Roller Coaster Engineer
- What
- Museum Staff-led
- When
- Terms 1 to 4, Monday to Friday
- Duration
- 45 minutes in the STEM Lab
Curriculum links & Accessibility - Year level
- Years 3 to 10
- Minmum student numbers
- Minimum 15 students
- Maximum student numbers
- Maximum 28 students
- Cost
- $11 per student + education service fee
- Booking information
- Bookings 13 11 02
This STEM workshop might be the most fun you can have with physics! Students design a marble rollercoaster in this hands-on, skills-based workshop that’s great for a wide age and ability range.
Learning Facilitators will cater the language used based on the level of the group. Younger students will explore how rollercoasters move in terms of speed and hills, while older students will be introduced to conservation of energy in terms of gravitational potential energy and kinetic energy.
Students will experience
- Designing rollercoasters, working in groups and using limited resources
- Scaffolded STEM design challenges that help them exercise their creativity, resilience and design thinking.
- Fun opportunities to share and celebrate their designs with their peers
Students will learn
- How rollercoasters work and what makes them move
- The physics of potential energy and kinetic energy
- How forces like gravity and centripetal force control the movements of a rollercoaster
- The design process, including testing and iterating on a design
- Teamwork and collaboration skills
Victorian Curriculum links
Science: Foundation to Level 2
Physical sciences
pushes and pulls are forces that can change an object’s movement or shape and can be represented in terms of strength and direction
VC2S2U11
Science: Levels 3 and 4
Physical sciences
forces, including frictional, gravitational, electrostatic and magnetic, can be exerted by one object on another through direct contact or from a distance and affect the motion (speed and direction) of objects
VC2S4U10
Design and Technologies: Levels 3 and 4
Creating designed solutions
select and use materials, components, tools and techniques to safely make designed solutions
VC2TDE4D03
Design and Technologies: Levels 5 and 6
Creating designed solutions
select, explain and use suitable materials, components, tools and techniques to safely make designed solutions
VC2TDE6D03
Science: Levels 7 and 8
Physical sciences
energy exists in different forms, including thermal, chemical, gravitational and elastic, and may be classified as kinetic or potential; energy transfers (conduction, convection and radiation) and transformations occur in simple systems and can be analysed in terms of energy efficiency
VC2S8U15
Design and Technologies: Levels 7 and 8
Creating designed solutions
select, justify and use suitable tools, materials, processes and components to safely make designed solutions
VC2TDE8D03
Science: Levels 9 and 10
the Law of Conservation of Energy can be analysed in systems, including Earth systems, by assessing the efficiency of energy inputs, outputs, transfers and transformations
VC2S10U15
Newton’s laws of motion can be used to quantitatively analyse the relationship between force, mass and acceleration of objects
VC2S10U17
Design and Technologies: Levels 9 and 10
select, justify, test and use suitable technologies, including processes, and skills, and apply safety procedures to safely make designed solutions
VC2TDE10D03