A solar prominence in the shape of a hook is seen in extreme ultraviolet light (He II at 304 angstroms) hangs above the Sun. Prominences are huge clouds of relatively cool, dense plasma suspended in the Sun's hot, thin corona. This image was made by the Solar and Heliospheric Observatory (SOHO) using the Extreme ultraviolet Imaging Telescope (EIT) 304 Angstrom instrument.

A solar prominence in the shape of a hook is seen in extreme ultraviolet light (He II at 304 angstroms) hangs above the Sun. Prominences are huge clouds of relatively cool, dense plasma suspended in the Sun's hot, thin corona. This image was made by the Solar and Heliospheric Observatory (SOHO) using the Extreme ultraviolet Imaging Telescope (EIT) 304 Angstrom instrument.
SuperStock offers millions of photos, videos, and stock assets to creatives around the world. This image of A solar prominence in the shape of a hook is seen in extreme ultraviolet light (He II at 304 angstroms) hangs above the Sun. Prominences are huge clouds of relatively cool, dense plasma suspended in the Sun's hot, thin corona. This image was made by the Solar and Heliospheric Observatory (SOHO) using the Extreme ultraviolet Imaging Telescope (EIT) 304 Angstrom instrument. by NASA is available for licensing today.

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A solar flare erupts on Jan. 30, 2014, as seen by the bright flash on the left side of the sun, captured here by NASA's Solar Dynamics Observatory. In the lower right corner the moon can be seen, having just passed between the observatory and the sun. --- The sun emitted a mid-level solar flare, peaking at 11 11 a.m. EST on Jan. 30, 2014. Images of the flare were captured by NASA's Solar Dynamics Observatory, or SDO, shortly after the observatory witnessed a lunar transit. The black disk of the moon can be seen in the lower right of the images. Solar flares are powerful bursts of radiation. Harmful radiation from a flare cannot pass through Earth's atmosphere to physically affect humans on the ground, however -- when intense enough -- they can disturb the atmosphere in the layer where GPS and communications signals travel. To see how this event may impact Earth, please visit NOAA's Space Weather Prediction Center at a href= http //spaceweather.gov rel= nofollow spaceweather.gov /a , th
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NASA image captured June 5, 2012. On June 5-6 2012, SDO is collecting images of one of the rarest predictable solar events the transit of Venus across the face of the sun. This event happens in pairs eight years apart that are separated from each other by 105 or 121 years. The last transit was in 2004 and the next will not happen until 2117. i
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A solar flare bursts off the left limb of the sun in this image captured by NASA's Solar Dynamics Observatory on June 10, 2014, at 7 41 a.m. EDT. This is classified as an X2.2 flare, shown in a blend of two wavelengths of light 171 and 131 angstroms, colorized in gold and red, respectively.
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Caption This image from June 20, 2013, at 11 15 p.m. EDT shows the bright light of a solar flare on the left side of the sun and an eruption of solar material shooting through the suns atmosphere, called a prominence eruption. Shortly thereafter, this same region of the sun sent a coronal mass ejection out into space. --- On June 20, 2013, at 11 24 p.m., the sun erupted with an Earth-directed coronal mass ejection or CME, a solar phenomenon that can send billions of tons of particles into space that can reach Earth one to three days later. These particles cannot travel through the atmosphere to harm humans on Earth, but they can affect electronic systems in satellites and on the ground. Experimental NASA research models, based on observations from NASAs Solar Terrestrial Relations Observatory and ESA/NASAs Solar and Heliospheric Observatory show that the CME left the sun at speeds of around 1350 miles per second, which is a fast speed for CMEs. Earth-directed CMEs can cause a space
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The Solar Terrestrial Relations Observatory (STEREO) spacecraft Ahead observed in the 304 Angstrom wavelength an eruptive solar prominence on the edge of the Sun using its Extreme Ultraviolet Imager (EUVI).
