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“After demonstrating that cultured meat can reach cost parity faster than the market anticipated, this production facility is the real game-changer,” said Yaakov Nahmias, Future Meat Technologies founder and chief scientific officer, in a press release. “This facility demonstrates our proprietary media rejuvenation technology in scale, allowing us to reach production densities 10-times higher than the industrial standard.”

Cultured meat is made by extracting cells from animal tissue and giving them nutrients, oxygen, and moisture while keeping them at the same temperature they’d be at inside an animal’s body. The cells divide and multiply then start to mature, with muscle cells joining to create muscle fibers and fat cells producing lipids. The resulting nuggets of meat can be used to make processed products like burgers or sausages. Structured cuts of meat with blood vessels and connective tissue, like steak or chicken breast, require scaffolds, and researchers are creating these with biomaterials, like cellulose from plants. Companies are working on several varieties of more elaborate cultured products, from bacon to salmon.

As reported by Bloomberg, Future Meat aims to start offering its products in US restaurants by the end of next year—but must get approval from the FDA first. On top of that approval, public opinion is another hurdle the company and its competitors will need to clear before they see widespread success; for every person who’s opposed to factory farming, there’s a person who’s squeamish about the idea of meat grown in a bioreactor, despite the avian (or bovine, or porcine) lives being spared. Getting these consumers to view cultured meat favorably will be a matter of education, taste/texture as compared to the ‘real thing,’ and cost competitiveness.

To Sheng-Ying Pao, the power of reframing CRISPR lies in what is absolutely ordinary: paper. In CRISPaper, Pao revisited a cultural past in the ancient art of papermaking.

Over thousands of years, farmers painstakingly converted the wild rice plant into a staple crop. Today, researchers are using CRISPR to change genes to optimize grain yield. However, rice is more than food. In ancient China, it was used to make paper.

Pao took rice stalks from plants edited with CRISPR and ground the fibers into pulp. She then poured the pulp over a mesh screen. Every time she dipped the screen into water, the plant fibers would lift and resettle on top of the mesh, eventually making paper. Through the genome-edited rice plant, an ancient practice was juxtaposed with cutting-edge technology. Pao’s meditative ritual of papermaking is a counterbalance to the strangeness of the source material.
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https://news.berkeley.edu/story_jump/crispaper-understanding…rough-art/

HOUSTON — (Jan. 27 2020) — That banana peel, turned into graphene, can help facilitate a massive reduction of the environmental impact of concrete and other building materials. While you’re at it, toss in those plastic empties. A new process introduced by the Rice University lab of chemist James Tour can turn bulk quantities of just about any carbon source into valuable graphene flakes. The process is quick and cheap; Tour said the “flash graphene” technique can convert a ton of coal, food waste or plastic into graphene for a fraction of the cost used by other bulk graphene-producing methods. “This is a big deal,” Tour said. “The world throws out 30% to 40% of all food, because it goes bad, and plastic waste is of worldwide concern. We’ve already proven that any solid carbon-based matter, including mixed plastic waste and rubber tires, can be turned into graphene.” As reported in Nature, flash graphene is made in 10 milliseconds by heating carbon-containing materials to 3,000 Kelvin (about 5,000 degrees Fahrenheit). The source material can be nearly anything with carbon content. Food waste, plastic waste, petroleum coke, coal, wood clippings and biochar are prime candidates, Tour said. “With the present commercial price of graphene being $67,000 to $200,000 per ton, the prospects for this process look superb,” he said.


Scientists at Rice University are using high-energy pulses of electricity to turn any source of carbon into turbostratic graphene in an instant. The process promises environmental benefits by turning waste into valuable graphene that can then strengthen concrete and other composite materials.

There are a wealth of light fleet, business, and commercial applications where single occupants dominate,” says Paul Rivera, Electra Meccanica president and CEO. “From fast food franchise delivery and pizza delivery, to grocery delivery, small parcel and post, to tech repair and security firms, the Solo Cargo EV is the ideal solution to help companies minimize operational costs and maximize efficiency.


