The STEM Issue
Source: HESA (Higher Education Statistics Agency), 2023/24
Universities most at risk following the UK Immigration White Paper
In a post on LinkedIn, Asia Careers Group SDN BHD highlighted the universities with most to fear, from the new compliance criteria in the UK Immigration White Paper. These universities have the highest number of students from Nigeria, Pakistan, and Sri Lanka, where the issuance of student and work visas will face increased scrutiny, with a far higher likelihood of refusal, as the government believe that these countries pose the highest likelihood of students claiming asylum and/or overstaying their visa.
In terms of publicly funded universities: University of Hertfordshire; Ulster University; Teesside University; University of South Wales; Glasgow Caledonian University; University of Sunderland; University of Derby; The University of Salford; The Manchester Metropolitan University and Coventry University all have over 2000 students from “at risk countries.” BPP University is a private institution with over 7000 students from the countries highlighted by the UK Home Office, as most likely to claim asylum.
The statistics from a secret UK Home Office database, covering the 12 months to March 2023, show 6,136 asylum cases were lodged by foreign students, which is more than a four-fold surge on the previous year.
Study Group sponsored visas for 804 foreign students who later claimed asylum. The company's total was skewed towards two nationalities: 642 asylum claims from Bangladesh and 156 from Pakistan.
The 2nd highest number of student visa-holders who claimed asylum in the year were sponsored by University of Portsmouth, with 395. Its claims included 252 Bangladeshis, 54 from Afghans, 38 from Cameroonians and 28 from Pakistanis.
3rd was De Montfort University with 310, followed by the University of Hertfordshire with 275, Coventry University with 217 and the University for the Creative Arts with 194.
Former Home Minister Suella Braverman is among those who have previously criticised the higher education sector's role in bringing vast numbers of foreign students to Britain, saying in 2024 that “Too many universities are selling immigration, not education.”
One of the most concerning elements of the white paper for vice-chancellors: the section on “Responsible Recruitment”. It outlines major reforms to how UK Visas and Immigration (UKVI) enforces compliance among student sponsors, arguing that current thresholds are “too lenient” and open to “abuse and exploitation”.
At present, the Basic Compliance Assessment (BCA) checks that institutions meet three key sponsorship criterias: a visa refusal rate below 10%, a course enrolment rate of at least 90% and a course completion rate of at least 85%.
The white paper proposes tightening all three thresholds by five percentage points. Data from the 2023 to 2024 BCA shows that 22 institutions would have failed at least one of the revised criteria. These institutions collectively sponsored around 49,000 students and saw about 400 visa refusals during the period.
The technical annex of the white paper notes that five of these institutions may be unable to meet the new standards and would therefore face a suspension of their sponsors’ license for at least a year. Given the current state of university finances, such sanctions would be catastrophic.
The response to our post was dramatic with over 55,000 post impressions, 35,000 members reached - 4% with the job title Professor, 2% CEO and 1% MD. With 1% of impressions from IDP, ApplyBoard, Nottingham Trent, UEA and Coventry etc. We had over 400 reactions, 60+ reshares and 40 comments. Within the comments many working within the UK sector questioned why India was not included in the “at risk” country list. The short answer is that India was not highlighted as “at risk” in the White Paper.
We feel there is also a political motive behind the fact that India was not mentioned, within the White Paper primarily that the UK was at the time engaged in complex trade negotiations with the Indian Government, announced on the 6th May following which the White Paper was published on the 12th May. Had India been referred to specifically as an “at risk” country this may have delayed and/or derailed what the UK PM Keir Starmer referred to as the “historic free trade agreement.”
That said, we feel that UKVI will most definitely be scrutinizing Indian student visa applications, specifically from six states, including Punjab, Haryana Uttar Pradesh, Rajasthan, Gujarat, and Jammu & Kashmir. These states have been widely rumoured to be subject to new visa restrictions to Australian universities and we feel it is unlikely that the UK Home Office will not be similarly cautious, due to the high numbers of fraudulent and “non genuine” student visa applications from these particular states.
The tightened criteria will no doubt concern UK Vice Chancellors up and down the country with four UK universities and one private provider [University of Glasgow, University of Central Lancashire (UcLan), De Montfort University & Nottingham Trent University and Study Group] having been already placed on UK Visas & Immigration (UKVI) action plans last year for failing to uphold visa sponsorship requirements. If universities fail to comply with the new thresholds, they could have their licenses to recruit international students suspended or revoked.
