current rotation

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*Casually slides gameplay pics into the queue* Thank god I keep note of what household I’m currently on in the rotation, because otherwise I’d have no idea where I left off. Anyway, I see things are business as usual here at chez Blanch-Shou-Gonzales.

How am i supposed to choose one lockscreen picture and one homescreen picture when I have too many fandoms to choose from

Cool temperatures and abundant nutrients make the waters off the western coast of North America especially biologically productive. This image is a composite of satellite data highlighting large phytoplankton blooms in the California Current. This current runs southward along the coastline, and, like other eastern boundary currents, it experiences strong upwelling, or rising of colder, nutrient-rich waters from lower depths. The upwelling is driven in part by Earth’s rotation. As the earth spins, Coriolis effects push the California Current out from the coast, allowing deeper waters to rise and fill the void. The cooler water provided by the upwelling is a major factor in the moderated climate along the West Coast. (Image credit: NASA/N.Kuring; via NASA Earth Observatory)

current rotation:
  • empire! empire! (i was a lonely estate) - what it takes to move forward
  • snowing - i could do whatever i wanted if i wanted
  • snowing - fuck your emotional bullshit
  • mineral - Endserenading 
  • mineral - the power of failing
  • algernon cadwallader - some kind of cadwallader
  • sunny day real estate - diary
  • the world is a beautiful place and i am no longer afraid to die/deer leap - are here to help you
  • frank turner - england keep my bones
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While working on a meat processing factory, this guy slipped, his hand got stuck on a meat grinder! He came to the ER with the grinder still on his arm, as you can see in the first image. He obviously lost his hand and was later amputated. :(

I’m currently in my trauma rotation, that’s why I am able to show you these images.

Mientras trabajaba en una fábrica de carne, este paciente se resbaló y su mano quedó atorada en una trituradora de carne. Llego a urgencias todavía con la trituradora en su brazo, como pueden ver en la primer imagen. Obviamente perdió su mano y esta fue amputada. :(

Actualmente estoy en mi rotación de cirugía de trauma, es por esto que puedo mostrarles estas imágenes.

More gear nerdery, for you guitar lovers, and then it’s back to living in my head for the weekend. Current rotation: shell pink Warmoth JM clone with Fralin P90s and Bigsby, sonic blue ‘65 (mostly) Mustang with original PUs, candy apple red Squier VM Jaguar with Duncan Antiquitys. And Mastery Bridges and Couch straps for everyone. #fender #offset #jazzmaster #jaguar #mustang

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By @poweredbymario Current Every Day Carry rotation. Some get carried more than others. (Osprey suppressor stays home)

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Sea Soup: Mandy Barker’s Photo Collages of Ocean Trash

Scientists have informally dubbed the discarded human waste accumulating in our oceans with a number of names: “soup,” “trash vortex,” and most nobly, the “Great Pacific garbage patch.” The last term makes particular reference to the exceptionally high relative concentrations of pelagic plastics, chemical sludge and other debris that have been trapped by the currents of the North Pacific Gyre, one of the five major oceanic gyres on the planet. Gyres, large systems of rotating ocean currents, are the largest ecosystems in the world and, more recently, ground zero for massive accretions of plastic trash. In researching this phenomenon, UK photographer Mandy Barker developed a series of images entitled ‘Soup’ which depicts these plastics and discarded items salvaged from beaches around the world. Presented in beautifully precise, color-coded arrangements, the collected objects appear as a taxonomy of unique species in a toxic “ecosystem.” The images also underscore the longevity of even the tiniest pieces of trash: though haphazardly discarded and forgotten, they form an ever-growing environmental issue. Barker’s project, by bringing a seemingly remote subject into clear view, compels us to address this elephant in the room.

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SLik d Feat Decypher, Picture Perfect

Oh my lawd, this joint is way too good.  Support, follow & peep their music

Slik D|Decypher

Why The Day Will Increase By One Second on 6/30/15

The day will officially be a bit longer than usual on Tuesday, June 30, 2015, because an extra second, or “leap” second, will be added.

“Earth’s rotation is gradually slowing down a bit, so leap seconds are a way to account for that,” said Daniel MacMillan of NASA’s Goddard Space Flight Center in Greenbelt, Md.

Strictly speaking, a day lasts 86,400 seconds. That is the case, according to the time standard that people use in their daily lives—Coordinated Universal Time, or UTC. UTC is “atomic time"—the duration of one second is based on extremely predictable electromagnetic transitions in atoms of cesium. These transitions are so reliable that the cesium clock is accurate to one second in 1,400,000 years.

