Ask a ten-year-old what they want to be when they grow up, and the answer is rarely random. It is shaped by what they have seen, tried, and been told is possible for people like them. By the time students choose a college major, many of the most important decisions about their future have already been quietly made.
The UK's long-running ASPIRES study followed young people's science and career aspirations from age 10 to 14, and found that even children who enjoyed school science rarely pictured themselves in a science career. Fewer than 17% of 10-11 year olds said they wanted to become a scientist, and the figure was about 15% by ages 12-13. Other STEM careers, such as engineering, were more popular, but the broader point stands: career pictures form early, and they form from experience.
That raises an important question. If early experience shapes what students believe they can do, what happens when that experience is building robots?
The Strongest Evidence: A Ten-Year Study
The best long-term evidence comes from the FIRST Longitudinal Study, carried out by the Center for Youth and Communities at Brandeis University's Heller School. It tracked 1,273 students for ten years, including 822 participants in FIRST's school and after-school robotics programmes and 451 comparison students recruited from math and science classes at the same schools. By the ten-year mark, 922 had completed the final survey.
The results, after controlling for gender, race, family income, honors courses, and parental support for STEM:
- Interest in STEM stayed higher for a decade. FIRST participants were 1.4 to 2.1 times more likely than comparison students to report higher scores than before the programme across five STEM scales, including interest in STEM, interest in STEM careers, and STEM identity. Alumni were more than twice as likely to report an increase in STEM interest.
- College choices shifted. 83% of FIRST alumni majored in a STEM field versus 61% of the comparison group, and 61% majored in engineering or computer science versus 26%.
- Careers followed. 63% of FIRST alumni reported working in a STEM field versus 42% of the comparison group, and 71% said working in STEM was important to them versus 35%.
- National comparisons agreed. Against a matched national sample, FIRST participants were significantly more likely to major in STEM, engineering, and computer science.
- The effect was strongest for girls. Female FIRST alumni were more than three times as likely as comparison females to major in engineering.
Many alumni said so themselves. In open-ended responses, a number credited FIRST directly with their choice of college major.
What About Robotics Seems to Matter?
The study also looked at which parts of the experience were linked to the strongest outcomes. Several stood out:
Actually building the robot. Hands-on building was linked to higher scores on all five STEM attitude scales, and to declaring an engineering or computer science major.
A high-quality programme and good mentors. Participants who rated their programme and mentors highly reported stronger STEM attitudes across the board.
Time and repetition. Time in the programme was linked to interest in STEM careers and STEM identity, and students who took part in seven or more competitions reported more STEM activity and knowledge.
Programming. Writing the robot's code was linked to majoring in computer science or robotics.
For girls, doing the technical work. Building the robot was linked to better outcomes for girls, but taking on supporting roles like fundraising or publicity was not. The researchers recommend that coaches make sure girls are involved in the technical tasks at the same rate as boys.
What About Younger Children?
The FIRST study focused on middle and high school programmes, so evidence for much younger children is thinner. Researchers note that early robotics education has been sparsely studied, especially in the early years. A 2023 pre-post study published in Sensors introduced robotics design and programming to young children and reported gains in both their understanding of robotics and their career aspirations toward computing fields. It's early evidence rather than a long-term finding, but it points in the same direction as the older-student research.
A Fair Reading of the Evidence
It's important to be careful about what this research proves.
- It shows association, not guaranteed cause. Students who join robotics programmes may already lean toward STEM. The FIRST study tried to account for this by comparing with similar students from the same schools and controlling for background factors, and its comparison group was also high-achieving (90% of both groups completed college, versus 55% nationally). Even so, this was not a randomised trial.
- Not every outcome differed. Both groups improved on measures like self-efficacy and teamwork, with no significant differences between them, which is why those measures were dropped from later years of the study.
- Employment data were preliminary. Only 60% of participants were employed at the ten-year mark, and the overall income difference was not statistically significant.
- It's one programme in one country. The findings come from the United States and from FIRST's specific model.
What the evidence does support is a consistent pattern: sustained, hands-on, mentored robotics experiences are associated with stronger STEM identity and a greater likelihood of choosing and staying in STEM pathways.
Why Would Robotics Have This Effect?
The research doesn't prove a single mechanism, but the alumni responses and the programme-experience data point to a few plausible ones:
1. It makes engineering feel real and reachable. One alumnus described robotics as showing them that making robots was something people do and something accessible to them. Careers that feel abstract become concrete once a student has built something.