Provisional UK Home Office data suggest that nearly 20% of total international enrolments could be at threat if the changes go ahead, according to Nicholas Dillon, director at Nous Group. Dillon agreed that universities were likely to be “disincentivised” from recruiting from markets with a “moderate” risk of refusal.
Gary Davies, DVC at London Metropolitan University, was wary of the new limits for visa refusals in particular, arguing that universities often had no control over these decisions.
“We will withdraw from any markets that look even the slightest bit risky because we have already seen over the last year a greater level of uncertainty in the behavior of the entry clearance officers that do the visa interviews."
Whilst we maintain that this is a White Paper and as yet not legislation, university leadership will probably be most concerned with the new compliance criteria. They are right to be concerned and will need to tighten recruitment practices in order to not fall foul of the government’s new regime. Failure to do so and a number of universities losing their license to recruit internationally mid-recruitment cycle, could do untold damage to the reputation of the universities concerned with having to rescind offers to international students and the UK as a leading education destination.
STEM GRADUATE DATA
In this section, we shine a spotlight on the career pathways of STEM graduates, drawing on insights from our ACG international graduate outcomes data. As technology and innovation continue to transform industries, we examine how graduates in science, technology, engineering, and mathematics are stepping into a dynamic and fast-evolving job market. From the time it takes to secure their first roles to average starting salaries, and the growing interest of launching their own ventures, we uncover how STEM international graduates are carving out their futures in a highly competitive global landscape.
- GENERAL DATA –
To begin, we present an overall snapshot of STEM graduates, offering a broad view of key trends and outcomes in today’s job market.
According to our ACG data, STEM graduates account for approximately 27.29% of the total international graduate cohort.
1. Geographic Origin
The majority of international STEM graduates in our ACG dataset come from Malaysia, representing 18.16% of the total cohort. Singapore (17.21%), India (16.87%), and China (16.68%) follow closely behind, highlighting strong representation from across Asia. Hong Kong also contributes significantly at 10.25%, with additional STEM graduates’ presence from countries such as Indonesia, Thailand, and Vietnam.
2. Distribution of STEM Graduates Across University Groups
The concentration of STEM graduates varies across the four university groups, with certain Russell Group universities (red) showing a notably high concentration of STEM graduates at the top end of the scale. This is followed by a fairly even spread of graduates from UK (blue), AUS (green), and Group of Eight (yellow) universities across mid to lower range.
- EMPLOYMENT DATA –
This section presents employability data on international STEM graduates, covering key aspects such as employability rates, time to secure the first job, salary levels, industry sectors, and trends in entrepreneurship.
1. Average Employability Figures
The overall employability rate for STEM graduates stands at 91.98%—slightly higher than the overall graduate average of 91.20%, and also surpassing that of business graduates, which stood at 91.29% (as noted in our previous issue).
When examining employability by country, STEM graduates consistently outperform the overall averages across all major study destinations. The UK leads with the highest STEM employability rate at 92.06%, followed closely by Australia (91.89%), the US (91.71%), and New Zealand (91.62%). This suggests strong alignment between STEM skillsets and labour market demand in these regions.
A similar trend is seen across university groups where Russell Group universities show the highest STEM employability rate at 92.86%, slightly above the UK average overall. STEM graduates from Australian universities also perform well (92.40%), while those from the Group of Eight see a modest increase from the overall figure (90.63% vs. 89.42%), though lower than the average Australian universities.
2. Employability by University
Employability among STEM graduates remains consistently high across all university groups, with most institutions reporting rates above 80% and many clustering around or above 90%. Russell Group and other UK universities are especially prominent among the top-performing institutions, reflecting strong employment outcomes for their STEM cohorts. Notably, the university with the highest employability rate is from Australia. While other Australian universities and those from the Group of Eight also perform competitively, the Group of Eight institutions appear more evenly distributed across the range, suggesting greater variability in graduate outcomes within that group.
3. Employability by Year of Graduate
When outliers are included, the employability of STEM graduates in both Australia and the UK shows a visible decline over time, especially after 2019. The drop is steeper for UK graduates, but by 2023–2024, UK employability surpasses that of Australia.
If compared with business students, Australian graduates’ employability was higher than the UK’s throughout 2015 to 2025, but for STEM, certain years like the 2022 to 2024 graduating cohorts, UK’s graduates’ employability was higher.
