“I’m Not Good at Science”: Changing the Story Students Tell Themselves

“I’m just not good at science.”

If you teach science, chances are you’ve heard those words more than once. Sometimes they come before a student has even attempted the problem. Other times, they follow a difficult test, an experiment that didn’t go as planned, or a concept that simply hasn’t clicked yet.

It can be tempting to respond with a quick, “Yes, you are!” But there is something deeper happening in that statement. When a student says they are not good at science, they are no longer describing something they find difficult. They are beginning to describe who they believe they are. That distinction matters.

Science is supposed to challenge students. It asks them to question, investigate, analyze evidence, work with abstract ideas, revise their thinking, and sometimes get things completely wrong before they understand why. Difficulty is not evidence that a student cannot do science. Very often, difficulty is part of what doing science actually looks like.

So how can we help students change the story from “I’m not good at science” to “I can figure this out”?

When Difficulty Becomes Identity

There is an important difference between these two statements:

“I don’t understand this.”

and

“I’m not good at science.”

The first describes a learning challenge. The second describes an identity.

Once students begin connecting difficulty with identity, challenging experiences can reinforce that belief. A low test score becomes evidence that they aren't a “science person.” A confusing Physics problem confirms that they “can't do Physics.” Watching another student solve something more quickly can become proof that everyone else understands science better than they do.

Over time, this belief can affect more than academic performance. Students may participate less, avoid challenging courses, hesitate to ask questions, or stop taking intellectual risks because struggling feels like confirmation that they don't belong.

As educators, we have an opportunity to interrupt that cycle.

The goal isn't to convince students that science is easy. Instead, we can help them recognize that difficulty and ability are not the same thing.

What Science Actually Looks Like

Science itself gives us a powerful model for changing the way students think about struggle.

Scientists ask questions because they don't already know the answers. They develop hypotheses, collect evidence, construct models, revise explanations, troubleshoot procedures, and repeat experiments.

Sometimes the data doesn't make sense.

Sometimes the model is wrong.

Sometimes an experiment produces an entirely unexpected result.

We don't look at those moments and conclude that the scientist must be bad at science. Those moments are part of the scientific process.

Yet students often interpret those same experiences very differently.

When their calculations are wrong, their model needs revision, or their experiment doesn't produce the expected result, they may see failure where a scientist would see information.

Helping students recognize this difference can change the way they experience the science classroom.

Moving from “Am I Good at This?” to “What Can I Try?”

When a student tells us, “I’m not good at science,” reassurance alone may not change the belief underneath the statement.

Instead, we can redirect the conversation toward the process of learning.

1. Identify What the Student Already Understands

When students feel overwhelmed, they often see the entire concept as something they cannot do.

Ask them to identify what they do understand.

What information do they already have?

What part of the problem makes sense?

What did they do correctly?

Breaking a difficult task into smaller pieces helps students recognize that understanding isn't necessarily all-or-nothing.

2. Find the Point Where Understanding Breaks Down

Instead of asking, “Do you understand?” try asking:

“Where did this stop making sense?”

That question changes the problem.

Now you aren't trying to determine whether the student is “good” or “bad” at science. You're identifying a specific point where additional learning needs to happen.

And specific problems can be solved.

3. Treat Mistakes as Data

Science teachers are in a unique position to normalize mistakes because our entire discipline depends on evidence.

An incorrect answer tells us something.

An unexpected experimental result tells us something.

A model that doesn't accurately explain a phenomenon tells us something.

Encourage students to ask:

• What happened?

• Why might it have happened?

• What does this tell me?

• What should I try next?

Suddenly, being wrong isn't the end of the learning process. It becomes part of the investigation.

4. Make Growth Visible

Students don't always recognize how much they've learned because growth happens gradually.

Give them opportunities to look backward.

Ask students to revisit something they struggled with earlier in the semester. Compare an early lab report with a recent one. Return to a problem they once couldn't solve.

Then ask:

“What can you do now that you couldn't do before?”

Students don't have to simply believe that they can improve.

They can see the evidence.

The Power of “Yet”

Adding the word yet to a statement can create a small but meaningful shift.

“I don't understand chemical equations.”

becomes:

“I don't understand chemical equations yet.”

“I can't solve this Physics problem.”

becomes:

“I can't solve this Physics problem yet.”

The word doesn't magically make the concept easier, and it shouldn't be used to dismiss genuine frustration.

Instead, yet leaves the door open.

It changes the statement from a permanent judgment about ability into a description of where a student is right now.

That distinction can be powerful.

A Simple Mindset Activity for the Science Classroom

You don't need an entire lesson on growth mindset to begin changing the conversation.

Try giving students a few minutes to privately respond to these prompts:

1. Something I Don't Understand Yet

Ask students to identify one concept, skill, or idea in science that they currently find difficult.

2. Something I Once Found Difficult

Have students identify something they struggled with earlier but now understand better.

This gives them concrete evidence that understanding can change.

3. What Helped Me Learn It?

Ask students to consider what actually helped.

Was it practice? Asking questions? Seeing a diagram? Working with a partner? Completing a lab? Watching a simulation? Trying the problem several times?

This helps students begin identifying their own learning strategies.

4. What Can I Try Next?

Have students choose one strategy they can use when they encounter their current challenge.

The goal is to move them from:

“I can't do this.”

to:

“What can I try next?”

Building a Classroom Where Struggle Belongs

Changing student mindset isn't about covering the walls with inspirational quotes or telling students to think positively.

Students need experiences that show them they are capable of learning difficult things.

That means creating classrooms where asking questions is normal, revision is expected, mistakes can be examined without embarrassment, and students have opportunities to struggle without immediately being rescued from the struggle.

It also means being thoughtful about how we talk about ability.

Instead of praising students for being “naturally good at science,” we can recognize the behaviors that lead to learning:

You kept testing different approaches.

You noticed something wasn't working and changed your model.

You used the evidence to revise your explanation.

You asked a really important question.

Those are not simply classroom behaviors.

They are scientific behaviors.

Conclusion

Maybe our goal shouldn't be to convince every student to walk out of our classrooms saying: “I'm good at science.” There may be something more powerful we can help them believe: “I can figure things out.”

Our students will eventually encounter problems we haven't taught them how to solve. They will face unfamiliar technologies, complicated questions, unexpected results, and challenges without answer keys.

In those moments, knowing every answer will matter far less than knowing what to do when they don't know the answer.

Science gives students an extraordinary place to practice that.

The next time a student says, “I'm not good at science,” consider hearing it as more than a comment about today's assignment.

It may be an opportunity to help them write a different story about what they are capable of becoming.