Tag Archives: science

Revolutionizing Science Education with Vernier Connections powered by Penda

Image Credit: Vernier Science Education

In classrooms across the country, something revolutionary is happening. Students are no longer just reading about science—they’re doing science. At the heart of this transformation is Vernier Connections powered by Penda, an exciting collaboration between Penda Learning, a leader in standards-based science instruction, and Vernier Science Education, known for its high-quality data collection technology.

This partnership is more than just a tool mash-up—it’s a visionary model for 3D learning in action, helping schools bring the Next Generation Science Standards (NGSS) to life through authentic, data-rich inquiry experiences. Here’s why.

1. Phenomena-Driven, Sensor-Powered Learning

At the core of every Vernier Connections lesson is an anchoring phenomenon—a real-world event that’s puzzling, observable, and immediately relevant to students. Think: “Why do different surfaces heat up at different rates in the sun?” or “What causes a sudden drop in oxygen levels in a pond?” These are not trivia questions. They’re investigative invitations that drive students to ask, explore, and explain using science practices.

Image Credit: Vernier Science Education

Students investigate these phenomena using Vernier sensors—like temperature probes, CO₂ sensors, and motion detectors—to collect real-time, high-quality data. Suddenly, the classroom becomes a lab. Students become scientists. And learning becomes discovery.

2. Seamless Integration of NGSS 3D Learning

Every lesson is built from the ground up to integrate the three dimensions of the NGSS:

  • Science and Engineering Practices: Students plan investigations, analyze sensor data, revise models, and construct explanations based on evidence.
  • Disciplinary Core Ideas: The content isn’t taught in isolation—it’s learned as students make sense of the phenomenon.
  • Crosscutting Concepts: Patterns, systems, cause and effect—all are embedded as tools for thinking, not just vocabulary to memorize.
3D assessement task

Vernier Connections lessons don’t just align with NGSS—they embody the instructional shifts that NGSS demands.

3. Engaging, Structured, and Student-Centered

Each lesson scaffolds the student experience from curiosity to explanation. It’s not a lecture or a worksheet. It’s a guided inquiry experience.

Students:

  • Observe the phenomenon
  • Predict and question
  • Design and conduct experiments with Vernier tools
  • Analyze and model their understanding
  • Apply knowledge to new contexts

And all of it happens in a platform that supports differentiation, standards-based feedback, and visual tracking of student progress.

4. From Curiosity to Mastery—with Data That Matters

Students collect sensor data

What’s especially innovative is how students use sensor data not just to complete a lab, but to build scientific explanations. They’re asked to defend their thinking, revise their initial ideas, and apply their understanding to new phenomena.

It’s not about getting the “right” answer—it’s about developing a coherent understanding of the world, the way scientists do.

5. Teacher Empowerment with Flexible, Ready-to-Use Resources

Each lesson is teacher-friendly, with built-in assessment questions and clear alignment to NGSS performance expectations. Teachers don’t have to start from scratch or rework clunky lab instructions. The Vernier Connections format offers clarity without rigidity—a balance of structure and flexibility that honors teacher expertise.

Why It Matters

Vernier Connections is a model for how to teach science as it was meant to be taught: grounded in wonder, fueled by evidence, and connected to the real world. In a time when we urgently need critical thinkers and problem-solvers, this approach helps students develop not just content knowledge, but the mindset and methods of science.

If we want students to act like scientists, we need to give them tools, questions, and experiences that matter. That’s exactly what Vernier Connections does—and that’s what makes it a game changer.

A vision of Ambitious Science Teaching

This week, I begin a book study of Ambitious Science Teaching (Windshitl, Thompson, & Braaten, 2018) with a nationwide group of science educators. The study was organized by @sbottasullivan. We are going to work through one chapter of the book each week and I will blog about each chapter. This post is about Chapter 1, A Vision of Ambitous Science Teaching. You can follow our book study using #ASTBookChat on Twitter.

The first thing that struck me about this chapter is the emphasis on two equally important ideas in science teaching – rigor and equity. Often I have seen efforts in science teaching or curriculum that have emphasized one of these, while not attending to the other. For example, a curriculum may focus on cultural relevance, but not provide opportunities for students to grapple with important science ideas. On the other hand, a curriculum may focus on rigor, while not attending to equity. I have seen many examples of this, including approaches that naively present science as culturally neutral.

The authors describe how there is consensus in the science education research literature about the kinds of experiences that are important in science teaching and learning. They point out four things that students and teachers should be able to do:

  1. Understand, use and interpret scientific explanations of the natural world
  2. Generate and evaluate scientific evidence and explanations
  3. Understand the nature and development of scientific knowlege
  4. Participate productively in scientific practices and discourse

Nationally, the current state of science teaching and learning reveals that these things are frequently NOT observed in K-12 science classrooms. The AST book is a “how-to” for developing the skills we need as we work toward doing the things that are important for science learning in a way that addresses equity and rigor. However, reading and understanding what needs to be done is quite different (and much easier) than doing it well in real classrooms with real students. Professional development providers and teachers need to work together to change our science classrooms.

Changing science teaching and learning is a challenging task, but it is important. By enabling students to do the four things in the list, we are preparing them to be productive citizens who can engage in discourse around issues that are important to our world. We need citizens who can evaluate evidence and explanations, and make choices that use science to act responsibly.

I am looking forward to the weekly discussions from the #ASTBookChat group on Twitter and synchronously via Zoom each week.

For more about Chapter 1`, see my post Reflections on CH1 #ASTBookChat