However, when outliers are removed, the trend stabilises considerably. Both regions show high and relatively consistent employability, with Australia slightly ahead in most years, except for the 2020 and 2025 cohorts, where the UK pulls ahead.
This difference highlights how a small subset of graduates- particularly in the UK, may be facing greater difficulty entering the workforce, which skews the overall averages downward. It also points to increasing polarisation, where the gap between those securing employment and those who don’t is widening in certain cohorts, indicating a growing disparity in graduate outcomes.
- MONTHS TO FIRST JOB –
4. Average time taken to first job (in Months)
STEM international graduates take an average of 19.71 months to secure their first job, quicker than their business counterparts, who take an average of 21.25 months.
When broken down by university group, STEM graduates from Russell Group universities secure jobs the quickest at just 17.86 months, followed closely by those from the Group of Eight (18.15 months) and UK universities overall (19.14 months). In contrast, Australian STEM graduates take longer, averaging 22.76 months.
Notably, graduates from prestigious institutions within the Group of Eight and Russell Group enter the workforce about a month sooner than their national peers. This suggests that graduates from globally recognised university groups such as the Russell Group and Group of Eight may have stronger access to job opportunities, employer networks and career support, helping them transition into the workforce more efficiently.
5. Average time taken to first job (in Months) by University
STEM graduates from the UK tend to secure jobs faster, with the top-performing universities (many of which belong to the Russell Group) showing particularly short job search times. On average, the top 7 universities place graduates in less than a year, while the top 10 achieve this in under 14 months.
While graduates from Australia’s Group of Eight universities may not match the speed of their UK counterparts, they still outperform graduates from other Australian universities, further highlighting how attending globally recognised institutions, such as the Russell Group and Group of Eight can significantly enhance employability outcomes for STEM graduates.
6. Relationship between average time taken to first job (in Months) and Employability
Sorted by Months to First Job
This graph shows that universities where STEM graduates secure jobs more quickly often have solid employability rates, frequently above 80%. However, the connection between faster job placement and higher employability isn't always consistent. Several universities with longer timeframes still see solid outcomes, showing that speed alone doesn’t determine success in the job market.
Sorted by Employability
When sorted by employability, UK and Russell Group universities lead with consistently high rates and often shorter job search times. Australian universities show a more mixed pattern where some institutions take longer to place graduates but still deliver strong employability results. This suggests that other factors, such as institutional reputation and regional job markets, also influence outcomes beyond just speed to employment.
Note:
When universities have a low time to first job but a not-so-high employability rate, it often indicates that while many graduates find employment quickly, not all of them secure jobs. One possible reason is that graduates may take on temporary or part-time roles that are not aligned with their qualifications. These positions allow them to enter the workforce quickly but may not be counted towards full-time, long-term employment, which can affect the overall employability rate. Additionally, some graduates may initially accept entry-level or suboptimal positions, which, while offering a starting point in their careers, may not be reflective of the long-term, career-oriented employment that typically defines a high employability rate.
- ANNUAL SALARY –
7. a. Average Annual Salary
The annual salary for international STEM graduates stands at £22,004, just slightly higher than business graduates, who earned £21,906 according to our previous issue. While the gap is modest, it suggests that STEM degrees may offer a marginal financial edge. However, deeper differences emerge when comparing by level of study.
b. Average Annual Salary by Level of Study
According to the latest data, STEM graduates with a doctoral degree earn the highest average salary at £25,188, followed by undergraduates at £24,424. Surprisingly, postgraduate (master’s level) STEM graduates earn significantly less, averaging only £18,739. Perhaps for international students in STEM fields, a PhD offers the best earning potential, while master’s degrees may not translate into immediate salary advantages.
Comparison of STEM and Business Salaries for International Graduates
When comparing STEM and Business salaries by level of study, some interesting patterns emerge. STEM undergraduates earn slightly more than their Business counterparts, with a £520 advantage. However, at the postgraduate level, Business graduates outperform STEM graduates by £1,196, which is a notable gap that might prompt STEM postgraduate students to question the short-term returns of their qualification. Meanwhile, at the doctoral level, salaries are nearly identical, with Business edging ahead by just £88.
