Tômtex is a leather alternative made from waste seafood shells and coffee. Vietnamese designer Uyen Tran has developed a flexible bio-material called Tômtex, a leather alternative made from food waste that can be embossed with a variety of patterns to replicate animal leathers.
The name tôm, meaning shrimp, references the discarded seafood shells that are mixed with coffee grounds to create the textile. According to Tran, the biodegradable material is durable while remaining soft enough to be hand-stitched or machine-sewn. "I grew up in the city of Da Nang, where leather textiles were predominantly manufactured," she told Dezeen. "Leather is used in so many applications across different industries but people around the world are suffering from the pollution that the industry causes.
" In a bid to kill two birds with one stone, Tran developed a substitute using an abundant, natural resource – food waste. Every year, up to eight million tonnes of waste seafood shells and 18 million tonnes of waste coffee grounds are generated by the global food and drinks industry. Non-Cuttable Material - Indestructible Bike Locks. Durham University/Fraunhofer Institute/YouTube A "non-cuttable" metamaterial made of aluminum foam and ceramic resists all but shallow cuts.While other, less-destructible materials rely on physics like distributing force, Proteus uses vibration.The ceramic microbeads basically bounce out and dull any attempts to cut the material.
A new material called Proteus is billed as just 15 percent the density of steel, but completely resistant to being cut through. That means cyclists around the world may be blessed with truly inviolable locks for the first time ever. People who want to steal the outdoor furniture from restaurant patios will have to cut the furniture now instead of the cable lock. Most importantly, TV writers will have to work even harder to make it seem easy to get into a locked electrical storage or nuclear facility. Researchers in Germany and the U.K. have teamed up to make a material they say uses harmony and vibration to thwart any attempts to cut it. Materials Like Kevlar - Heat-Resistant Protective Gear. Harvard/Grant Gonzalez/SEAS A new "best of both worlds" material is protective and extremely heat-tolerant.First responders and military personnel require extreme protection that often comes with tradeoffs.Scientists added lightweight, insulating aerogel at the molecular level to make this material.
Scientists have a new material they say is as strong as Kevlar and way more insulating. The resulting fiber structure could protect first responders and military personnel who are in danger from heat and cold along with ballistic risks. “Currently, protection against both thermal and ballistic threats requires the combination of multiple high-performance materials that increases equipment weight and complexity. Old glass may find use in new, better concrete. Scientists turn wood into a material that reflects heat, is as strong as steel. A team of scientists from across the United States has figured out a way to process wood into a material that’s light and strong, and that has remarkable properties when it comes to reflecting heat.
The experiment offers the potential of creating buildings that do such a good job of passive cooling that energy costs will be cut in half. With buildings already consuming 70% of electricity in the United States, and the climate crisis only increasing the demand for air conditioning, the potential impact of a better way to keep buildings cool is tremendous. In a paper published by Science, the team writes that the best way to save energy on a building is not to expend it in the first place, and that one way to do that is simply to reflect away heat. That way buildings, especially those in hot and dry areas, don’t have to expend even more energy on air conditioning. Thomas vailly and atelier luma transform sunflowers to biodegradable materials. New insulation material is practically weightless yet still durable.
Coal plant waste helps build environmentally-friendly, cementless concrete. Concrete production is one of the largest sources of carbon dioxide emissions in the world, after transportation and energy.
To make the ubiquitous building material more environmentally friendly, the industry has been adding by-products from coal-fired power plants, but doing so had its own problems. Now, researchers at Rice University have developed a new composite binder that can almost completely replace cement, and reduce waste from power plants at the same time. Fly ash is made up of the loose, airborne particles created as coal is burned in power plants. This material is usually captured, and while some is recycled, most ends up in landfill. "Super wood" sports the strength of steel. Titanium alloys are some of the strongest materials we can build with, but they can be expensive and heavy.
