This summer, you may find yourself on the shore’s edge admiring the vastness and beauty of the ocean. There’s a lot going on in there! According to The National Academies of Sciences, Engineering, and Medicine, the ocean covers about 70% of the Earth’s surface and buffers a large fraction of anthropogenic CO2 emissions—removing roughly 55% of emitted CO2 naturally. BUT, it may be possible to enhance both the uptake and longer-term sequestration potential of these processes. The National Academies of Sciences, Engineering, and Medicine is looking to do just that and are currently soliciting nominations for individuals to serve on the Committee on A Research Strategy for Ocean Carbon Dioxide Removal and Sequestration. (more…)
ECS is pleased to announce the winners of symposia-funded best presentation awards from the 236th ECS Meeting in Atlanta. Through the generous funding of individual symposium sponsors, several awards of this type are presented at every ECS meeting. You are invited to celebrate the excellent work of these authors:
A05 – Lithium Ion Batteries – Best Poster Award Winners
Mahsa Ebrahiminia, University of Utah: “Molecular Dynamics Simulation Study of Ion Transport, Structural and Mechanical Properties of Li2CO3 and Mn-Li-CO3” (more…)
Christopher Jannuzzi, Executive Director and CEO of The Electrochemical Society (ECS), is featured in SciTech Europa Quarterly, a digital publication bringing together the key voices in the European scientific community and the leading trends in science, research and innovation. Jannuzzi describes the distinguished history of ECS, which was founded in 1902 and has grown to a society with over 8,000 members in 80 countries. The core mission remains the same: to advance theory and practice at the forefront of electrochemical and solid state science and technology, and allied subjects. However, with 13 electrochemistry and solid state science and technology divisions, the application—and vital significance—of electrochemistry has grown exponentially. The research published in ECS journals is of huge importance to the future of our planet. ECS makes it freely available to all readers—and free for authors to publish—through a bold and exciting open access initiative, “Free the Science.” Read the full article in SciTech Europa Quarterly now.
According to the Federal Aviation Administration, nearly 7,000 laser strikes on aircrafts were reported in 2017.
“In cities like Chicago this problem is real as people are shining laser pointers on aircrafts during critical phases of flight, which is a big nuisance to pilots,” said Jason Keleher, a professor and chair of chemistry at Lewis University, who was approached by the aviation department at Lewis University to collaborate on a solution to this growing problem .
“Is it a bunch of kids? Is it accidental? Is somebody just like, ‘I bet you can’t hit that plane with those lasers.’ It’s really hard to identify who’s actually doing it. It’s a very interesting problem,” said Keleher, one he, the project’s principal investigator, was prepared to solve.
Keleher explains that although the lasers don’t cause permanent eye damage to pilots as they maneuver the aircraft, it does cause temporary flash blindness which may make it difficult for pilots to see control systems as they prepare for take-off and landing. He explains it is similar to the way high beams can disorient a driver upon direct exposure.
Researchers may have found a way to solve the weakness of a type of light source similar to lasers. The alternative light source could lead to smaller, lower-cost, and more efficient sources of light pulses.
Although critical for varied applications, such as cutting and welding, surgery and transmitting bits through optical fiber, lasers have some limitations—namely, they only produce light in limited wavelength ranges.
Now, researchers have modified similar light sources, called optical parametric oscillators, to overcome this obstacle.
Until now, these lesser-known light sources have been mostly confined to the lab because their setup leaves little room for error—even a minor jostle could knock one out of alignment.
In a recent survey of over 1,500 scientists, more than 70 percent of them reported having been unable to reproduce other scientists’ findings at least once. Roughly half of the surveyed scientists ran into problems trying to reproduce their own results. No wonder people are talking about a “reproducibility crisis” in scientific research – an epidemic of studies that don’t hold up when run a second time.
Reproducibility of findings is a core foundation of science. If scientific results only hold true in some labs but not in others, then how can researchers feel confident about their discoveries? How can society put evidence-based policies into place if the evidence is unreliable?
Recognition of this “crisis” has prompted calls for reform. Researchers are feeling their way, experimenting with different practices meant to help distinguish solid science from irreproducible results. Some people are even starting to reevaluate how choices are made about what research actually gets tackled. Breaking innovative new ground is flashier than revisiting already published research. Does prioritizing novelty naturally lead to this point?