Though the average difference among the two fields is just £98, the benefits vary significantly depending on the level of study.
c. Average Annual Salary by University
Interestingly, the top two earners for STEM graduate salaries are average UK universities, with a Russell Group institution coming in third. While the Russell Group is well represented, its universities are distributed fairly evenly across the spectrum, with few performing strongly at the top, but many positioned around the middle ranges. The Group of Eight too appears less prominently and is similarly dispersed. Though it is notable that several average Australian universities also deliver competitive salaries, illustrating that strong graduate outcomes in STEM aren’t limited to just the most prestigious institutions.
d. Average Annual Salary by Industry
Healthcare and pharmaceuticals top the list for STEM graduate salaries (£29,733), followed by finance-related fields (£28,000) and a mixed “Others” category (£27,211), likely covering niche technical roles.
Interestingly, computing and AI sit mid-range (£22,308), possibly due to high competition or lower entry-level pay. On the lower end are sectors like design, fashion, and agriculture, which may offer fewer specialised STEM roles.
In light conclusion, the data suggests that while STEM skills may open doors across many sectors, earnings potential varies significantly depending on industry demand, as well as the technical complexity of the role.
Information Technology (IT) field rank as the most popular industry for STEM graduates, followed by Finance and Education-related. Traditional fields like engineering and healthcare remain strong choices, though they rank slightly lower in popularity (rank 4 and 5). Interestingly, high-paying sectors like healthcare and consulting aren’t necessarily the most sought after, suggesting that factors like interest, accessibility, and perceived career growth may weigh more heavily than salary alone when graduates choose their paths.
- TOP INDUSTRIES –
8. Top Industries where STEM graduates are most successful
The following table provides an overview of STEM graduates' contribution to the global workforce and their impact across key sectors.
*The sector impact rating reflects the ranking of industries based on the proportion of STEM graduates. In this case, the percentage is represented by the STEM graduate proportion (%), where a higher percentage indicates a greater representation of STEM Graduates within the workforce, leading to a higher ranking for that sector.
Top 5 Highest-Earning Industries for STEM Graduates Returning Home:
- Healthcare/ Pharmaceutical: £29,733
- Finance/ Banking/ Economics/ Law: £28,000
- Others: £27,211
- Transport/ Logistics: £26,233
- Media/ Entertainment: £23,885
Top 5 Most Popular Industries Among STEM Graduates:
- Computing/ Technology/ AI/ Cyber Security
- Finance/ Banking/ Economics/ Law
- Education/ Research
- Engineering/ Aerospace/ Energy
- Healthcare/ Pharmaceutical
Top 5 Sectors with the Highest Representation of STEM Graduates:
- Engineering/ Aerospace/ Energy
- Healthcare/ Pharmaceutical
- Construction/ Mining
- Agriculture
- Computing/ Technology/ AI/ Cyber Security
The highest-earning industries for STEM graduates are Healthcare and Pharmaceuticals, Finance, and Others, with salaries ranging from £29,733 to £27,211. The most popular sectors are IT, Finance, Education and Research, while STEM graduates are most represented in Engineering, Healthcare and Construction.
- ENTREPRENEURSHIP –
9. Are STEM graduates likely to start their own businesses after studying abroad?
STEM graduates appear slightly less likely to start their own businesses after studying abroad compared to graduates overall. While 12.10% of STEM graduates identify as entrepreneurs, this is just below the overall average of 13.11%. The majority of STEM graduates (53.26%) take up full-time or permanent roles, suggesting a stronger lean toward stable employment over entrepreneurship in the immediate post-study phase.
10. Where did STEM graduate entrepreneurs study?
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Most STEM graduate entrepreneurs studied in the UK (60.69%), followed by Australia (31.72%), with much smaller shares in the US (7.04%) and New Zealand (0.55%). However, when looking at entrepreneurship concentration- the proportion of graduates in each country who became entrepreneurs, the US leads at 34.07%, indicating a stronger entrepreneurial tendency among STEM graduates there. This is followed by New Zealand (28.57%), the UK (25.52%), and Australia (24.11%). So, while the UK produces the most STEM entrepreneurs in total, the US appears to foster a higher entrepreneurial mindset relative to its graduate population.
Bonus: Top Universities – Popular choices that foster entrepreneurship among STEM graduates
Based on our ACG data, here’s a short list of top universities in the UK and Australia that foster strong entrepreneurial opportunities among STEM international graduates.
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11. Level of study pursued by STEM Graduates Entrepreneurs (SGE) and the proportion of SGE at each level
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Most STEM graduate entrepreneurs (SGEs) completed their studies at the undergraduate level (53.27%), followed by postgraduates (44.15%), and a small proportion at doctoral level (2.58%).
