Ooho is a drinking water product created by a startup known as Skipping Rocks Lab. The product is reported to hype up the internet due to making “eating water” possible and getting rid of plastic bottles at the same time.
According to Extreme Tech eating water was made possible by the startup due to the product’s packaging. Ooho was seen as a spherical blob which has water encased in it making it a squishy bottle. Yet, the huge surprise is that you could actually eat the whole blob of water with no plastic bottle needed.
Ooho was mentioned to be created through seaweeds used as its membrane. The edible bottle’s membrane was composed through spherification which includes sodium alginate from seaweed and calcium chloride. Each ball was then mentioned to only take 2 cents in order to produce it thus saving money as well.
Moreover, amid Ooho being edible, people are still given the choice whether to eat the membrane or not since it was identified to be tasteless and has an unusual surface when eaten. Yet, people could still throw it away and not eat it because as it was mentioned to be biodegradable it will just break down as a compost on land or ground over a week or so.
Furthermore, the Ooho product aims to be “the global solution to water and drinks on-the-go.” The startup mentioned that they also aim to replace and get rid of plastic bottles as they pose a great environmental issue to the world.
Visit source link for more info and a video!
A group of researchers at the Argonne National Laboratory have developed a sponge that will collect oil from bodies of water, which could improve how harbors and ports are cleaned, as well as how oil spills are managed.
“The Oleo Sponge offers a set of possibilities that, as far as we know, are unprecedented,” said co-inventor Seth Darling, a scientist with Argonne’s Center for Nanoscale Materials and a fellow of the University of Chicago’s Institute for Molecular Engineering.
At tests at a giant seawater tank in New Jersey called Ohmsett, the National Oil Spill Response Research & Renewable Energy Test Facility, the Oleo Sponge successfully collected diesel and crude oil from both below and on the water surface.
“The material is extremely sturdy. We’ve run dozens to hundreds of tests, wringing it out each time, and we have yet to see it break down at all,” according to Darling.
The team is actively looking to commercialize the material; those interested in licensing the technology or collaborating with the laboratory on further development may contact email@example.com.
For more info and a video demonstration visit Argonne’s website here!
We can now fold up solar panels that are nearly unbreakable and take them with us anywhere.
Instead of one solid sheet, these highly portable panels are made from a pliable network of glitter-sized solar cells.
A typical solar panel—more than five feet long and encased in glass—isn’t exactly portable. But a new type of solar technology, miniaturized so that each cell is the size of a piece of glitter, could be used anywhere.
The tiny cells are made from high-efficiency silicon, like standard solar panels. But the new form means that they’re not only small but flexible, and can be folded up for transportation, incorporated into clothing, or easily used in electronics.
Conventional solar panels “are brittle because they’re crystalline,” Murat Okandan, CEO of mPower Technology, the startup making the new technology, tells Co.Exist. “If you bend or flex them, at some point they’ll just break and shatter. By making our cells small and then interconnecting them we’re able to make them almost unbreakable.”
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A coal-powered plant in Tuticorin, India has found an innovative way to capture carbon emissions — by recycling them into soda ash, an ingredient in common household products like bleach, sweeteners, and even your toothpaste.
The typical carbon capturing method filters out the carbon before it is released into the atmosphere and stores it in a separate containment. But Tuticorin is changing it up by crystallizing the coal and turning it into soda ash — otherwise known as baking soda.
That baking soda byproduct means Tuticorin has made carbon capture profitable: Not only is it environmentally wise, but dirty waste is being re-imagined to sell plastic, rubber, or glass manufacturing.
With solar, wind, and hydropower resources becoming more accessible to the masses, the demand for natural gas is expected to be on the decline, making this carbon capture method attractive to businesses and consumers alike. According to the Ren21 Global Status Report for 2015, the world invested twice as much in clean energy as they did in the oil and gas industry. Previous roadblocks have stopped the U.S. from investing in carbon capture in the past. But this new mechanism can be outfitted to any plant — no matter how old — and is much more affordable.
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A team of students and faculty from the University of Virginia School of Engineering created a prototype design of a solar powered wheelchair with retractable panels inspired by the idea from a man with cerebral palsy from Turkey. Their goal was to create a prototype of a solar powered wheelchair with retractable panels for individuals with lower extremity or mobility disabilities, spinal cord injury, or cerebral palsy. The Solar Powered Team (SPT) created the prototype using a Shoprider 6Runner wheelchair. They built a structured frame around the base of the wheelchair to hold the solar panels. Three solar panels were attached to a convertible-like structure which rotates back behind the wheelchair.
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In March 2016, a design student named Ari Jonsson entered in a design festival in Reykjavik, Iceland with his invention, a biodegradable water bottle that holds its shape while there is water in it. When it is empty, it naturally begins to compose. As it is made from jelly, it is even edible!
Ari Jonsson studies product design at the Icelandic Academy of Arts. After realizing just how much plastic we use, he decided that he’d take the initiative to offer a solution. “I read that 50 percent of plastic is used once and then thrown away,” he said. “I feel there is an urgent need to find ways to replace some of the unreal amount of plastic we make.” His solution comes from a source that is proving itself to be more and more useful: algae.
Jonsson’s water bottle can be formed by simply adding water and heat, then placing the jelly that forms into a freezable mold. When the bottle is filled, it keeps its shape. Then, when you’re done drinking whatever it is you’re drinking, the bottle begins to decompose. And, much like the delicious soup-in-a-bread-bowl, you can even eat the bottle.
Considering how many water bottles people use everyday (whether or not they recycle them!), this could mean a lot for the future of disposable containers for liquids we consume on the daily. Of course, maintain metal or glass containers is also effectively sustainable while these designs are in development.
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In Delft, Netherlands a team by the name of “Se@Drone” is developing an unmanned surface and underwater drone duo that can pick up trash off the bottom of the sea floor! The surface drone holds the underwater drone during travel and releases it with a winch as a life-line. Once the underwater drone finds trash on the sea floor 4 sides can close around the waste.
Check out SeaDroneNL’s facebook page for more infomation!
( Link: https://www.facebook.com/SeaDroneNL/ )
AirCasting is an open-source, end-to-end solution for collecting, displaying, and sharing health and environmental data using your smartphone. The platform consists of wearable sensors that detect changes in your environment and physiology, including a palm-sized air quality monitor called the AirBeam, the AirCasting Android app, the AirCasting website, and wearable LED accessories. By documenting and leveraging health and environmental data to inform personal decision-making and public policy, the AirCasting platform empowers citizen scientists and changemakers.
(Visit AirCasting for more info!)
Researchers at the University of Michigan have developed solar cells that are lighter than ever before, modeled after “kirigami,” the ancient Japanese art of paper cutting.
A team of engineers and an artist developed an array of small solar cells that can tilt within a larger panel, keeping their surfaces more perpendicular to the sun’s rays.
“The beauty of our design is, from the standpoint of the person who’s putting this panel up, nothing would really change,” said Max Shtein, associate professor of materials science and engineering. “But inside, it would be doing something remarkable on a tiny scale: the solar cell would split into tiny segments that would follow the position of the sun in unison.”
(Source link: University of Michigan)