The weather / anemometer sensor allows to measure multiple atmospheric parameters such as wind speed, air temperature, and humidity at a certain point.

The PASCO Wireless Light Level Sensor is an easy-to-use tool for measuring light intensity in classroom and outdoor investigations. Designed for student use, it wirelessly connects to tablets, Chromebooks, and computers, allowing students to collect real-time data without cables or complex setup.

This sensor is ideal for investigations involving light and energy, such as comparing brightness at different distances, exploring how light interacts with materials, or studying how environmental factors affect light levels. Students can quickly visualize changes in light intensity on graphs, helping them identify patterns and make evidence-based claims.

From the manufacturer:

Understanding pendulum motion is fundamental to the study of vibrations and waves. This unique United Science Supplies kit includes everything necessary for a full exploration of the basic features of pendulum motion in a complete but economical set. The individual components are of proven design – the drilled balls have a larger hole on one end than the other to allow suspension at the center of mass, and the triple support features clamps that make adjusting the cord length precise and easy. Students can assess the principal factors of mass, length, and amplitude and even venture into a consideration of air resistance.

The Pitsco EZ Shake Table is a classroom-friendly platform designed to simulate realistic seismic activity so students can test the strength, flexibility, and stability of their model structures. With a simple crank mechanism, learners can generate varying magnitudes of shaking, allowing for controlled, repeatable earthquake tests on towers, bridges, or other student-built designs using materials like spaghetti, straws, or LEGO® bricks.

With the PITSCO Structure testing machine students are capable to up to 800 pounds of force to structures including balsa wood or basswood towers and bridges using a turn-force wheel. Students can apply pressure in small increments and stop applying pressure at the first sign of structural damage–so they don’t have to destroy the structure to test it to the limit. And because the system captures both the peak load and the current load, the load that ‘breaks’ the structure is displayed. Because the load reading is given at every change, students can follow a precise pattern to ensure consistent testing in a classroom setting.

The PocketLab G-Force sensor is a force and motion sensor on wheels. Measures velocity (speedometer), position (odometer), G-force (accelerometer), acceleration (accelerometer), rotation (gyroscope), and direction (magnetometer). The sensor connects via Bluetooth and is compatible with iOS, Android, Chrome OS, Windows 10, and macOS devices. The kit contains 5 PocketLab G-Force Sensor Cars, tracks, and accessories. Teachers have used this kit to engage students in a hands-on activity to learn about Newton’s laws. Look for sample activities in the resources for this kit.

The turbo track kit is a fantastic expansion kit for the PocketLab Sensor and G-Force kit that is perfect for anyone interested in Newton’s laws and physics experiments.

With this kit, our teachers can easily conduct experiments using the sensor on cars and tracks, allowing you to explore the principles of motion, acceleration, and force.

This kit is a great way to learn more about physics while having fun at the same time!

The kit includes everything you need to explore Newton’s Laws of Motion.

The PocketLab Voyager Classroom Set is a force and motion sensor that measures velocity (speedometer), position (odometer), G-force (accelerometer), acceleration (accelerometer), rotation (gyroscope), and direction (magnetometer). The sensors connect via Bluetooth and are compatible with iOS, Android, Chrome OS, Windows, and macOS devices.

Teachers have used this kit to engage students in a hands-on activity to learn about Newton’s laws.

The kit contains: 10 PocketLab Voyager Sensors, ten silicone cases, charging cables, a charger, and a plastic case to store everything.

The Bucket Orchid Pollinator Model was developed by STEM Pre-Academy as an engineering design challenge tool for teachers, and over time, it has been proven engaging and fun for the students.

Teachers have used this to teach students the importance of these pollinators and plant morphology while integrating the engineering design process to develop a hand pollinator.

With this model, students can test their different prototypes of pollinators in the classroom. Each kit includes one pollinator model and ten “pom-poms” to simulate pollen.

The Vanilla Orchid Pollinator Model was developed by STEM Pre-Academy as an engineering design challenge tool for teachers, and over time, it has been proven engaging and fun for the students.

Teachers have used this interactive and hands-on approach to teach students about the importance of these pollinators and plant morphology while integrating the engineering design process to develop a solution to the challenge.

With this model, students can test their different prototypes of pollinators in the classroom. Each kit includes one pollinator model, a sample engineering notebook, and ten “pom-poms” to simulate pollen.

Use this 10 MP digital camera with 3.3x optical zoom to capture student work to include in their reports and presentations. SD card included.

Prime Climb is a colorful, fast-paced board game that builds fluency in multiplication, division, factoring, and prime numbers. With a unique color-coded number system, students develop number sense and strategy while engaging in meaningful play.

This quadrat frame is a simple but powerful field tool for investigating patterns in ecosystems. Constructed as a durable square grid, it allows students to systematically sample an area—counting organisms, estimating coverage, or recording physical features across a defined space.

In middle school STEM classrooms, a quadrat transforms outdoor observation into structured data collection. Students place the frame along a line or at set intervals to measure changes in plant density, species diversity, ground cover, or other environmental features. The visible grid supports quantification: learners can count squares, estimate percentages, and compare findings across different locations.

The Rain Simulator was created for an EDP challenge activity that required controlled rainfall to be simulated within a contained space.

The system uses a pump box to pressurize water and produce rain inside the rain chamber.

Teachers have found it useful for Engineering design challenges and Math applications.

Example of applications using the rain simulator are:

• Designing a house to withstand a tropical storm and a rooftop using the Pythagorean theorem.

Relational GeoSolids are a versatile set of transparent 3D shapes designed to help students explore volume, surface area, and geometric relationships in a tangible way. Each shape is relationally sized—so students can compare and contrast dimensions across cylinders, cones, cubes, spheres, and more using real-world math practices.