2. It builds an identity. Students who see themselves as people who build and solve problems are more likely to choose paths that let them keep doing so.
3. It builds competence and confidence. Repeatedly getting a robot to work builds a belief in one's own ability, which carries into later choices.
4. It connects students to mentors and a community. Alumni often point to mentors and like-minded peers as turning points, which fits the study's finding that mentor quality mattered.
What This Means for Schools
If early, sustained, hands-on experience helps shape careers, the practical implications for schools are clear:
- Start early and keep going. Exposure in the middle years, built on earlier foundations, gives students time to develop identity and skill.
- Make it hands-on. Building matters more than watching demonstrations.
- Give every student a technical role. Make sure all students, especially girls, are building and programming, not only supporting.
- Invest in mentors. Trained, supportive facilitators are part of what makes the difference.
- Provide continuity. One-off workshops don't build identity; sustained programmes do.
India's policy is already moving in this direction. The Ministry of Education has announced that AI and Computational Thinking will be introduced from Class 3 beginning in 2026-27, and CBSE's Kaushal Bodh and Composite Skill Labs bring robotics, coding, AI, and IoT into the regular school day. The opportunity is for schools to deliver these in ways that are genuinely hands-on, mentored, and sustained.
How STEM-Xpert Builds Early, Sustained Robotics Exposure, From Grade 1 to 12
- Tinkering Labs and Innovation Spaces, where young students take their first steps into building and experimenting.
- Robotics Labs and AIoT Labs, where students design, build, and program real robots and connected systems, with every student involved in the technical work.
- STEM Innovation Kit, India's first IoT-enabled STEM kit, for hands-on building from an early age.
- Crinnoboard, our own AI-IoT development board, giving students a platform that grows with their skills.
- Progressive coding and AI courses, moving from block-based programming to Python and C++, so each student's skills deepen year after year.
- Composite Skill Labs and Kaushal Bodh centres, aligned with CBSE's CTAI framework, making robotics a regular part of the school curriculum rather than an occasional activity.
- STEM Facilitator Course, preparing educators to mentor students well, since mentor quality is part of what the research links to stronger outcomes.
- Future Skills Accelerator, our college-level programme in AI, Robotics, Python, Data Science, and IoT, so the pathway continues beyond school.
- STEM Academy, supporting structured learning across grades.
The Bigger Picture
Career choices don't begin at the college application. They are built over years from what students try, what they are good at, and who they see themselves becoming. A ten-year study of robotics participants found that those experiences were linked to higher STEM interest, different college majors, and more STEM careers a decade later, with especially strong effects for girls. The lesson for schools isn't that robotics guarantees an engineering career. It's that giving students early, hands-on, well-mentored experiences of building things makes those careers feel possible, and for many students, that's where the path begins.
If your school wants to give students early, sustained robotics experience, through Tinkering Labs, Robotics Labs, AIoT Labs, the STEM Innovation Kit, the Crinnoboard, or Composite Skill Labs, get in touch with STEM-Xpert to see how our programs can be set up for your students, from Grade 1 to 12.
FAQs
1. Does early robotics exposure really influence career choices? A ten-year study of FIRST robotics participants found they were more likely to major in STEM (83% vs 61%), in engineering or computer science (61% vs 26%), and to work in STEM (63% vs 42%) than comparison students. The study shows association rather than proven cause, but the pattern is consistent.
2. Is there evidence for very young children? The strongest long-term evidence is from middle and high school programmes. Research on early robotics education is limited, though a 2023 study reported increased computing career aspirations among young children after a robotics and coding programme.
3. What part of robotics matters most? In the FIRST study, building the robot, high programme and mentor quality, time in the programme, and repeated participation were all linked to stronger STEM outcomes, and programming was linked to computer science majors.
4. How does STEM-Xpert provide early robotics exposure? Through Tinkering Labs, Robotics Labs, AIoT Labs, the STEM Innovation Kit, the Crinnoboard, and Composite Skill Labs for Grade 1 to 12, with educators trained through our STEM Facilitator Course and a college pathway through the Future Skills Accelerator.
Fasalu Rahman CEO, STEM-Xpert
About Author Fasalu Rahman C is an education entrepreneur, STEM advocate, and the Founder & CEO of STEM-Xpert.
Comments
Post a Comment