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   Cory  Fuhrmeister, Nathan Gust, Logan Meyer, Scott Christian-Dold and Stefan Berkower
  An air balloon, popped underwater. More information   |   
   Scott Christian-Dold, Cory Fuhrmeister, Nathan Gust, Logan Meyer, Stefan Berkower
  A balloon, popped underwater. Filmed at 20,000 frames per second courtesy of Vision Research and their Phantom 710 camera. More information   |   
   Stefan Berkower, Cory  Fuhrmeister, Nathan Gust, Logan Meyer and Scott Christian-Dold
  A balloon, popped underwater. Sequence from video filmed at 20,000 frames per second courtesy of Vision Research and their Phantom 710 camera. More information   |   
   Nathan Gust, Stefan Berkower, Cory  Fuhrmeister, Logan Meyer and Scott Christian-Dold
  Balloons filled with dyed water were popped underwater.  More information   |   
   Logan Meyer, Stefan Berkower, Scott Christian-dold, Cory Fuhrmeister and Nathan Gust.
  Balloons filled with dyed water were popped underwater. Filmed at 20,000 frames per second, courtesy of Vision Research and their Phantom 710 camera. More information   |  
  
   Justin Simmons, Jaewon Kim, Brittany Feddersen, Davis  Fogerty and Lisa Logel
  Kelvin-Helmholtz wave between vegetable oil and dyed water. More information   |   
   Davis  Fogerty, Jaewon Kim, Brittany Feddersen, Lisa Logel and Justin Simmons
  Kelvin-Helmholtz wave between vegetable oil and dyed water. More information   |   
   Jaewon Kim, Brittany Feddersen, Davis  Fogerty, Lisa Logel and Justin Simmons
  Kelvin-Helmholtz wave between vegetable oil and dyed water. More information   |   
   Lisa Logel, Jaewon Kim, Brittany Feddersen, Davis  Fogerty and Justin Simmons
  A bubbly interface between vegetable oil and dyed water. More information   |   
   Brittany Feddersen, Jaewon Kim, Davis  Fogerty, Lisa Logel and Justin Simmons
  A one inch bubble of vegetable oil strains upward through dyed water. More information   |  
  
   Jonathan Crenshaw, Shane Weigel, Grant Meaux, William Murray, Travis Ochsner
  A color-reversed still from a high speed video of flash paper (nitrocellulose) combustion. More information   |   
   Travis Ochsner, Jonathan Crenshaw, Shane Weigel, Grant Meaux, William Murray
  A paper chain of flash paper (nitrocellulose) burns, filmed at5,000 frames per second, courtesy of Vision Research and their Phantom 710 camera. More information   |   
   William Murray, Jonathan Crenshaw, Shane Weigel, Grant Meaux, Travis Ochsner
  Flash paper (nitrocellulose) burns, filmed at 5,000 frames per second, courtesy of Vision Research and their Phantom 710 camera. More information   |   
   Grant Meaux, Jonathan Crenshaw, Travis Oschner, William Murray, Shane Weigel
  Flash paper (nitrocellulose) burns, filmed at5,000 frames per second, courtesy of Vision Research and their Phantom 710 camera. More information   |   
   Shane Weigel
  A burning garden hose produces colorful flames and toxic gases. More information   |  
  
   Michael Vallejo, Matthew Feddersen, Kryztopher D. Tung, Bradley Samuels, Daniel Anson
  Oobleck is a non-Newtonian fluid made of cornstarch and water. Here it is dyed and rotated in a bucket. More information   |   
   Bradley Samuels, Matthew Feddersen, Kryztopher D. Tung, Daniel Anson, and Michael Vallejo
  Oobleck is a non-Newtonian fluid made of cornstarch and water. Here it is dyed and poured. More information   |   
   Kryztopher D. Tung, Matthew Feddersen, Bradley Samuels, Daniel Anson, and Michael Vallejo
  Oobleck is a non-Newtonian fluid made of cornstarch and water. Here it is dyed and poured. More information   |   
   Matthew Feddersen, Kryztopher D. Tung, Bradley Samuels, Daniel Anson, and Michael Vallejo
  Oobleck is a non-Newtonian fluid made of cornstarch and water. Here it is dyed and poured. More information   |   
   Daniel Anson, Matthew Feddersen, Kryztopher D. Tung, Bradley Samuels, and Michael Vallejo
  Oobleck is a non-Newtonian fluid made of cornstarch and water. Here it is dyed and manipulated. More information   |  
  
   Kyle Manhart, Gregory Kana, Jared Hansford, Matthew Campbell, Andrew Scholbrock
  Turbulent flow in a flume around an obstacle, visualized with dye, and color-reversed. More information   |   
   Gregory Kana, Kyle Manhart, Jared Hansford, Matthew Campbell, Andrew Scholbrock
  Turbulent flow in a flume around an obstacle, visualized with dye, and color-reversed. More information   |   
   Andrew Scholbrock, Kyle Manhart, Gregory Kana, Jared Hansford, Matthew Campbell
  Turbulent flow in a flume around an obstacle, visualized with dye. More information   |   
   Jared Hansford, Kyle Manhart, Gregory Kana, Matthew Campbell, Andrew Scholbrock
  Turbulent flow in the wake of an obstacle, visualized with dye. More information   |   
   Matthew Campbell, Kyle Manhart, Gregory Kana, Jared Hansford, Andrew Scholbrock
  Turbulent flow in a flume around an obstacle, visualized with dye, and partially filmed from underwater, downstream of the obstacle. More information   |  
  
