Launch a parachute, capture your shadow and move yourself with a giant propeller as you experiment with water, light, sound and motion among the colourful and lively exhibits in Eureka! Hands-on discovery encourages visitors to try new things and ask "What would happen if...?" Home to our spectacular water table, ball launchers and walk on piano, Eureka! is the place that brings out the curious scientist in all of us.

Light and Sound

Bang different pitches on the whapaphone, play a harp with invisible strings, see the reflection of your hand reach out of a mirror and discover how hot you are on the infrared camera as you explore the amazing world of light and sound.


Create an invisible ring of air, witness a tornado forming, and build dams and fountains as you discover the amazing properties of air, water, and other fluids.

Levers, Pulleys, Pendulums and Gears

Lift a hippo, spin some gears, and even lift your entire body off the ground as you learn the amazing properties of levers, pulleys, and other simple machines.

Green Features

Our new Eureka! gallery has many new features to make it more sustainable including: in-floor heating, window coatings that help filter out UV rays, solar cells, and smart glass technology that you can change from clear to opaque at the flick of a switch.

Eureka! News

The science of imaging has “developed” (sorry!) greatly in the past few decades. Advances in hardware and software have given us the ability to scan objects with light in order to create accurate 3D images of them. Among other applications, these advances have allowed us to create 3D images of the human body and accurate maps of the earth’s surface. 

One of the best ways to capture a 3D image of an object is to use a technique called LIDAR (Light Detection and Ranging). In this technique, a laser sends out pulses of light. Each pulse contains many photons (particles of light); the brighter and more intense the light, the more photons are being sent. 

The light pulses are directed at a specific location on the object. They are reflected by the object back to an electronic camera sensor, which measures the brightness of the reflected light and the time it took for the pulse to make the round trip from the laser to the object and back to the sensor.

The laser scans over the object; each point on the object corresponds to a single pixel of the image. A computer program puts the data together into a detailed 3D-image. 

However, as anyone with a camera knows, lighting is very important when taking any type of pictures—if you don’t have enough light, you will end up with a dark image that does not show very much detail. In regular LIDAR, hundreds (if not more) of photons must hit the camera sensor in order to create a single pixel of an image. The fewer photons hit the sensor, the darker and more indistinct the image.

But there is light at the end of the tunnel (once again, sorry!). A group of electrical engineers from the Massachusetts Institute of Technology (MIT) have developed a way to capture detailed 3D-images of an object even if it is enshrouded in near-darkness. The MIT engineers have created an algorithm that can take the information measured from just the first few photons that reflect from the object to the sensor, and use that information to construct a detailed 3D image. With this technology, you’d need fewer photons to capture the image, which means you could reduce the intensity of the scanning laser to such a level that it can’t even be seen with your eyes. So far, this new process can only use monochromatic lasers to provide the dim scanning light, which means the images are not in colour. 

This type of low-light imaging could become very useful for the scanning/imaging of materials and biological tissues that are extremely vulnerable to high-levels of illumination. For example, if a doctor wanted to create a high-resolution 3D image of a patient’s eye using regular LIDAR, they would risk damaging the eye by scanning it with bright laser light. With the new technique a very low-level of light could be used to create high-resolution images without harming the patient’s eye. Being able to scan for images in near-darkness would also be useful for intelligence-gathering missions where you could take pictures without anyone knowing (please use responsibly).

Although we don’t have this technology at TELUS World of Science (yet!) you can explore the concepts of imaging by visiting the  Eureka! Gallery and checking out our recently refurbished Infrared Camera exhibit. The special camera lets you see real-time images of yourself created by capturing the infrared light that you emit naturally. Also, our Recollections exhibit takes live video footage of our guests dancing to music, processes it through a computer to add some snazzy effects, and then projects the altered video back up on a screen.

For more information:

The research mentioned above was published in the journal  Science, but a nice summary of the research can be found over on the website  Nature. A video demonstrating the science behind the MIT discovery was put online on  YouTube.

Eureka! Donors

Eureka! would not be possible without the generous support of:

Lisa Bailey
Banyan Capital Partners
Brian & Meryl Begert
CB Richard Ellis Ltd.
Jim & Wendy Charlton
Burke & Hanneke Corbet
Mark N. Dance
Kelly Edmison
Werner & Brigitte Faust
Norm Francis Family
Dan & Daphne Gelbart
Paul & Nicole Geyer
Al Hudec
Kevin & Patricia Huscroft
Geraldine & Ian Jones
Anne & Duane Kucheran
Paul Lancaster & Suzanne Macvey
Leola Purdy, Sons
David Levi
Dr. Robin & Linda Louis
Ian MacKay & Celia Courchene
Hector & Timmy MacKay-Dunn
Pam & Munro MacKenzie
Zahra & Hanif Mamdani
Mitchell Odyssey Foundation
John Murphy & Leslie Lee
Noordin & Nancey Nanji
Maria Pinelli & Paul Fletcher
PMC-Sierra, Inc.
Dave Pritchard & Jennifer Love
Raymond James Ltd.
Ian Reid
David & Cathy Scott
Garry & Colleen Shearer
Doug & Cydney Smythies
Keith, Sheryl & Bridget Spencer
Dr. Ken Spencer & Judy Gale
Derek Spratt
Morgan & Roseline Sturdy
David & Gaylean Sutcliffe
The van der Gracht Family
Peeyush Varshney
Western Economic Diversification Canada
Dr. Andrew S. Wright & Dr. Helen Newton (Willow Grove Foundation)
Victoria Withers & Alex Morris
Thomas C. Wong, Michelle & Danielle Kwok
Mr. & Mrs. Charles & Dale Young
Chaya, Leith, Lesley & Sam
Anonymous (3)

Engineering Lab by The James Dyson Foundation

Eureka! Online Games

Can you identify a mystery note on the Walk On Piano or lift a 200kg hippopotamus?   Try these five games based on real exhibits at TELUS World of Science.