Your Struggling Reader Was Never Bad at Science. Vanderbilt Proved It.

Last updated: June 28, 2026

If your child struggles to read, you have probably heard the comparison: good at art, not a 'school person.' Science textbooks are dense with multi-syllabic vocabulary, reading passages, and written assessments. For kids with dyslexia, that format does not test whether they understand buoyancy or engineering; it tests whether they decode the delivery vehicle first. This spring, Vanderbilt University ran a 14-week engineering curriculum at its Roberts Academy for Dyslexia, and what happened should be posted on the wall of every science classroom in the country.

TL;DR

In April 2026, Vanderbilt's Roberts Academy for Dyslexia completed a 14-week engineering partnership with the School for Science and Math at Vanderbilt (SSMV).
High school seniors designed and taught eight lessons on buoyancy, boat design, and 3D printing to fourth and fifth graders with dyslexia.
The curriculum bypassed reading-dependent instruction, instead using listening comprehension, hands-on prototyping, and Tinkercad, a free 3D modeling program.
Roberts Academy assistant director Samantha Gesel said the approach "elevated [science] to what science should be."
The IDA 2025 dyslexia definition confirms phonological decoding difficulty does not impair spatial reasoning, visual processing, or hands-on problem-solving.

Vanderbilt's Roberts Academy for Dyslexia gave students a 14-week engineering curriculum complete with 3D printing and a boat float test. What happened raises important questions about how schools deliver science to kids who struggle with reading.

Common questions

Are students with dyslexia good at science and engineering?

Many students with dyslexia have strong visual-spatial reasoning, hands-on problem-solving ability, and creative thinking, all central to engineering. The challenge is that most science instruction delivers content through dense reading, which creates a text barrier unrelated to scientific thinking ability. A screener is a starting point, not a diagnosis; for formal accommodations like an IEP or 504 plan, a professional evaluation is the right path.

What is multi-sensory instruction, and why does it help kids with dyslexia?

Multi-sensory instruction engages hearing, seeing, doing, and speaking together rather than routing learning entirely through reading. For students with dyslexia, whose primary challenge is phonological decoding, this approach lets intact processing systems, including visual-spatial reasoning and auditory comprehension, carry the content. The Learning Disabilities Association of America documents this approach as specifically effective for students with dyslexia.

My child hates science because of the reading load. What should I ask the school?

Ask whether science is assessed through reading-heavy tests exclusively, or also through labs, demonstrations, and oral explanation. Ask whether the teacher uses Tinkercad or hands-on design tools. If your child has a 504 or IEP, ask whether science accommodations include alternatives to text-heavy assessments that test subject knowledge rather than decoding ability.

Does thriving in hands-on science mean my child does not need reading support?

No. Hands-on learning shows what your child knows when the text barrier is removed, and that matters for confidence and engagement. It does not replace systematic, explicit reading instruction aimed at building phonological decoding. Both matter: proving capability in the working format now, while building the skill that opens more formats later.

Vanderbilt gave students with dyslexia a 14-week engineering curriculum. 3D printing, boat tests, physics. They nailed it. The barrier was never their brain. It was the textbook format. Tweet Now Follow Learning Success

What happened

In April 2026, fourth and fifth graders at Roberts Academy for Dyslexia completed a 14-week engineering curriculum designed and taught by four high school seniors from the School for Science and Math at Vanderbilt (SSMV). The seniors built eight lessons covering buoyancy, boat design, the engineering design process, and 3D printing. The semester culminated at Vanderbilt's Magnolia Makerspace with a boat float test: Roberts Academy students loaded their 3D-printed vessels with quarters to measure how much weight each hull could hold.

The SSMV students, Quinn Weiler, Isabel Lopez-Jarqin, Anna Eiring, and Hana Kajihara, structured the curriculum around hands-on learning, listening comprehension, and Tinkercad, a free browser-based 3D modeling program. Instruction was deliberately built to bypass reading-dependent delivery. Roberts Academy assistant director Samantha Gesel described the outcome: "The SSMV students offered different ways to learn and to demonstrate learning, and they really made science come off the page. They elevated it to what science should be."