Now, researchers at the University of Maryland (UMD) have come up with a way to make an alternative that literally grows on trees. Using a new "densification" process, the team managed to make "super wood" that has the strength and toughness of steel. Wood is already a pretty versatile material, but the leader of the UMD team, Liangbing Hu, has been working to give it an even longer list of uses. Over the last few years, Hu has developed transparent wood, burnt-wood water filters, and sodium-ion batteries based on wood and leaves.
Anti-biofouling tech inspired by bug-eating plant. If ships' hulls are covered in barnacles and other marine organisms, then those ships have to work harder, burn more fuel, and create more CO2 emissions in order to move through the water.
Move over Kevlar? New nanofibers combine extreme strength and toughness. Ultra-strong fibers like Dyneema and Kevlar may be in for some competition.
Scientists at MIT have developed new polyethylene nanofibers that are both strong and tough, and that could someday be used in applications such as less-bulky body armor. Led by Prof. Heatable electric fabric could keep soldiers warm and dry. Keeping safe and comfortable in arctic conditions is a precarious balancing act between protecting one's self against the cold without overheating.
This is particularly true of a soldier's hands and feet while working in the cold, so scientists from Stanford University and the US Army Natick Soldier Research, Development & Engineering Center are working on energized fabrics that heat up when powered, yet wick away sweat and dry easily. If there's one constant in military life, it's that the issued kit isn't all that should be – especially when it comes to gloves and boots. It's for this reason that many armed services allow their members to buy items of kit commercially that are better suited, yet still meet military specifications. According to Paola D'Angelo at Natick, the US Army has a particular problem because the cold weather gloves used by its soldiers were designed 30 years ago and often leave personnel with cold, numbed hands.
Source: American Chemical Society. Old tires make for stronger concrete. For some time now, crumbs of rubber from ground-up discarded tires have been used to produce a more resilient form of asphalt.
Researchers from the University of British Columbia are taking things in a different direction, however, by using polymer fibers obtained from old tires to make concrete stronger. Added to existing concrete (which is a mixture of cement, sand and water), the stretchy fibers bridge tiny cracks as they form, keeping them from becoming bigger. Conch-inspired material may find use protecting humans. Although sea shells of various types have been studied as sources of inspiration for impact-resistant manmade materials, the conch shell is known for being particularly tough.
And while the reason for its toughness was already understood, it hadn't been replicated using engineered materials – until now, that is. The conch shell is made up of three layers, with the grain running in a different direction in each one. This means that when it's subjected to an impact, cracks can't just run straight through it. US Air Force Academy cadet turns goo into bullet-stopping armor.
A US Air Force Academy cadet demonstrated that school lessons aren't just about retreading old ground, by turning a classroom exercise into a new ballistic armor made out of goo. In 2014, Cadet 1st Class Hayley Weir's assignment to combine epoxy, Kevlar and carbon fiber into an anti-ballistic substance inspired her to develop the task into a new type of flexible bullet stopper. Composite armors aren't new and Weir's assignment was a standard one, but she wasn't satisfied with the result, which could stop a bullet but was hard and brittle.
Following the suggestion of an Academy chemical adviser, she swapped out the epoxy with a shear thickening liquid. One-dimensional nanowires are the world's thinnest, at one atom wide. While it's generally held true since the 1960s, Moore's Law – the observation that the number of transistors on a single chip doubles every two years or so – can only last so long.
Researchers at Cambridge and the University of Warwick have jumped ahead to its logical endpoint and shrunk wires down to a string of single atoms. NASA prints up complex metallic "space fabric" NASA is getting into the textile business thanks to a team led by systems engineer Raul Polit Casillas at the Jet Propulsion Laboratory in Pasadena, California. The team has unveiled prototype swatches of a new metallic "space fabric" created using 3D printing that incorporates advanced functions that would be beneficial for use in space. To the naked eye, the space fabric looks like a cross between chain mail and metallic tiles, like something you might see in one of the more "with it" haute couture dresses of the Swinging Sixties. But this odd design is more than a fashion statement, with one side of the fabric that can reflect light and heat, while the opposite side absorbs it. 7 New Minerals Created by Human Activity.