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Extreme ultraviolet light streams out of an X-class solar flare as seen in this image captured on March 29, 2014, by NASA's Solar Dynamics Observatory. This image blends two wavelengths of light 304 and 171 Angstroms, which help scientists observe the lower levels of the sun's atmosphere. More info The sun emitted a significant solar flare, peaking at 1 48 p.m. EDT March 29, 2014, and NASA's Solar Dynamics Observatory captured images of the event. Solar flares are powerful bursts of radiation. Harmful radiation from a flare cannot pass through Earth's atmosphere to physically affect humans on the ground, however -- when intense enough -- they can disturb the atmosphere in the layer where GPS and communications signals travel. To see how this event impacted Earth, please visit NOAA's Space Weather Prediction Center at a href= http //spaceweather.gov rel= nofollow spaceweather.gov /a , the U.S. government's official source for space weather forecasts, alerts, watches and warnings. This f
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November 1-2, 2011 - One large and two good-sized, energetic active regions are rotating into view. The magnetic connection between the upper two areas clearly begin to reach over and interact with each other. Above them, the magnetic field lines, made visible in extreme ultraviolet light by particles spiraling along them, rise out and loop back to the Sun, constantly changing their structures. As these regions rotate towards the center of the Sun, any solar storms they generate could produce ef
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Arches of magnetic field lines towered over the suns edge as a pair of active regions began to rotate into view in this video captured by NASAs Solar Dynamics Observatory on April 5-6, 2016. Active regions are areas of very concentrated magnetic field. Charged particles spiraling along these magnetic fields emit extreme ultraviolet light, which is typically not visible to our eyes, but colorized here in gold. The light given off from the particles helps trace out the magnetic field lines, which are otherwise invisible. Scientists use images such as this to observe how magnetic fields move around the sun and learn more about what causes active regions.
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Image of the sun, the largest star in our solar system.
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Flaring, active regions of our sun are highlighted in this image combining observations from several telescopes. During the observations, microflares went off, which are smaller versions of the larger flares that also erupt from the sun's surface.
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This LASCO C2 image, taken 8 January 2002, shows a widely spreading coronal mass ejection (CME) as it blasts more than a billion tons of matter out into space at millions of kilometers per hour. The C2 image was turned 90 degrees so that the blast seems to be pointing down. An EIT 304 Angstrom image from a different day was enlarged and superimposed on the C2 image so that it filled the occulting disk for effect.
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first light image from the three state-of-the art instruments on NASAs Solar Dynamics Observatory (SDO) 2010 Two of the SDO instruments were built at the Solar and Astrophysics Laboratory of the Lockheed Martin NYSE: LMT Advanced Technology Centre (ATC) in Palo Alto. The Atmospheric Imaging Assembly (AIA), a suite of four telescopes, provides an unprecedented view of the solar corona, taking images that span at least 1.3 solar diameters in multiple wavelengths nearly simultaneously, at a resolution of 0.6 arc-seconds and at a cadence of 10 seconds or better. The Helioseismic and Magnetic Imager (HMI
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NASA image release Sept 9, 2010Just as sunspot 1105 was turning away from Earth on Sept. 8, the active region erupted, producing a solar flare and a fantastic prominence. The eruption also hurled a bright coronal mass ejection into space. The eruption was not directed toward any planets.View the video here: www.flickr.com/photos/gsfc/4974878090This is a snapshot of the prominence.
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Numerous arches of magnetic field lines danced and swayed above a large active region over about a 30-hour period (July 17-18, 2017). We can also see the magnetic field lines from the large active region reached out and connected with a smaller active region. Those linked lines then strengthened (become brighter), but soon began to develop a kink in them and rather swiftly faded from view. All of this activity is driven by strong magnetic forces associated with the active regions. The images were taken in a wavelength of extreme ultraviolet light.
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The Sun blew out a coronal mass ejection along with part of a solar filament over a three-hour period (Feb. 24, 2015). While some of the strands fell back into the Sun, a substantial part raced into space in a bright cloud of particles (as observed by the SOHO spacecraft). The activity was captured in a wavelength of extreme ultraviolet light. Because this occurred way over near the edge of the Sun, it was unlikely to have any effect on Earth.
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The magnetic field lines between a pair of active regions formed a beautiful set of swaying arches, seen in this footage captured by NASAs Solar Dynamics Observatory on April 24-26, 2017. The arches are traced out by charged particles spinning along the magnetic field lines. These arches, which form a connection between regions of opposite magnetic polarity, are visible in exquisite detail in this wavelength of extreme ultraviolet light. Extreme ultraviolet light is typically invisible to our eyes, but is colorized here in gold.
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When an active region rotated into a profile view, NASA's Solar Dynamics Observatory was able to capture the magnificent loops arching above an active region (Sept. 28-29, 2016). The Earth was inset to give a sense of the scale of these towering arches.
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As a pair of active regions began to rotate into view, their towering magnetic field lines above them bloomed into a dazzling display of twisting arches (Oct. 27-28, 2015) in this image from NASA's Solar Dynamics Observatory.
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Image Number: 4389-1663Rights ManagedCredit Line:NASA/SuperStockCollection:NASAStory:Dynamic Solar PhenomenaModel Release:NoProperty Release:NoResolution:4388×4388
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