Confused Sea exhibitPhoto by Amy Snyder© Exploratorium, www.exploratorium.edu

Confused Sea exhibit

Photo by Amy Snyder
© Exploratorium, www.exploratorium.edu

New exhibit Sun Swarm, located outside Pier 15, helps show how light reflects off the Bay. #10daystilopeningPhoto by Amy Snyder© Exploratorium, www.exploratorium.edu

New exhibit Sun Swarm, located outside Pier 15, helps show how light reflects off the Bay. #10daystilopening

Photo by Amy Snyder
© Exploratorium, www.exploratorium.edu

explodingtorium:

Waterworks preview party postcard shoot, 1979, photo by Susan Schwartzenberg

explodingtorium:

Waterworks preview party postcard shoot, 1979, photo by Susan Schwartzenberg

chicagohistorymuseum:

Men fishing from North Pier, sitting along a breakwater at the mouth of the Chicago River, 1915. Photograph by Chicago Daily News.
Want a copy of this photo?  > Visit our Rights and Reproductions Department and give them this number: DN-0061669


This is great

chicagohistorymuseum:

Men fishing from North Pier, sitting along a breakwater at the mouth of the Chicago River, 1915. Photograph by Chicago Daily News.

Want a copy of this photo?  
> Visit our Rights and Reproductions Department and give them this number: DN-0061669

This is great

Snowy Bits

Melting snow and ice on a car windshield at Lake Tahoe. #noticing
Photo by Amy Snyder © Exploratorium, www.exploratorium.edu/downloads/wallpaper

Snowy Bits

Melting snow and ice on a car windshield at Lake Tahoe. #noticing

Photo by Amy Snyder
© Exploratorium, www.exploratorium.edu/downloads/wallpaper

explodingtorium:

Watch Water Freeze, An Exhibit by Charles Sowers
MORE INFO

explodingtorium:

Watch Water Freeze, An Exhibit by Charles Sowers

MORE INFO

Ice Balloon
Salt sprinkled on a ball of ice etches intricate channels in the frozen sphere.
Photo by Lily Rodriguez© Exploratorium, www.exploratorium.edu/downloads/wallpaper

Ice Balloon

Salt sprinkled on a ball of ice etches intricate channels in the frozen sphere.

Photo by Lily Rodriguez
© Exploratorium, www.exploratorium.edu/downloads/wallpaper

Watch Water Freeze
Spiky ice crystals seen through polarized light shine with rainbow colors at the Exploratorium exhibit Watch Water Freeze.
Photo by Amy Snyder © Exploratorium, www.exploratorium.edu/downloads/wallpaper

Watch Water Freeze

Spiky ice crystals seen through polarized light shine with rainbow colors at the Exploratorium exhibit Watch Water Freeze.

Photo by Amy Snyder
© Exploratorium, www.exploratorium.edu/downloads/wallpaper

Icy Bodies
At the Exploratorium exhibit Icy Bodies, thin shavings of dry ice, warmed by the water they are floating in, emit cold jets of carbon dioxide gas. As the jets of gas shoot out, they spin the dry ice in a spiral pattern. As water vapor in the nearby air condenses into clouds, the pattern is revealed.
Photo by Amy Snyder © Exploratorium, www.exploratorium.edu/downloads/wallpaper

Icy Bodies

At the Exploratorium exhibit Icy Bodies, thin shavings of dry ice, warmed by the water they are floating in, emit cold jets of carbon dioxide gas. As the jets of gas shoot out, they spin the dry ice in a spiral pattern. As water vapor in the nearby air condenses into clouds, the pattern is revealed.

Photo by Amy Snyder
© Exploratorium, www.exploratorium.edu/downloads/wallpaper

explodingtorium:

Making Waves, photo by Susan Schwartzenberg, 1980’s

explodingtorium:

Making Waves, photo by Susan Schwartzenberg, 1980’s

Ice Balloons
Ice balloons tinted with food coloring create a lesson in water phenomena for teachers at the Exploratorium. To see Exploratorium physicist Paul Doherty discuss ice balloons and other chilly phenomena, check out Ice Stories: Dispatches from Polar Scientists.
Photo by Amy Snyder© Exploratorium, www.exploratorium.edu/downloads/wallpaper

Ice Balloons

Ice balloons tinted with food coloring create a lesson in water phenomena for teachers at the Exploratorium. To see Exploratorium physicist Paul Doherty discuss ice balloons and other chilly phenomena, check out Ice Stories: Dispatches from Polar Scientists.

Photo by Amy Snyder
© Exploratorium, www.exploratorium.edu/downloads/wallpaper

Watermelon
You may know that one way to judge the ripeness of a watermelon is by its heft relative to its size—heavier watermelon are riper—but did you know that you can move watermelon with a magnet? Watermelon pulp is about 92 percent water, and water is diamagnetic, or repelled by magnetic poles. The next time you have a bit of watermelon on hand, you can try it for yourself with this activity.
Photo by Amy Snyder © Exploratorium, www.exploratorium.edu/downloads/wallpaper

Watermelon

You may know that one way to judge the ripeness of a watermelon is by its heft relative to its size—heavier watermelon are riper—but did you know that you can move watermelon with a magnet? Watermelon pulp is about 92 percent water, and water is diamagnetic, or repelled by magnetic poles. The next time you have a bit of watermelon on hand, you can try it for yourself with this activity.

Photo by Amy Snyder
© Exploratorium, www.exploratorium.edu/downloads/wallpaper

Floating Paper Clips
Surface tension (and careful placement) allows these paper clips to rest on top of the water instead of sinking. Surface tension occurs because water molecules are attracted to one another in directions, which makes them cling to one another. However, water molecules at the surface are clinging only to molecules next to and below them. The strength of this adhesion creates a surface that can support small objects of greater density, such as paper clips. Surface tension is what allows water to form droplets or to rise above the top edge of a glass without spilling. Learn more about floating paper clips and surface tension at www.exo.net/~jillj activities/surfacetension.pdf and www.exploratorium.edu/ronh/bubbles/sticky_water.html. 
Photo by Amy Snyder © Exploratorium, www.exploratorium.edu/downloads/wallpaper

Floating Paper Clips

Surface tension (and careful placement) allows these paper clips to rest on top of the water instead of sinking. Surface tension occurs because water molecules are attracted to one another in directions, which makes them cling to one another. However, water molecules at the surface are clinging only to molecules next to and below them. The strength of this adhesion creates a surface that can support small objects of greater density, such as paper clips. Surface tension is what allows water to form droplets or to rise above the top edge of a glass without spilling. Learn more about floating paper clips and surface tension at www.exo.net/~jillj activities/surfacetension.pdf and www.exploratorium.edu/ronh/bubbles/sticky_water.html.

Photo by Amy Snyder
© Exploratorium, www.exploratorium.edu/downloads/wallpaper

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