   Dominic Di Marco, John Berry, Andrew Carter, Shawn Noland, Joshua Bourquin
  Ferrofluid, trapped between two magnets, climbs on a machine screw. More information   |   
 High Speed Ferrofluid from Flow Visualization @ CU Boulder on Vimeo.   Shawn Noland, Dominic Di Marco, John Berry, Andrew Carter, Joshua Bourquin
  Ferrofluid, trapped between two magnets. Filmed at 2000 fps, courtesy of Vision Research and their Phantom 710 camera. More information   |   
   Joshua Bourquin, Dominic Di Marco, John Berry, Andrew Carter, Shawn Noland
  Ferrofluid, trapped between two magnets. Filmed at 2000 fps, courtesy of Vision Research and their Phantom 710 camera.  More information   |   
   John Berry, Dominic Di Marco, Andrew Carter, Shawn Noland, Joshua Bourquin
  Ferrofluid, moving between two magnets. More information   |   
   Andrew Carter, Dominic Di Marco, John Berry, Shawn Noland, Joshua Bourquin
  Ferrofluid, trapped between two magnets, with the top magnet moving. Filmed at 2000 fps, courtesy of Vision Research and their Phantom 710 camera. More information   |  
  
   Austin Edwards, Andrew Bornstein, Tyler Coffey, Steven  Hendricks, Matthew Phee
  A model rocket engine on a test stand. More information   |   
   Steven  Hendricks, Austin Edwards, Andrew Bornstein, Tyler Coffey, Matthew Phee
  An Aerotech G-64 White Lightning rocket motor was clamped to a test stand, and filmed at 7000 frames per second, courtesy of Vision Research and their Phantom 710 camera. More information   |   
   Andrew Bornstein, Austin Edwards, Tyler Coffey, Steven  Hendricks, Matthew Phee
  Matches ignite in a row, filmed at 5000 fps, courtesy of Vision Research and their Phantom 710 camera. More information   |   
   Matthew Phee, Austin Edwards, Andrew Bornstein, Tyler Coffey, Steven  Hendricks
  Matches ignite in a row. Stills from a 5000 frames per second video, courtesy of Vision Research and their Phantom 710 camera. More information   |   
   Tyler Coffey, Austin Edwards, Andrew Bornstein, Steven  Hendricks, Matthew Phee
  Matches ignite in a row. Filmed at 5000 frames per second courtesy of Vision Research and their Phantom 710 camera. More information   |  
  
   Paul Mountford, Bailey Leppek, Daniela Molina Piper, Scott Schollenberger, Shane Schabow
  A marble dropped into supercooled water triggered ice to form. More information   |   
   Bailey Leppek, Daniela Molina Piper, Scott Schollenberger, Shane Schabow, Paul Mountford
  A marble dropped into supercooled water triggered ice to form. More information   |   
   Daniela Molina Piper, Bailey Leppek, Scott Schollenberger, Shane Schabow, Paul Mountford
  A marble dropped into supercooled water triggered ice to form. More information   |   
   Scott Schollenberger, Bailey Leppek, Daniela Molina Piper, Shane Schabow and Paul Mountford
  A marble dropped into supercooled water triggered ice to form, shot at 1000 fps by an Olympus i-Speed camera. More information   |   
   Shane Schabow, Bailey Leppek, Daniela Molina Piper, Scott Schollenberger, Paul Mountford
  Dyed water was added to the liquid core of an ice cube partway through freezing. More information   |  
  
   Andrew Beat, John  Goblirsch, Boris Lemattre, Nathan Sheiko, Gary Velasquez
  The wake of a 3 mm rod in dyed milk shows a von Karman vortex street. More information   |   
   John  Goblirsch, Andrew Beat, Boris Lemattre, Nathan Sheiko, Gary Velasquez
  The wake of a 3 mm rod in dyed milk shows a von Karman vortex street. More information   |   
   Nathan Sheiko, Boris Lemattre, Andrew Beat, John  Goblirsch and Gary Velasquez
  The wake of a 3 mm rod in dyed milk shows a von Karman vortex street. More information   |   
   Boris Lemattre, Andrew Beat, John  Goblirsch, Nathan Sheiko, Gary Velasquez
  Crazy Milk: dish soap on milk with food coloring creates a surface tension driven flow. More information   |   
   Gary Velasquez, Boris Lemattre, Andrew Beat, John  Goblirsch  and Nathan Sheiko
  Soap creates a surface tension driven flow in dyed milk. More information   |  
 
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