How to Become a Better STEM Teacher: Your Guide to Career-Long Growth
As Back-to-School kicks into gear, we’re highlighting how to build great STEM classrooms and set your school year up...
Keeping students engaged in science takes more than a great lesson plan.
Students learn more when they take an active role in the learning process instead of simply listening to information. This move toward student-centered science instruction reflects the vision of the Next Generation Science Standards (NGSS).
It encourages students to ask questions, make sense of phenomena, and build understanding through inquiry. The right instructional strategies for science support deep learning and strong scientific thinking.
Ahead, find practical strategies, examples, and tips for using them in your classroom to help students stay engaged and build deeper science understanding.
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Instructional strategies for science are the ways teachers use to help students learn science concepts and skills. Science instructional strategies shape how students develop understanding and apply what they learn.
Science classrooms have changed over time. In the past, lessons often centered on the teacher presenting information while students listened and took notes.
"Student-centered science instruction gives students an active role in learning. Instead of listening for most of the lesson, they explore ideas, ask questions, and use evidence to build understanding."
Today, instruction is more student-centered. Students take an active role in learning, which helps keep them engaged as they explore new ideas and build understanding.
This shift aligns with the vision of the Next Generation Science Standards (NGSS), which encourage students to use inquiry to make sense of real-world phenomena.
As a result, many science classrooms focus less on memorizing facts and more on helping students think like scientists.
These NGSS instructional strategies help students build understanding through investigation, evidence, and scientific thinking.
Programs like Kide Science for early learners embraces the idea that children are active learners by nature. Through hands-on STEAM exploration children learn about science concepts and develop essential skills such as observation, prediction, and problem-solving.
Student-centered science instruction gives students an active role in learning. Instead of listening for most of the lesson, they explore ideas, ask questions, and use evidence to build understanding.
This approach increases science classroom engagement because students are involved in the learning process from the start.
When instruction is designed around students' interests and learning needs, it's easier to engage diverse learners.
Teachers also gain a better understanding of what students already know and where they need support. That makes it easier to adjust instruction and create learning experiences that are meaningful for every student.
To teach science in today's classrooms, teachers can use the strategies below to engage students and support deep learning.
In inquiry-based science instruction, students' questions shape the learning. Teachers can suggest interesting topics for students to choose from.
Then they can support the investigation by offering guidance as students test ideas. Because students lead the learning, they develop independent thinking skills and stay engaged throughout.
Classroom example: Students notice that a shadow changes throughout the day. They ask why it changes, record what they observe, and investigate how the Sun's position affects the length and direction of the shadow.
Digital tools like STEMscopes BBC Streaming can bring phenomena to life in real-world contexts through videos, news, photography, activities, and more.
Phenomena-based learning begins with something students can see or experience. In elementary school, this might be a weather event or a plant growing toward sunlight. In middle and high school, students might investigate changes in a local ecosystem or why a bridge failed.
This real-world event, often called an anchoring phenomenon, becomes the starting point for the lesson. Students don't start with a science concept. They begin by observing the phenomenon and asking questions about what they notice. As they investigate, they use evidence to explain what they observe and build understanding along the way.
Classroom example: Elementary students notice puddles disappear after rain in the recess yard. They ask where the water went and investigate evaporation by observing puddles in different locations over several days. They compare what they find and use evidence to explain the changes.
Hands-on investigations and experiments give students a chance to explore science by doing. Instead of reading about a concept, they observe, collect data, and test ideas. This helps students understand how science really works. Because students learn in different ways, hands-on activities engage more learners in scientific thinking.
Classroom example: Students wonder why polar bears can survive in freezing temperatures. They test different insulating materials by wrapping cups of warm water and measuring the temperature over time. They use their results to explain how blubber and fur help keep polar bears warm.
Collaborative learning gives students a chance to work closely with peers to explore scientific ideas.
They might discuss what they observed after completing an experiment with a partner or take part in a class debate about their results after working with a small group. Students may also work together on a project where everyone has a role. As they share ideas and explain their thinking, they learn from one another. They also build science communication skills and stay engaged throughout the lesson.
Classroom example: Small groups design and build a bridge using craft sticks or other classroom materials. They test how much weight each bridge can hold, then compare their designs with the rest of the class. Students discuss why some bridges were stronger than others and use evidence from their tests to support their ideas.
"The best instructional strategies for science change as students grow."
Differentiated science instruction helps teachers meet students where they are. Some students may need extra support, while others are ready for a greater challenge.
Teachers can adjust instruction so every student has a chance to participate, build understanding, and show what they know. This helps more learners take part in science and build confidence.
Classroom example: Students investigate how plants grow under different conditions. Some students work with a partner, while others work independently. English language learners use picture cards and sentence starters during class discussions. At the end of the lesson, students choose to explain their findings through writing, drawings, or a short presentation.
Collaborate Science, rooted in project-based learning, brings science to life with practical, real-world phenomena and problems for students to solve in a collaborative environment.
Technology-enhanced science learning helps students explore science in new ways. Digital tools can make abstract ideas easier to understand and help students investigate things they can't easily observe in the classroom, like atomic structure or planetary motion.