However, the mean solar day—the average length of a day, based on how long it takes Earth to rotate—is about 86,400.002 seconds long. That’s because Earth’s rotation is gradually slowing down a bit, due to a kind of braking force caused by the gravitational tug of war between Earth, the moon and the sun. Scientists estimate that the mean solar day hasn’t been 86,400 seconds long since the year 1820 or so.

This difference of 2 milliseconds, or two thousandths of a second—far less than the blink of an eye—hardly seems noticeable at first. But if this small discrepancy were repeated every day for an entire year, it would add up to almost a second. In reality, that’s not quite what happens. Although Earth’s rotation is slowing down on average, the length of each individual day varies in an unpredictable way.

The length of day is influenced by many factors, mainly the atmosphere over periods less than a year. Our seasonal and daily weather variations can affect the length of day by a few milliseconds over a year. Other contributors to this variation include dynamics of the Earth’s inner core (over long time periods), variations in the atmosphere and oceans, groundwater, and ice storage (over time periods of months to decades), and oceanic and atmospheric tides. Atmospheric variations due to El Niño can cause Earth’s rotation to slow down, increasing the length of day by as much as 1 millisecond, or a thousandth of a second.

Scientists monitor how long it takes Earth to complete a full rotation using an extremely precise technique called Very Long Baseline Interferometry (VLBI). These measurements are conducted by a worldwide network of stations, with Goddard providing essential coordination of VLBI, as well as analyzing and archiving the data collected.

The time standard called Universal Time 1, or UT1, is based on VLBI measurements of Earth’s rotation. UT1 isn’t as uniform as the cesium clock, so UT1 and UTC tend to drift apart. Leap seconds are added, when needed, to keep the two time standards within 0.9 seconds of each other. The decision to add leap seconds is made by a unit within the International Earth Rotation and Reference Systems Service.

Typically, a leap second is inserted either on June 30 or December 31. Normally, the clock would move from 23:59:59 to 00:00:00 the next day. But with the leap second on June 30, UTC will move from 23:59:59 to 23:59:60, and then to 00:00:00 on July 1. In practice, many systems are instead turned off for one second.

Previous leap seconds have created challenges for some computer systems and generated some calls to abandon them altogether. One reason is that the need to add a leap second cannot be anticipated far in advance.

"In the short term, leap seconds are not as predictable as everyone would like,” said Chopo Ma, a geophysicist at Goddard and a member of the directing board of the International Earth Rotation and Reference Systems Service. “The modeling of the Earth predicts that more and more leap seconds will be called for in the long-term, but we can’t say that one will be needed every year.”

From 1972, when leap seconds were first implemented, through 1999, leap seconds were added at a rate averaging close to one per year. Since then, leap seconds have become less frequent. This June’s leap second will be only the fourth to be added since 2000. (Before 1972, adjustments were made in a different way.)

Scientists don’t know exactly why fewer leap seconds have been needed lately. Sometimes, sudden geological events, such as earthquakes and volcanic eruptions, can affect Earth’s rotation in the short-term, but the big picture is more complex.

VLBI tracks these short- and long-term variations by using global networks of stations to observe astronomical objects called quasars. The quasars serve as reference points that are essentially motionless because they are located billions of light years from Earth. Because the observing stations are spread out across the globe, the signal from a quasar will take longer to reach some stations than others. Scientists can use the small differences in arrival time to determine detailed information about the exact positions of the observing stations, Earth’s rotation rate, and our planet’s orientation in space.

Current VLBI measurements are accurate to at least 3 microseconds, or 3 millionths of a second. A new system is being developed by NASA’s Space Geodesy Project in coordination with international partners. Through advances in hardware, the participation of more stations, and a different distribution of stations around the globe, future VLBI UT1 measurements are expected to have a precision better than 0.5 microseconds, or 0.5 millionths of a second.

“The next-generation system is designed to meet the needs of the most demanding scientific applications now and in the near future,” says Goddard’s Stephen Merkowitz, the Space Geodesy Project manager.

NASA manages many activities of the International VLBI Service for Geodesy and Astrometry including day-to-day and long-term operations, coordination and performance of the global network of VLBI antennas, and coordination of data analysis. NASA also directly supports the operation of six global VLBI stations.

Proposals have been made to abolish the leap second. No decision about this is expected until late 2015 at the earliest, by the International Telecommunication Union, a specialized agency of the United Nations that addresses issues in information and communication technologies.

(via NASA)