Image: CC0 Public Domain

Just a few weeks after France vowed to get gasoline and diesel powered cars off the road by 2040, Australia has joined in on the conversation of transportation transformation. According to a statement, Queensland is looking to kick off an electric vehicle revolution with the implementation of an “electric super highway.”

The highway will incorporate 18 towns and cities in Australia. Officials expect the highway to be completed within the next six months, stretching 1,240 miles along the Queensland’s east coast loaded with 18 fast-charging stations that can charge a car in 30 minutes, allowing electric vehicle drivers to make it from the state’s southern border to the far north.

“EVs can provide not only a reduced fuel cost for Queenslanders, but an environmentally-friendly transport option, particularly when charged from renewable energy,” says Environment Minister and Acting Main Roads Minister Steven Miles. “The Queensland Electric Super Highway has the potential to revolutionize the way we travel around Queensland in the future.”

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Researchers from Lappeenranta University of Technology (LUT) and VTT Technical Research Centre of Finland have successfully created food out of electricity and carbon dioxide, which they hope could one day be used to help solve world hunger.

According to reports, the single-cell protein can be produced wherever renewable energy is available, with uses ranging from food to animal feed.

“In practice, all the raw materials are available from the air. In the future, the technology can be transported to, for instance, deserts and other areas facing famine,” co-author of the research, Juha-Pekka Pitkanen, said in a statement. “One possible alternative is a home reactor, a type of domestic appliance that the consumer can use to produce the needed protein.”

The researchers achieved this result by exposing those raw materials and putting them in a small “protein reactor.” After exposing it to electrolysis, chemical decomposition occurs. After about two weeks, one gram of powder made of 50 percent protein and 25 percent carbohydrate.

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A new device improves on the sensitivity and versatility of sensors that detect doping in athletics, bomb-making chemicals, or traces of drugs. It could also cut costs.

To conduct these kinds of searches, scientists often shine light on the materials they’re analyzing. This approach is known as spectroscopy, and it involves studying how light interacts with trace amounts of matter.

One of the more effective types of spectroscopy is infrared absorption spectroscopy, which scientists use to sleuth out performance-enhancing drugs in blood samples and tiny particles of explosives in the air.

While infrared absorption spectroscopy has improved greatly in the last 100 years, researchers are still working to improve the technology.

“This new optical device has the potential to improve our abilities to detect all sorts of biological and chemical samples,” says Qiaoqiang Gan, associate professor of electrical engineering in the School of Engineering and Applied Sciences at University at Buffalo. Gan is lead author of the study.

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In May 2017 during the 231st ECS Meeting, we sat down with Eric Wachsman, director and William L. Crentz Centennial Chair in Energy Research at the University of Maryland Energy Research Center. The conversation is led by Rob Gerth, ECS’s director of marketing and communications.

Wachsman is an expert in solid oxide fuel cells and other energy storage technologies. He’s the lead organizer of the 7th International Electrochemical Energy Summit, which will take place at the 232nd ECS Meeting in National Harbor, Maryland, October 1st through the 6th. His work in battery safety, water treatment, and clean energy development has gained international attention.

Listen to the podcast and download this episode and others for free on Apple Podcasts, SoundCloud, Podbean, or our RSS Feed. You can also find us on Stitcher and Acast.

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Scientists have turned wood into an electrical conductor by making its surface graphene.

Chemist James Tour of Rice University and his colleagues used a laser to blacken a thin film pattern onto a block of pine. The pattern is laser-induced graphene (LIG), a form of the atom-thin carbon material discovered at Rice in 2014.

“It’s a union of the archaic with the newest nanomaterial into a single composite structure,” Tour says.

Previous iterations of LIG were made by heating the surface of a sheet of polyimide, an inexpensive plastic, with a laser. Rather than a flat sheet of hexagonal carbon atoms, LIG is a foam of graphene sheets with one edge attached to the underlying surface and chemically active edges exposed to the air.

Not just any polyimide would produce LIG, and some woods work better than others, Tour says. The research team tried birch and oak, but found that pine’s cross-linked lignocellulose structure made it better for the production of high-quality graphene than woods with a lower lignin content. Lignin is the complex organic polymer that forms rigid cell walls in wood.