Resources like BBC Streaming bring real-world science into the classroom through videos, photography, and classroom activities. The TUVA platform provides access to real-world data sets students can analyze. They use the data to identify patterns and support their ideas with evidence.
Classroom example: Students watch a BBC Streaming video about volcanoes, then use TUVA to analyze real-world eruption data. They compare what they observed in the video with the data they analyzed and use evidence to explain the eruption.
Project-based learning in science gives students the chance to investigate real-world problems over time. It brings together many other instructional strategies, including inquiry, collaboration, hands-on investigations, and technology. As students develop solutions to authentic problems, they gather data and test ideas as they improve their work along the way.
Classroom example: Students develop a plan to reduce waste at their school. They investigate the school's recycling habits, collect data, and work in teams to design an action plan. At the end of the project, they present their recommendations using evidence from their investigation.
The best instructional strategies for science change as students grow. Younger learners benefit from exploration and observation, while older students are ready for more independent investigations and complex problem-solving.
While each of the science teaching strategies offer their own benefits, they all have a place in the modern STEM classroom. By incorporating each of these strategies, you will see your science classroom engagement skyrocket.
This quick guide helps explain the benefits of science teaching strategies, with a breakdown of each science strategy and where it works best and the role for teachers and students.
|
Strategy |
Best For |
Teacher Role |
Student Role |
|
Inquiry-Based Science Instruction |
Building curiosity and scientific thinking |
Guide investigations and support student questions |
Ask questions and investigate answers |
|
Phenomena-Based Learning |
Connecting science to the real world |
Introduce an anchoring phenomenon and guide learning |
Observe, ask questions, and explain what they notice |
|
Hands-On Investigations and Experiments |
Learning through active exploration |
Provide materials and support investigations |
Observe, collect data, and test ideas |
|
Collaborative Learning |
Developing communication and teamwork |
Facilitate discussions and group work |
Share ideas and solve problems together |
|
Differentiated Science Instruction |
Meeting diverse learning needs |
Adjust instruction and provide supports |
Learn in ways that match their needs |
|
Technology-Enhanced Science Learning |
Exploring abstract concepts, hard-to-observe phenomena, and real-world data |
Select and guide digital tools |
Analyze information and use technology to investigate |
|
Project-Based Learning in Science |
Solving authentic, long-term problems |
Coach students throughout the project |
Develop solutions to authentic problems |
Student-centered science instruction can help students overcome barriers to learning. In today's classrooms, many students may be learning English or have learning disabilities. Others may have little interest in science or find STEM topics challenging.
Offering multiple ways to learn helps more students participate and succeed.
When lessons begin with real-world phenomena or encourage students to ask their own questions, more learners can participate. Science intervention strategies build on these same approaches.
Teachers might preteach key vocabulary before a lesson or provide small-group support during an investigation. Incorporating visuals and hands-on experiences helps engage more students and makes complex science concepts easier to understand.
As students experience success, they build confidence and become more willing to participate in future science learning.
In STEMscopes Science, every lesson starts with anchoring phenomena. Throughout the lesson, "Everyday Phenomena,” questions are presented at the beginning of several activities to engage students’ curiosity.
STEMscopes Science makes it easier to bring student-centered science instruction into the classroom with NGSS-aligned lessons.
Lessons begin with an anchoring phenomenon that encourages students to ask questions and investigate real-world science. As students build understanding, they gather evidence, work with classmates, and explain their thinking.
Teachers can strengthen instruction with companion resources like BBC Streaming for engaging multimedia content and the TUVA platform for analyzing authentic, real-world data.
For classrooms looking for a project-based approach, Collaborate Science brings science to life through real-world phenomena and problems students solve in a collaborative environment.
Together, these resources help teachers create engaging science experiences that encourage curiosity, support inquiry, and help students make sense of the world around them.
Learn more about STEMscopes Science, BBC Streaming, TUVA, and Collaborate Science to see how each resource supports engaging, student-centered science instruction.
References
Akers, R. (2017). A journey to increase student engagement. Technology and Engineering Teacher, 76(5), 28.
Banitt, J., Theis, S., & Van Leeuwe, L. (2013). The effects of technology integration on student engagement.
Drapeau, P. (2021). Inspiring student empowerment: Moving beyond engagement, refining differentiation. Free Spirit Publishing.
Geier, R., Blumenfeld, P. C., Marx, R. W., Krajcik, J. S., Fishman, B., Soloway, E., & Clay‐Chambers, J. (2008). Standardized test outcomes for students engaged in inquiry‐based science curricula in the context of urban reform. Journal of Research in Science
Teaching: The Official Journal of the National Association for Research in Science Teaching, 45(8), 922-939.
Laal, M., & Ghodsi, S. M. (2012). Benefits of collaborative learning. Procedia-social and behavioral sciences, 31, 486-490.
Sadi, Ö., & Çakıroğlu, J. (2011). Effects of hands-on activity enriched instruction on students' achievement and attitudes towards science.
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