressional_report_FY24.pdf