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A recently published article in The Scientist tells a growingly familiar tale in scholarly publishing: predatory publishers taking advantage of, and often times profiting from, researchers across the globe.

The term “predatory publishers” was coined by University of Colorado Denver librarian, Jeffrey Beall, nearly a decade ago. These publishers disseminate plagiarized or poorly reviewed content, taking advantage of a pay-to-publish open access system by charging authors high prices to disseminate their content while all but eliminating the peer review process. In the case of the article published in The Scientist, these predatory journals even trick established researchers to agree to have their names listed on editorial boards, falsley presenting themselves as credible start-up journals. While this may bolster a journal’s credibility at first glance, it often doesn’t go beyond a name listed on a website, with little to no communication from the journal to the editors.

(RELATED: “For-science or For-profit?”)

And if predatory publishers can’t trick honest researchers, that publisher may just recruit a fake editor. A recent investigation, spearheaded by Nature, found that dozens of academic journals have been recruiting fake editors and offering them a place on their editorial board.

According to reports from the Hanken School of Economics, predatory journals increased their publication volume from 53,000 to 420,000 articles per year between 2010 and 2014. Taking article processing charges into account, the report estimates that all-in-all, the predatory publishing market was worth at $74 million in 2014.

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By: Amy Myers Jaffe, University of California, Davis and Lewis Fulton, University of California, Davis

When will cars powered by gas-guzzling internal combustion engines become obsolete? Not as soon as it seems, even with the latest automotive news out of Europe.

First, Volvo announced it would begin to phase out the production of cars that run solely on gasoline or diesel by 2019 by only releasing new models that are electric or plug-in hybrids. Then, France and the U.K. declared they would ban sales of gas and diesel-powered cars by 2040. Underscoring this trend is data from Norway, as electric models amounted to 42 percent of Norwegian new car sales in June.

European demand for oil to propel its passenger vehicles has been falling for years. Many experts expect a sharper decline in the years ahead as the shift toward electric vehicles spreads across the world. And that raises questions about whether surging electric vehicle sales will ultimately cause the global oil market, which has grown on average by 1 to 2 percent a year for decades and now totals 96 million barrels per day, to decline after hitting a ceiling.

Energy experts call this concept “peak oil demand.” We are debating when and if this will occur.

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By: Christopher Keane, Washington State University

Emergency: You need more disposable diapers, right away. You hop into your car and trust your ride will be a safe one. Thanks to your phone’s GPS and the microchips that run it, you map out how to get to the store fast. Once there, the barcode on the package lets you accurately check out your purchase and run. Each step in this process owes a debt to the universities, researchers, students and the federal funding support that got these products and technologies rolling in the first place.

By some tallies, almost two-thirds of the technologies with the most far-reaching impact over the last 50 years stemmed from federally funded R&D at national laboratories and research universities.

The benefits from this investment have trickled down into countless aspects of our everyday lives. Even the internet that allows you to read this article online has its roots in federal dollars: The U.S. Department of Defense supported installation of the first node of a communications network called ARPANET at UCLA back in 1969.

As Congress debates the upcoming budget, its members might remember the economic impacts and improved quality of life that past congressional support of basic and applied research has created.

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Scientists have created a single catalyst that could simplify the process of splitting water into hydrogen and oxygen to produce clean energy.

The electrolytic film is a three-layer structure of nickel, graphene, and a compound of iron, manganese, and phosphorus. The foamy nickel gives the film a large surface, the conductive graphene protects the nickel from degrading and the metal phosphide carries out the reaction.

The team of scientists developed the film to overcome barriers that usually make a catalyst good for producing either oxygen or hydrogen, but not both simultaneously.

“Regular metals sometimes oxidize during catalysis,” says Kenton Whitmire, a professor of chemistry at Rice University. “Normally, a hydrogen evolution reaction is done in acid and an oxygen evolution reaction is done in base. We have one material that is stable whether it’s in an acidic or basic solution.”

The discovery builds upon the researchers’ creation of a simple oxygen-evolution catalyst revealed earlier this year. In that work, the team grew a catalyst directly on a semiconducting nanorod array that turned sunlight into energy for solar water splitting.

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