Ten Simple Rules for the Care and Feeding of Scientific Data Citation: Goodman A, Pepe A, Blocker AW, Borgman CL, Cranmer K, Crosas M, et al. (2014) Ten Simple Rules for the Care and Feeding of Scientific Data. PLoS Comput Biol 10(4): e1003542. Editor: Philip E. Bourne, University of California San Diego, United States of America Published: April 24, 2014 Copyright: © 2014 Goodman et al. Funding: The authors received no specific funding for writing this manuscript. Competing interests: The authors have declared that no competing interests exist. Introduction In the early 1600s, Galileo Galilei turned a telescope toward Jupiter. Figure 1. On these pages, Galilei combines data (drawings of Jupiter and its moons), key metadata (timing of each observation, weather, and telescope properties), and text (descriptions of methods, analysis, and conclusions). So how do we go about caring for and feeding data? Rule 1. Data management is a repeat-play game. Rule 2.
Nautilus Three Sentence Science Public-Friendly Open Science Previous “A “Modern Scientist” Manifesto” In the 21st century science is growing more technical and complex, as we gaze further and further while standing on the shoulders of many generations of giants. The public has often a hard time understanding research and its relevance to society. One of the reasons for this is that scientists do not spend enough time communicating their findings outside their own scientific community. Obviously there are some exceptions, but the rule is that scientists write content for scientists. Academia is often perceived as an ivory tower, and when new findings are shared with the outside world, this is not done by scientists, but by the media or even the political class. At the same time transparency and reproducibility are at stake in the increasingly complex world of research, which is still using old-fashioned tools when packaging and sharing content. Action Items. 21st century scientists need to produce “Public-Friendly Open Science” (PFOS).
GIP 58: The Geologic Time Spiral, A Path to the Past The Earth is very old—4.5 billion years or more according to scientific estimates. Most of the evidence for an ancient Earth is contained in the rocks that form the Earth's crust. The rock layers themselves—like pages in a long and complicated history—record the events of the past, and buried within them are the remains of life—the plants and animals that evolved from organic structures that existed 3 billion years ago. Also contained in rocks once molten are radioactive elements whose isotopes provide Earth with an atomic clock. Within these rocks, "parent" isotopes decay at a predictable rate to form "daughter" isotopes. By determining the relative amounts of parent and daughter isotopes, the age of these rocks can be calculated. Thus, the scientific evidence from rock layers, from fossils, and from the ages of rocks as measured by atomic clocks attests to a very old Earth. See USGS Fact Sheet 2007-3015 at for ages of geologic time periods.
Science of 'the Dress': Why We Confuse White & Gold with Blue & Black Remember "The Dress" — the photograph that sparked an online firestorm about whether the garment was white and gold or blue and black? Now, researchers have studied the phenomenon scientifically. It's been well-documented that people can see shapes and colors differently, but "the dress" is perhaps one of the most dramatic examples of a difference in color perception, the researchers said. [Eye Tricks: A Gallery of Visual Illusions] "By studying the pair of colors in 'The Dress,' we can answer the age-old question: Do you see colors the way that I see them? But until now, the effect had not been documented scientifically. Color constancy In one study, Conway and his colleagues asked 1,401 people (313 of whom had never seen the image of the dress before) what color they thought the garment was. People who saw the dress as a white-gold color probably assumed it was lit by daylight, so their brains ignored shorter, bluer wavelengths. Daylight vs. artificial light A new property of color
Steven Weinberg: the 13 best science books for the general reader If you had a chance to ask Aristotle what he thought of the idea of writing about physical science for general readers, he would not have understood what you meant. All of his own writing, on physics and astronomy as well as on politics and aesthetics, was accessible to any educated Greek of his time. This is not evidence so much of Aristotle’s skills as a writer, or of the excellence of Greek education, as it is of the primitive state of Hellenic physical science, which made no effective use of mathematics. It is mathematics above all that presents an obstacle to communication between professional scientists and the general educated public. The development of pure mathematics was already well under way in Aristotle’s day, but its use in science by Plato and the Pythagoreans had been childish, and Aristotle himself had little interest in the use of mathematics in science. It was not long before writers called “commentators” began to try to fill this gap.
