Take students on virtual field trips (e.g., coral reefs, outer space, ancient civilizations).
Support inquiry-based learning by letting students explore real-world contexts before or after a unit.Use for writing inspiration — have students describe or narrate what they experience in VR.
Reinforce science and social studies concepts through visual, hands-on engagement.
Explore science and social studies concepts (e.g., view the solar system, ancient artifacts, or the human body in 3D).
Support spatial reasoning and geometry in math by manipulating 3D shapes.
Use as a center activity for inquiry projects — students can investigate, take screenshots, and record reflections.
Teach engineering basics with quick builds like bridges, towers, and geometric designs.
Explore motion by creating linkages, levers, and moving mechanisms powered by hand or small motors.
Run design challenges, such as building the tallest free-standing structure or creating a creature that moves.
Support science lessons using model ecosystems, habitats, or weather instruments built from Strawbees.
Integrate math through shape construction, angles, and symmetry activities.
Encourage iterative design by having students sketch, build, test, and improve their models.
Build prototypes, models, and sculptures using cardboard as the main construction material.
Support engineering challenges like designing bridges, vehicles, buildings, or playground structures.
Teach tool safety and proper use of scrus, saws, and screwdrivers in a low-risk, hands-on way.
Encourage collaboration by having groups plan, divide tasks, and assemble large structures together.
Encourage creative problem-solving and experimentation by having students design interactive projects (e.g., a playable fruit piano or a talking poster).
Connect with science units on electricity and conductivity.
Integrate art and technology — students can make interactive artwork, storyboards, or musical instruments.
Reinforce computational thinking by combining Makey Makey with coding platforms like Scratch.
Introduce coding and computational thinking through simple projects — like creating name badges, timers, or reaction games.
Explore science and math concepts (e.g., data logging with sensors, measuring light, temperature, or movement).
Encourage creativity and design thinking — students can invent devices, wearables, or prototypes that solve real problems.
Introduce robotics by letting students control lights, sensors, and motors with simple block-based coding.
Build interactive projects that respond to movement, sound, or light using the sensor inputs.
Explore robotics design by programming servos to create moving parts, characters, or mechanisms.
Combine with Strawbees to motorize student creations, adding movement, expression, and interactive elements.
Integrate STEM and design thinking by having students build and code robots to complete challenges.
Use for inquiry-based projects in science or math — e.g., design a model that measures distance, sorts objects, or simulates a system.
Encourage collaboration and creativity as students test, iterate, and improve their designs.
Introduce coding and sequencing through fun challenges like obstacle courses or treasure hunts.
Support math and spatial reasoning by programming movement and turns.
Encourage storytelling and creativity by having students design scenes or performances featuring Dash and Dot.
Build teamwork and communication as students plan, test, and troubleshoot their code together.
Introduce basic engineering by having students build simple robots that move, lift, or push.
Practice coding skills using block-based or text-based programming to control motors and sensors.
Run small challenges like navigating a maze, carrying an object, or completing a timed task.
Teach problem solving by having students iterate on their robot design after each test.
Integrate math through measuring distances, angles, and movement timings.