DESCRIPTION
Three Drops is a full body immersive simulation that allows visitors to interact with water at three size scales using their shadows. At each scale, different physical forces can be observed. At the macro (human) scale, where gravity is the noticeable force, visitors are showered with water drops from a simulated shower. At the microscale--one thousand times smaller--where surface tension becomes more apparent, visitors play with a beach-ball sized water drop. At the nanoscale--one billion times smaller and time slowed by a factor of one trillion--where electromagnetic forces can be observed, visitors play with simulated water molecules. This simulation gives visitors an opportunity to interact with water at different scales and thereby discover how different forces can be observed at different scales.
DESCRIPTION
Three Drops is a full body immersive simulation that allows visitors to interact with water at three size scales using their shadows. At each scale, different physical forces can be observed. At the macro (human) scale, where gravity is the noticeable force, visitors are showered with water drops from a simulated shower. At the microscale--one thousand times smaller--where surface tension becomes more apparent, visitors play with a beach-ball sized water drop. At the nanoscale--one billion times smaller and time slowed by a factor of one trillion--where electromagnetic forces can be observed, visitors play with simulated water molecules. This simulation gives visitors an opportunity to interact with water at different scales and thereby discover how different forces can be observed at different scales.
TRAINING VIDEOS
OBJECTIVES
BIG IDEA
Different physical forces can be observed at different size scales.
NANO CONTENT MAP
Nanometer-sized things are very small, and often behave differently than larger things do.
Credits
This product was created by Scott Sona Snibbe working with the NISE Network's Visualization Lab; contact https://www.snibbe.com/
This exhibit is NOT covered by the NISE Network Creative Commons license.
Developed for the NISE Network with funding from the National Science Foundation under Award Numbers 0532536 and 0940143. Any opinions, findings, and conclusions or recommendations expressed in this product are those of the authors and do not necessarily reflect the views of the Foundation.
This linked product was created by another institution (not by the NISE Network). Contact owning institution regarding rights and permissions.