VU's College of Engineering and Science offers students in years 9 to 12, free hands-on activities, providing them with opportunities to use measurement and design skills to come up with creative prototypes. Each of the four available team activities is designed to give students a general understanding of the engineering processes from design to construction and testing.
Our students will be on hand, to enable your students to ask young, aspiring engineers about their experiences, study and career aspirations.
Tsunami
To learn about stability and wave motion, students will work together to design and construct a structure to withstand the passing of a seismic wave.
The structure will be made to support a load and placed on a floating pontoon in the computer-controlled wave simulation tank. The aim is for the structure to be as light and tall as possible while capable of supporting the load as well as withstanding the largest possible seismic wave. Students will apply principles related to design, stability, structural engineering (strength) as well as wave motion.
Tall buildings for earthquakes
Teams will learn about stability and seismic motion by making a tall building model to withstand seismic ground motion (earthquakes).
The structure will be made to support a load and placed on a computer-controlled earthquake simulation machine. The aim is for the structure to be as light and tall as possible while capable of supporting the load as well as withstanding the largest possible earthquake. Students will apply principles related to design, stability, structural engineering (strength) as well as seismic motion.
Shock absorbing landing pad
While learning about material properties (elasticity), inertia and shock absorption, students will create a landing pad to protect a fragile object from damage during a landing.
An egg will be dropped onto the landing pad from a pre-determined height and the aim is to ensure that the egg withstands the landing shock without breaking while using the least possible amount of material. Students will apply principles related to engineering design, material properties (elasticity), inertia and shock absorption.
Wind turbine design
This activity teaches students about material strength, aerodynamics, balancing and vibration through designing turbine blades.
Each design will be subjected to efficiency (and survival) tests using an instrumented wind tunnel where the wind and turbine speeds will be measured along with the turbine power output. The aim is to design turbine blades that will extract the wind’s energy most effectively for the widest possible range of wind speeds. Students will apply principles related to design, material strength, aerodynamics, balancing, and vibration.