Why Representation in STEM Matters More Than We Think

When I studied engineering, I was often one of the only girls in the room.

At the time, I don’t think I fully noticed it. I was focused on learning, building, solving problems, and trying to succeed.

Looking back now, though, I can see the subtle dynamics that existed.

The boys naturally banded together sometimes; for projects, study groups, friendships, networking. And I wonder occasionally what opportunities I may have missed without even realizing it at the time.

I also think being in those environments forced me to build confidence early. To trust my ideas. To speak up. To overcome moments of self-doubt or subtle prejudices that may have quietly influenced group dynamics or how people perceived my abilities.

Nothing was written on the wall saying, “you don’t belong here.”

But sometimes representation works that way. Not through obvious barriers, but through the quiet feeling of being different in the room.

And the truth is, many girls start feeling that long before university.

That’s why representation in STEM matters so much.

Because when kids can see themselves in something, they’re more likely to believe they belong there too.

I remember how inspiring it felt seeing women like Christina Koch in space exploration and STEM leadership roles. Representation quietly expands what feels possible.

Because stereotypes still exist; often without us even realizing it.

There’s a famous example where people are told a story about a surgeon and automatically picture a man. Or how certain careers like engineer, programmer, construction worker, or electrician are still often subconsciously associated with men first.

Not because girls aren’t capable of those roles.

But because for so long, that’s mostly who we’ve seen represented in them.

And kids absorb those messages earlier than we think.

Today, women make up roughly 48% of the overall workforce, yet only about 35% of the STEM workforce. In engineering roles specifically, women represent only around 15% of the workforce. In computer-related occupations, that number is only about 26%.

And the issue isn’t ability.

Research consistently shows girls perform similarly to boys in math and science throughout school. Some studies even show women earning equal or higher grades in certain STEM subjects while still reporting lower confidence in their abilities.

That gap matters.

Because confidence shapes choices.

A child who feels like they belong is more likely to:

• raise their hand,

• ask questions,

• try again after failing,

• take the robotics class,

• build the game,

• trust their own ideas.

  
  

Representation doesn’t just inspire kids. It changes what they believe is possible for themselves.

Sometimes representation is simply hearing: “Someone like me did this too.”

That’s a huge reason why we created GameIQ.

Not to teach coding in a boring or intimidating way, but to make STEM feel creative, exciting, welcoming, and fun for all kids. Especially the ones who may not immediately picture themselves there.

The future of technology shouldn’t be built by only one type of person.

We need different voices.

Different perspectives.

Different imaginations.

Because the girls building games today could be designing the technology that shapes our future tomorrow.

And they deserve to feel like they belong there from the very beginning.

Have you ever experienced being “the only one” in a classroom, workplace, or activity? We’d love to hear your story in the comments.

Works Cited

“6 Facts About America’s STEM Workforce and Those Training for It.” Pew Research Center, 14 Apr. 2021, www.pewresearch.org/short-reads/2021/04/14/6-facts-about-americas-stem-workforce-and-those-training-for-it/.

“State of Girls and Women in STEM.” National Girls Collaborative Project, www.ngcproject.org/resources/state-girls-and-women-stem

Starr, Chelsea R., et al. “Confidence and Gender Gaps in Undergraduate STEM Persistence.” arXiv, 13 Mar. 2020, arxiv.org/abs/2003.06006.

Stoet, Gijsbert, and David C. Geary. “The Gender-Equality Paradox in Science, Technology, Engineering, and Mathematics Education.” Psychological Science, vol. 29, no. 4, 2018, pp. 581–593.