Anthropocene: The human age Illustration by Jessica Fortner Almost all the dinosaurs have vanished from the National Museum of Natural History in Washington DC. The fossil hall is now mostly empty and painted in deep shadows as palaeobiologist Scott Wing wanders through the cavernous room. Wing is part of a team carrying out a radical, US$45-million redesign of the exhibition space, which is part of the Smithsonian Institution. And when it opens again in 2019, the hall will do more than revisit Earth's distant past. Alongside the typical displays of Tyrannosaurus rex and Triceratops, there will be a new section that forces visitors to consider the species that is currently dominating the planet. “We want to help people imagine their role in the world, which is maybe more important than many of them realize,” says Wing. Simon Lewis discusses the best candidate dates to define the beginning of the Anthropocene The greeting was a tad premature. Written in stone Walker's work sits at the top of the timescale.
Why Isn't the Sky Blue? What is the color of honey, and "faces pale with fear"? If you're Homer--one of the most influential poets in human history--that color is green. And the sea is "wine-dark," just like oxen...though sheep are violet. Which all sounds...well, really off. Read more: Guy Deutscher, Through the Language Glass: Why the World Looks Different in Other Languages Homer, The Odyssey: The Fitzgerald Translation virology blog — About viruses and viral disease The top 100 papers The discovery of high-temperature superconductors, the determination of DNA’s double-helix structure, the first observations that the expansion of the Universe is accelerating — all of these breakthroughs won Nobel prizes and international acclaim. Yet none of the papers that announced them comes anywhere close to ranking among the 100 most highly cited papers of all time. Citations, in which one paper refers to earlier works, are the standard means by which authors acknowledge the source of their methods, ideas and findings, and are often used as a rough measure of a paper’s importance. Fifty years ago, Eugene Garfield published the Science Citation Index (SCI), the first systematic effort to track citations in the scientific literature. To mark the anniversary, Nature asked Thomson Reuters, which now owns the SCI, to list the 100 most highly cited papers of all time. Richard van Noorden discusses what makes it to the top of the citation-count charts. Biological techniques Bioinformatics
What Scientists Really Do by Priyamvada Natarajan Curiosity: How Science Became Interested in Everything by Philip Ball University of Chicago Press, 465 pp., $35.00 Ignorance: How It Drives Science by Stuart Firestein Oxford University Press, 195 pp., $21.95 Rien ne dure que le provisoire. —French proverb The current misuse of scientific findings can be tragic. One of the expert geologists at the assessment meeting, Enzo Boschi, drew attention to this scientific uncertainty and noted that while a large earthquake was “unlikely,” the possibility could not be excluded. When the jolt of a quake woke up his two teenage children, a local resident, Giustino Parisse, trusting the report he had heard earlier on TV, calmed them down and put them back to sleep. Closer to home, on June 12, 2012, the North Carolina Senate passed a law that effectively prohibited the use of any data about sea-level changes in determining coastal policy in the state. This article is available to subscribers only. Print Subscription — $74.95 Online Subscription — $69.00
How Real-Life Science Influenced Guardians of the Galaxy | Underwire Marvel Studios Of all the people who are partially responsible for Friday’s much-anticipated Marvel movie Guardians of the Galaxy—studio head Kevin Feige, co-stars Chris Pratt and Zoe Saldana, Jack Kirby and Jim Starlin for pioneering Marvel’s “cosmic” stories—the most surprising one might be scientist Richard Feynman. Not that the celebrated physicist known for his work in the fields of quantum mechanics and nanotechnology contributed directly to the movie in any way (having died in 1988, that would’ve been unlikely), but without Feynman, GotG screenwriter Nicole Perlman might never have gotten involved in writing in the first place. “Science was my gateway drug,” Perlman says, “so I tried to see if I could apply my interest in science stories to actual science—and discovered that the nitty gritty is a lot less exciting than the stories.” Nicole Perlman. Ben Rasmussen/WIRED As a teenager, Perlman idolized the physicist the way some of her peers admired Tiger Beat cover boys.
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