Big ideas are getting harder and harder to find, and innovations have become increasingly massive and costly endeavors, according to new research.
As a result, tremendous continual increases in research and development will be needed to sustain even today’s low rate of economic growth.
This means modern-day inventors—even those in the league of Steve Jobs—will have a tough time measuring up to the productivity of the Thomas Edisons of the past.
Nicholas Bloom, senior fellow at the Stanford Institute for Economic Policy Research and coauthor of a paper released this week by the National Bureau of Economic Research, contends that so many game-changing inventions have appeared since World War II that it’s become increasingly difficult to come up with the next big idea.
“The thought now of somebody inventing something as revolutionary as the locomotive on their own is inconceivable,” Bloom says.
“It’s certainly true if you go back one or two hundred years, like when Edison invented the light bulb,” he says. “It’s a massive piece of technology and one guy basically invented it. But while we think of Steve Jobs and the iPhone, it was a team of dozens of people who created the iPhone.”
This summer I worked on the Greenland ice sheet, part of a scientific experiment to study surface melting and its contribution to Greenland’s accelerating ice losses. By virtue of its size, elevation and currently frozen state, Greenland has the potential to cause large and rapid increases to sea level as it melts.
When I returned, a nonscientist friend asked me what the research showed about future sea level rise. He was disappointed that I couldn’t say anything definite, since it will take several years to analyze the data. This kind of time lag is common in science, but it can make communicating the issues difficult. That’s especially true for climate change, where decades of data collection may be required to see trends.
A recent draft report on climate change by federal scientists exploits data captured over many decades to assess recent changes, and warns of a dire future if we don’t change our ways. Yet few countries are aggressively reducing their emissions in a way scientists say are needed to avoid the dangers of climate change.
While this lack of progress dismays people, it’s actually understandable. Human beings have evolved to focus on immediate threats. We have a tough time dealing with risks that have time lags of decades or even centuries. As a geoscientist, I’m used to thinking on much longer time scales, but I recognize that most people are not. I see several kinds of time lags associated with climate change debates. It’s important to understand these time lags and how they interact if we hope to make progress.
What does hailing a ride with Uber have to do with 19th-century geometry and Einstein’s theory of relativity? Quite a bit, it turns out.
Uber and other location-based mobile applications rely on GPS to link users with available cars nearby. GPS technology requires a network of satellites that transmit data to and from Earth; but satellites wouldn’t relay information correctly if their clocks failed to account for the fact that time is different in space – a tenet of Einstein’s general theory of relativity. And Einstein’s famous theory relies on Riemannian geometry, which was proposed in the 19th century to explain how spaces and curves interact – but dismissed as derivative and effectively useless in its time.
The point is not just that mathematicians don’t always get their due. This example highlights an ongoing controversy about the value of basic science and scholarship. How much are marketplace innovations, which drive broad economic prosperity, actually linked to basic scientific research?
It’s an important question. Plenty of tax dollars and other funds go toward the research performed in academic centers, government labs and other facilities. But what kind of return are we as a society recouping on this large investment in new discoveries? Does scientific research reliably lead to usable practical advances?
A journal’s impact factor looks at the number of citations within a particular year, but the significance of some research exceeds a one year time frame. To highlight these papers, Google Scholar released their Classic Papers collection, which highlights highly-cited papers that have stood the test of time.
“This release of classic papers consists of articles that were published in 2006 and is based on our index as it was in May 2017,” Sean Henderson, software engineer at Google Scholar, said in a release. “The list of classic papers includes articles that presented new research. It specifically excludes review articles, introductory articles, editorials, guidelines, commentaries, etc. It also excludes articles with fewer than 20 citations and, for now, is limited to articles written in English.”
In the category of electrochemistry, works by ECS members Gleb Yushin, Christopher Johnson, Yuri Gogotsi, and Bernard Tribollet made the list.
Additionally, Michael Graetzel’s 2006 paper published in the Journal of The Electrochemical Society (JES), “Highly Efficient Dye-Sensitized Solar Cells Based on Carbon Black Counter Electrodes,” claimed the number eight spot.
“A journal from a professional society like ECS will look at the value of the science as the value of the science and not necessarily what its pizzazz is at that particular time,” Robert Savinell, editor of JES, told ECS in a recent podcast. “I think that’s one of the reasons we have this 10 year impact factor that’s at the top of the list. We’re looking at quality of the science in the long term.”