However, when looking at their concentration within each study level, SGEs make up the highest share of doctoral graduates (36.84%), compared to 27.71% of undergraduates and 22.89% of postgraduates. While most SGEs come from UG and PG backgrounds simply due to volume, doctoral graduates appear to be the most entrepreneurially inclined relative to their group size.
This contrasts with business graduates, where postgraduates (likely MBAs) dominate at 53%, while only 26.32% of business entrepreneurs hold doctoral degrees. The higher proportion of PhD entrepreneurs in STEM is perhaps unsurprising, given the field’s research-driven nature and greater tendency to pursue advanced study, despite PhDs being a small group overall.
12. Level of study pursued by SGE across countries of study
When comparing where STEM graduate entrepreneurs (SGEs) study by level, both Australia and the UK show a higher share at the undergraduate level. However, the UK shows a closer balance between UG and PG, while Australia leans more heavily toward UG pathways. Doctoral-level entrepreneurs remain a small minority in both countries.
The stronger postgraduate presence in the UK may reflect the prominence of master’s-level STEM programs, or perhaps greater encouragement for entrepreneurship at the postgraduate stage.
13. Country with the most STEM graduates likely to pursue entrepreneurship
According to our ACG international graduate outcome data, India leads in the number of STEM graduates pursuing entrepreneurship, followed by Malaysia and Singapore. However, when looking at entrepreneurship concentration: the percentage of graduates becoming entrepreneurs, Sri Lanka ranks first at 37.10%, despite being 10th in total numbers. Similarly, Pakistan ranks 9th by quantity but 2nd by concentration (33.58%). This contrast highlights that while larger countries contribute more graduates overall, smaller nations often show a stronger entrepreneurial inclination among their STEM graduates.
With that, we conclude our deep dive into STEM graduate outcomes. From employability and time to first job, to salary differences by study level and industry, as well as employment types and regional patterns, the data highlights the varied paths STEM graduates take after studying abroad. Whether entering traditional careers, pursuing further study, or exploring entrepreneurial ventures, their journeys reflect both the flexibility and the growing demand for STEM talent across global markets.
STEM vs Business Degrees: Are the Salaries and Job Prospects Really Better?
For years, STEM degrees—spanning science, technology, engineering, and mathematics—have been promoted as the surest path to high-paying, future-proof careers. At the same time, business degrees have offered a more flexible, management-oriented route into the working world. But in 2025, the picture is more complex. Rising tuition fees, a cooling tech sector, global layoffs, visa uncertainty, and the disruptive impact of AI are reshaping the graduate job market and challenging long-held assumptions about the advantages of STEM degrees. In the last few months we have written extensively on the threats of AI to early stage careers and how universities will need to respond to stay relevant.
STEM Degrees: Still a Strong Investment?
On average, STEM graduates still enjoy higher starting salaries than their business counterparts, especially in fields like software engineering, data science, cybersecurity, and engineering. In the U.S., for instance, new grads in computer science or electrical engineering can start with salaries between $75,000 and $100,000. Business graduates, by contrast, often begin their careers closer to the $50,000–$70,000 range, unless they enter elite industries like investment banking, management consulting, or private equity.
This gap in earnings potential is partly due to the technical specialization that STEM degrees offer. Employers are willing to pay more for hard-to-find skills in machine learning, full-stack development, cloud infrastructure, or biomedical engineering. These are areas that require a deep foundation of mathematics and analytical thinking that most business programs don’t offer.
The AI Effect: Changing the Value of Skills
However, this dynamic is beginning to shift, largely due to the rapid rise of artificial intelligence. Tools like OpenAI’s Codex, GitHub Copilot, and ChatGPT have begun to automate parts of the work that entry-level STEM graduates once handled. Tasks like basic coding, data analysis, content generation, and even bug fixing are increasingly being assisted—or entirely replaced—by AI.
As a result, companies are becoming more cautious about hiring large cohorts of junior technical staff. Instead, they’re focusing on candidates who bring a combination of technical literacy, creative thinking, and problem-solving ability—traits that AI can’t easily replicate. Employers are also placing a premium on so-called “AI fluency”: understanding how to work with AI tools to boost productivity, rather than being displaced by them.
In this environment, some traditionally high-paying graduate roles are losing their shine. Junior software developers, for example, are finding it harder to stand out if their skills are limited to routine programming. Similarly, data analysts who rely on basic spreadsheet work or reporting are being supplanted by automated tools and low-code platforms.