Roberts Academy, which opened at Peabody College in 2024 as a scientifically grounded elementary school for students with dyslexia, is moving into a new state-of-the-art facility in August 2026. Gesel wants the engineering partnership to grow with it: "We would love every student who walks through Roberts Academy's doors to get an opportunity to be really embedded in the science and research happening on campus."

Author Quote "

The SSMV students offered different ways to learn and to demonstrate learning, and they really made science come off the page. They elevated it to what science should be.

What the coverage gets wrong

Coverage of this Vanderbilt story frames it as a heartwarming cross-age collaboration, and the facts support that. But the bigger finding goes largely unreported: multi-sensory, reading-independent instruction is not a special accommodation for students with dyslexia. The Learning Disabilities Association of America documents it as effective for all learners, and decades of research in cognitive science support teaching through multiple modalities. What the coverage misses is that this story is really about every child whose science knowledge disappears into a text-heavy format that measures phonological decoding, not comprehension. For a parent, that distinction matters.

What the science actually says

Most coverage of this story will frame it as a feel-good cross-age partnership story. That framing is accurate. It is also incomplete.

The structural insight is this: most science instruction routes learning through text. Dense vocabulary lists, reading-heavy labs, text-based assessments. For a student with dyslexia, that delivery method does not measure whether they grasp the concept; it measures whether they overcome the phonological bottleneck first. Remove the text bottleneck, and the concept-learning system, which is intact, engages.

That is exactly what the SSMV curriculum did. "Instructionally, they tapped into areas of listening comprehension during science conversations that did not over-rely on reading or spelling needs," Gesel said. The approach activated hearing, seeing, doing, and speaking at once. The Learning Disabilities Association of America documents this multi-sensory method as specifically effective for students with dyslexia.

The neuroscience behind it: reading draws on multiple cognitive systems, including language, working memory, and visual processing. Students with dyslexia typically have difficulty in the phonological decoding system; their visual-spatial and hands-on reasoning systems are often strong. Engineering, design, and 3D modeling tap exactly those systems. Tinkercad is not a workaround. It is a format match. The IDA 2025 definition of dyslexia makes this explicit: phonological decoding difficulty does not impair spatial reasoning, visual processing, or hands-on problem-solving. Those live in different systems.

Key Takeaways:

Built and tested: Roberts Academy students with dyslexia completed a 14-week engineering curriculum in April 2026, designing and 3D-printing boats in Vanderbilt's Makerspace.

Format was the unlock: The curriculum bypassed text-heavy delivery, using listening comprehension, hands-on prototyping, and Tinkercad; multi-sensory instruction is documented as specifically effective for students with dyslexia.

Ask the right question: If your struggling reader hates science class, ask whether the instruction format is the obstacle; visual-spatial and hands-on reasoning systems are unlikely to be the problem.

What it means for your child

If your child is writing themselves off as 'not a science person' because the textbook is hard, the question worth asking is whether the instruction format, not the subject, is the obstacle.

Practical steps: ask your child's school whether science is assessed through reading-heavy tests exclusively, or also through labs, demonstrations, and oral explanation. Ask whether Tinkercad or hands-on design tools are part of any curriculum. If your child has a 504 plan or IEP, check whether science accommodations include alternatives to text-heavy assessments that test subject knowledge rather than decoding ability.

At home: hands-on projects that connect to science concepts (a buoyancy experiment needs a bucket and household objects) let you see what your child grasps without the reading filter. The Roberts Academy curriculum sent students home understanding physics; none of the learning required them to read a chapter first.

One tradeoff worth naming: a hands-on curriculum bypasses the text barrier, but it does not replace reading instruction. Both matter. A child who thrives in an engineering lab still benefits from explicit, systematic reading support that builds phonological decoding. The goal is not to accommodate around reading forever; it is to prove capability now, in the format that works, while building the skill that opens more formats later.

A child who masters 3D modeling, tests a physics hypothesis, and watches their boat hold weight walks away knowing their brain works for this. The villain here is not a teacher or a school. It is the instructional assumption that reading proficiency measures thinking ability in every subject, and that assumption runs deep in how schools deliver everything. If you want to understand which cognitive systems your child has working for them, not against them, the Learning Success AI assessment maps 440 data points across processing systems so you know exactly where to start.