Simon Blauza, Kerstin Kremer, & Benedikt Heuckmann
Original article: Blauza, S., Kremer, K., & Heuckmann, B. (2025). An integrative framework for navigating uncertainty in science education. Journal of Research in Science Teaching, 62(10), 2216–2237. 
DOI: https://doi.org/10.1002/tea.70025

Uncertainty is a natural and important part of science—but it’s often overlooked or not clearly explained in science classrooms. Today’s teachers are expected to help students make sense of complex, real-world issues like climate change and pandemics. These topics involve evolving evidence, multiple perspectives, and a degree of uncertainty that can be challenging to teach.

At the same time, students may interpret uncertainty as a sign that science is unreliable. This makes it essential for educators to explicitly teach what uncertainty means in science—and how to work with it productively.

This study developed a clear, research-based framework to help teachers understand different types of uncertainty and support students in building skills to navigate them. The goal is to strengthen science literacy, evidence-based reasoning, and trust in science.

What Skills Do Students Need to Navigate Uncertainty?

The study identifies three key areas of student competency in science education:

• Understanding uncertainty: Students learn to recognize and distinguish between different types of uncertainty
• Managing uncertainty: Students develop strategies to actively deal with uncertainty—for example, by quantifying uncertainties, using approximations or simulations to estimate parameters, tolerating uncertainty as an inherent feature of science, and making decisions under uncertainty.
• Reflecting on uncertainty: Students consider how uncertainty contributes to scientific discovery and why it is a strength—not a weakness—of science

Why This Matters for Science Teaching

Uncertainty isn’t a problem to avoid—it’s a core feature of how science works. With the right strategies, teachers can turn uncertainty into a powerful learning opportunity that prepares students to think critically about real-world scientific issues.

This framework gives teachers practical tools for integrating uncertainty into everyday instruction. In your classroom, you can:

• Make uncertainty visible using clear, student-friendly language

• Help students distinguish between what types of uncertainty can and cannot be resolved with more data

• Build students’ confidence in working with complex scientific ideas
• Promote deeper understanding of the nature of science and scientific inquiry

By teaching uncertainty explicitly, educators can improve student engagement in science, build critical thinking skills, and prevent misconceptions that weaken trust in scientific knowledge.