This doesn’t mean STEM degrees are obsolete, but it does mean that they’re no longer a guaranteed route to success. The future belongs to graduates who can combine technical knowledge with adaptability, communication skills, and business awareness.
The Changing Tech Sector: Fewer Roles, Higher Competition
Another factor affecting the STEM job market is the slowdown in big tech hiring and significant layoffs. After years of aggressive expansion, companies like Google, Microsoft, Amazon, Meta, and Salesforce have scaled back their workforces. Since 2022, these tech giants have laid off tens of thousands of employees globally, including software engineers, product managers, UX designers, and data scientists.
Much of this was a correction after over-hiring during the pandemic boom. But it also reflects broader changes: increased scrutiny from investors, economic headwinds, and again, the impact of automation and AI on productivity.
While these companies are still hiring, the pace has slowed dramatically. They are now more selective, with a sharper focus on cost-effectiveness and innovation. Aneesh Raman, the chief economic opportunity officer at LinkedIn, wrote on this for the New York Times: for graduates, this means fewer entry-level openings, more competition per role, and longer hiring timelines. It also means more emphasis on skills like cross-functional collaboration, project leadership, and understanding customer needs instead of just raw technical ability.
The Hidden Cost: International Graduates Face Higher Barriers
For international students studying STEM degrees in countries like the U.S., UK, Canada, or Australia, the situation is even more complex. While these degrees often qualify for post-study work visas, actually securing a job that leads to sponsorship is far from guaranteed.
Many employers remain reluctant to take on the added legal and financial burden of sponsoring a visa particularly when they can hire domestic candidates without the paperwork. In an increasingly risk-averse hiring climate, international graduates often find themselves overlooked, even when they meet all the technical criteria.
In the U.S., for example, the H-1B visa system is lottery-based, meaning even a top-tier graduate from MIT or Stanford might not receive the legal right to stay and work. In the UK, while the Graduate Route visa offers some breathing room, long-term sponsorship still depends on finding an employer willing to take on the additional administrative load. The result is a system where international STEM graduates often face uncertainty and instability, even with in-demand skills.
Business Degrees: Less Glamorous, More Versatile
So where does this leave business degrees? While they may not boast the same starting salaries as their STEM counterparts, they offer distinct advantages particularly in flexibility and long-term growth potential.
Business graduates are often well equipped for roles in management, consulting, marketing, HR, and entrepreneurship. These roles may pay less initially, but they often come with faster promotion tracks, opportunities to lead teams, and exposure to strategic decision-making. Crucially, they also tend to be less vulnerable to automation, since they rely heavily on interpersonal communication, negotiation, and judgement - areas where AI still struggles.
Furthermore, business skills are highly transferable. A graduate who starts in retail operations, for example, might move into tech sales, supply chain management, or digital marketing within a few years. STEM graduates, on the other hand, may find their skillset more narrowly tailored to specific industries, unless they invest heavily in upskilling or further study.
The Power of a Hybrid Profile
In today's job market, the most valuable graduates are often those who can bridge the gap between technical and commercial thinking. A computer science graduate who understands financial modelling, or a business graduate who can code or analyse data, is extremely attractive to employers. These hybrid profiles are well suited for roles in product management, fintech, e-commerce, and AI strategy, roles that are growing in both scope and salary.
As such, many students are now pursuing interdisciplinary programs or combining majors and minors to build a more rounded skillset. Double degrees (e.g., engineering + business) or adding certifications in coding, data analysis, or project management to a business degree can dramatically increase employability.
Conclusion: The Best Degree Depends on More Than Numbers
Ultimately, the decision between a STEM degree and a business degree should not be based solely on salary projections or job market trends, especially as both are being reshaped by automation, economic shifts, and global labour dynamics.
STEM degrees can still offer strong returns, particularly in fields like AI, engineering, and advanced computing. But they’re no longer a guaranteed pathway to high-paying jobs in an era of AI disruption and post-pandemic hiring caution. Business degrees, while less flashy in terms of starting pay, offer greater flexibility and are often better aligned with leadership and strategy roles in the long term.
Perhaps the most future-proof choice of all is not to pick one over the other, but to blend them, combining the analytical rigour of STEM with the adaptability and people skills of business. In the 2025 economy, graduates who can think like engineers and communicate like executives will be the ones best equipped to thrive.