A hatchback is usually a solid choice for hauling cargo, but when the hatchback in question is a single-seat three-wheeler, things get a little more cramped. Canadian EV maker Electra Meccanica looks to solve this dilemma with a new cargo version of its three-wheeled all-electric Solo, replacing the usual lift-gate with a dedicated cargo trunk.

Adding a big rear box to a car as tiny and curvy as the Solo would usually be a drag on aesthetics, but Electra Meccanica has managed to integrate it pretty well. From the front 3/4 position, the new trunk looks almost like an aerodynamic Kamm tail element … or maybe a hyper-boost jet thruster.

We’re sure some will disagree on how well the cargo trunk blends with the pre-existing Solo design, but there’s no arguing with a dedicated 226 liters of storage in a car as small and space-deprived as the Solo. That’s an increase from the standard model’s 142 liters. Electra has developed the Solo Cargo with commercial customers in mind and says that the cargo box can be customized with third-party upgrades like warming/refrigeration, lighting, internal shelves and bins, and more.

While there are plenty of companies using insects to manage waste, including Goterra, Better Origin and AgriProtein, Insectta is extracting more than agricultural products from black soldier flies. With funding from Trendlines Agrifood Fund and government grants, Insectta is procuring high-value biomaterials from the byproducts of these larvae.


In Singapore, the amount of generated food waste has increased 20% over the past decade. Startup Insectta is turning to maggots to take a bite out of the problem.

Circa 2015 Clues of the genetic material in vultures could give rise to humans that have immunity to nearly all bacteria and viruses.


WASHINGTON WASHINGTON (Reuters) — A diet of putrid rotting flesh may not be your cup of tea, but to the cinereous vulture, found across southern Europe and Asia, it is positively delightful. This tough bird, it turns out, is genetically wired to thrive on the stuff.

Researchers on Tuesday said they have sequenced the genome of this big scavenger, also called the Eurasian black vulture, identifying genetic traits that account for a stalwart stomach and powerful immune system that let it carry on eating carrion.

They pinpointed genetic features related to gastric acid secretion that help explain this vulture’s ability to digest carcasses and other features linked to its immune system defense against microbial and viral infections from decomposing flesh.

Bill Gates made headlines for becoming the largest private farmland owner in the U.S. But he’s not the only one. Some of the wealthiest landowners including Jeff Bezos, John Malone and Thomas Peterffy are buying up forests, ranches and farmlands across the United States. Why? Watch the video to find out.

Investments in farmland are growing across the country as people, including the ultra-wealthy like Bill Gates, look for new ways to grow their money.

In 2,020 Gates made headlines for becoming the largest private farmland owner in the U.S. He had accumulated more than 269,000 acres of farmland across 18 states in less than a decade. His farmland grows onions, carrots and even the potatoes that are used to make McDonald’s French fries.

“It’s an asset with increasing value,” American Farmland Trust CEO John Piotti said. “It has great intrinsic value and beyond that, it is a limited resource.”

Recent advances have put some interesting possibilities on the table when it comes to tackling hair loss, from topical solutions packed with stem cells, to 3D-printed hair farms, to growing hair with a patient’s own cells. Scientists in China are now throwing another one into the mix that uses a dissolvable microneedle patch to stimulate hair growth, with the technology proving high effective in mouse models of hereditary pattern baldness.

Led by scientists at China’s Zhejiang University, the researchers set out to develop new treatments for the most common of hair loss conditions: male-and female-pattern baldness, also known as androgenic alopecia. The scientists sought to tackle the issue by focusing on what they say are the primary mechanisms behind this, namely oxidative stress and poor circulation.

This relates to the combination of accumulating reactive oxygen species in the scalp that kill off the cells behind new hair growth, and a lack of blood vessels around the follicles to provide them with nutrients and essential molecules. In this way, the team hoped to come up with a two-pronged approach to androgenic alopecia, and their solution starts with previous research carried out on liver injuries and Alzheimer’s.