Student-centered inquiry
Students learn by observing phenomena, identifying patterns, constructing explanations, and testing ideas in new situations.
Physics Union Mathematics (PUM) is a collection of classroom-tested modules for middle school and high school settings. Grounded in the Investigative Science Learning Environment (ISLE) approach, PUM supports conceptual understanding, scientific reasoning, and mathematical thinking through evidence-based inquiry.
Physics Union Mathematics (PUM) is a set of free curriculum modules designed to help students build physics understanding through observation, explanation, testing, and application. Developed in collaboration with practicing educators, the materials support both science learning and the development of mathematical reasoning.
Students learn by observing phenomena, identifying patterns, constructing explanations, and testing ideas in new situations.
PUM helps students reason with words, diagrams, graphs, equations, and experiments to strengthen conceptual understanding.
Teachers can use the modules as a coherent sequence or adapt them to complement an existing course.
PUM is designed for teachers working across a range of secondary science and physics classrooms.
Supports early concept-building and scientific reasoning in physical science settings.
Builds coherence between scientific practices, content understanding, and mathematical sense-making.
Provides a structured path into core ideas through evidence, experimentation, and discussion.
Strengthens the connection between conceptual understanding and formal mathematical reasoning.
PUM is organized into two curriculum groupings that can be used as a full sequence or as targeted supplements.
Designed for middle school physical science, high school physical science, conceptual physics, and Physics First courses.
Designed for high school physics courses, including algebra-based and advanced secondary settings.
PUM is grounded in the Investigative Science Learning Environment (ISLE), an approach that helps students learn physics by engaging in the kinds of reasoning and evidence-based thinking used in science itself.
Students begin with carefully selected physical phenomena and collect evidence.
They look for regularities using discussion, diagrams, graphs, data, and other representations.
Students propose explanations, make predictions, and test those predictions with additional experiments.
They refine their thinking and use emerging models to reason about new situations and solve problems.
PUM has been shaped not only by research and development, but also by teachers using the materials in classrooms.
“PUM gives students a lot of tools to express what they know in different ways.”
Teacher voice“Students become more likely to rely on evidence from experiments when explaining ideas.”
Teacher voice“Once students become accustomed to the materials, they begin to take ownership of the learning.”
Teacher voicePUM curricular materials are available to educators for instructional use. Access requests can be reviewed before materials are shared, allowing teachers to receive the resources and support they need.
PUM was developed through the collaboration of university faculty, teacher educators, and practicing middle school and high school teachers. The materials were piloted in classrooms, revised through use, and shaped by ongoing teacher feedback.
The ideas that inform PUM are grounded in a substantial body of work in physics education, scientific reasoning, multiple representations, teacher preparation, and inquiry-based learning.
+ISLE Chem is a sister project: a high school chemistry curriculum built on the same Investigative Science Learning Environment approach to learning science through investigation, reasoning, and evidence.