A recent study carried out by a team led by Robert Hazen of the Carnegie Institution for Science and published in American Mineralogist has shown that human activity is creating a boom in new minerals. Of the 5200 minerals officially recognized by the International Mineralogical Association (IMA), the study finds that 208 new minerals (4 percent of all minerals) have been created by human activity. The research supports the idea that we're in the midst of a new geological era—the Anthropocene—an epoch defined by the impact of human activity, rather than natural forces, on the geology and ecosystems of Earth. The majority of minerals on Earth were created about 2 billion years ago, during what's known as the "Great Oxidation,” when oxygen flooded into the atmosphere from photosynthetic bacteria.
BRAEÖN. "Rebar graphene" foam supports 3,000 times its own weight. Graphene spends most of its time in a two-dimensional form, but that makes it hard to make use of its long list of advantages, like its strength, light weight, and electricity and heat conduction. Technology means there's no limit to designs at Bolon, says director Marie Eklund. Observation of the Wigner-Huntington transition to metallic hydrogen. Cross-Laminated Timber May Provide Hope For Struggling Lumber Industry. Super-thin electrical wires are made from tiny diamond bits. Composed of interlocking cages of carbon and hydrogen, diamondoids occur naturally in petroleum fluids. New soap is cleaner and greener. For warmer surfers, leave it to beaver-inspired wetsuits. Plastic cloth makes for cooler clothing. Autos - Is there life after leather? FORMcard. Metamaterial paves way for thermophotovoltaic cells that generate electricity in the dark.
Lightweight metal foam turns armor-piercing bullets into dust. Today's CO2 may become tomorrow's concrete. Future - The wetsuit that repels sharks. Transforming metamaterial alters size, volume, and shape on command. Self-healing Concrete. Basic origami fold could create anything from surgical stents to satellites. "Metal glue" could replace welding and soldering – in some applications. Terminator-style 'skin' quickly repairs itself after a gunshot. Self-healing material could plug holes in space ships.
Temperature-controlled hydrogel can walk. New catalyst material quickly neutralizes nerve gas. Weekly Innovation: Nonstick Coating Helps Ketchup Slide Out : All Tech Considered. Graphene: Fast, Strong, Cheap, and Impossible to Use. Adding liquids to solids could make them stronger – and more useful. Chemists create clever rewritable paper. Future skintight spacesuits could snug up at the touch of a button. Liquid metal could be used to create morphing electronics. Ceramic-studded carbon fiber fabric made to protect cyclists from road rash. Phase-change material could let robots be soft or hard-bodied as needed. Cloaking Material Makes Objects Imperceptible to Touch. Small capsules – big potential. Biodegradable fibers as strong as steel made from wood cellulose. Even when stitched together, graphene remains the strongest known material.
Visiting - Current Topics - Press Releases - PI 2014 - New Self-healing Plastics Developed. Artificial "Spiber" silk is tougher than Kevlar. Simple invisibility cloaks hide toys, pets, people. Multi-use Titanium Dioxide claimed to be the next "wonder material" Caltech’s chips survive laser armageddon thanks to self-healing powers. Flexible, high-strength polymer aerogels deliver "super-insulation" properties. Sisma Calce seismic fabric helps hold buildings together during earthquakes.
Paper waste used to make "green" bricks. Scientists copy structure of cork to produce 3D blocks of graphene. Forget Gore-Tex – the next big synthetic fabric could be based on hagfish slime. New technique allows scrap rubber to be recycled into high-quality plastic. MIT breakthrough could lead to paper-thin bullet-proof armor. First pressure-sensitive, self-healing material developed. German scientists create usable foam from tree bark. 'Interference' Changes Colors At An Atomic Level At Harvard (PHOTOS) New material may replace silicon. Scientists reinvent light. One Per Cent: Smart carpet detects falls and strange footsteps. New oil spill dispersant made from ingredients in peanut butter, chocolate, ice cream.
Japanese Scientists Create Elastic Water. One-molecule thick material promises electronics revolution. Ultrathin, distortion-free flat lens could replace bulky glass lenses. NASAs nanotube paint is ten times blacker than Darth Vaders armpit.