Mountains of Creation in Visible and Infrared
Optical: Bright, young stars light up the gas.
Infrared: Clusters of forming stars can be seen in the tips of massive dust pillars.
Credits
Please give credit for this item to:
NASA's Scientific Visualization Studio
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Visualizer
- Greg Bacon (STScI)
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Image processing
- Lori Allen (Harvard Smithsonian CfA)
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Technical support
- Leann Johnson (Global Science and Technology, Inc.)
Missions
This visualization is related to the following missions:Datasets used in this visualization
Spitzer Space Telescope
Dataset can be found at: http://www.spitzer.caltech.edu/
See more visualizations using this data setSloan (A.K.A. Sloan Digital Sky Survey (SDSS))
Dataset can be found at: http://www.sdss.org
See more visualizations using this data setNote: While we identify the data sets used in these visualizations, we do not store any further details, nor the data sets themselves on our site.
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ID: 31044 Hyperwall Visual
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Extended Groth Strip
Read moreThe Extended Groth Strip covers a small swath of sky between the constellations Ursa Major and Boötes, and yet it contains at least 50,000 galaxies visible to NASA’s Hubble Space Telescope, and likely more that are beyond the range of light that Hubble can detect. || This panoramic image of sky near the Big Dipper contains at least 50,000 galaxies and took NASA’s Hubble Space Telescope nearly a year and 500 separate exposures to create, and yet it is only a very narrow area (70 arcminutes by 10 arcminutes). It is small sample typical of many, many such sections of sky, in all directions, which puts the vastness of space into dizzying perspective. For this project astronomers looked deeply rather than broadly, seeing back in time to the universe’s youth. Hubble provides amazing detail on a wide diversity of galaxies; some are beautiful spirals or massive elliptical galaxies like those seen in the nearby universe, but others look like random assemblages of material, the leftovers from violent mergers of young galaxies. These resemble some of the most distant, youngest galaxies observed.Despite Hubble’s powerful resolution and sensitivity, there are still galaxies so far away that they are beyond its view. Future observatories like NASA’s James Webb Space Telescope will follow up and look back to the universe’s infancy with instruments that can detect more infrared light. ||
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Galaxy Cluster Abell S1063
Read moreMassive galaxy cluster Abell S1063 is shown at the center of this Hubble image, surrounded by more distant galaxies that are magnified and warped by the cluster’s immense gravity. A faint haze of intracluster light is visible between the galaxies, produced by free-floating stars. || The powerful resolution and sensitivity of NASA’s Hubble Space Telescope reveal wonders of the universe in this image. The ability of gravity to warp the fabric of space itself is displayed, as the massive galaxy cluster Abell S1063 at center is surrounded by the distorted and magnified light of galaxies much farther away. The combined mass of the galaxies in the cluster act as a natural magnifying glass or funhouse mirror, showing amazing detail, but with a warped effect.Natural magnifiers like these allow scientists to study details of distant galaxies they could not see otherwise. The distant, warped galaxies also provide information about the cluster that is revealing them. Extreme distortion stretches distant galaxies into a smeared arc, indicating the mass distribution of the galaxy cluster. Likewise, some distant galaxies appear multiple times through the “lens,” and any changes within them, like a supernova, will show up in one reflection of the galaxy and then another, indicating how light is travelling through the distorted space.Hubble also captures the faint intracluster glow between the galaxies that make up Abell S1063, produced by free-floating “orphan” stars that were thrown from their galaxies during mergers. These stars align themselves with the overall gravity map of the cluster, and have been used as an indicator of where dark matter is distributed. In this way, the intracluster light is used to trace the location of dark matter, which is in itself undetectable. ||
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Triangulum Galaxy Mosaic
Read moreFull Hubble mosaic image of the Triangulum galaxy (M33), composed of 54 Hubble fields of view stitched together. The borders of individual Hubble images trace the jagged edge of the mosaic, which spans 19,400 light-years across. || This unprecedentedly detailed portrait of the Triangulum galaxy (M33) is composed of 54 Hubble fields of view stitched together, revealing nearly 25 million individually resolved stars spanning 19,400 light-years. In the full mosaic, the borders of individual Hubble fields-of-view create a jagged edge.Triangulum is oriented with its face toward us, unlike our other neighboring spiral galaxy Andromeda, which we see from the side. Its full-face orientation makes Triangulum ideal for studying the distribution of stars and gas in its well-defined spiral structure. A few characteristics stand out immediately. Striking areas of star formation glow bright blue throughout the galaxy, particularly in beautiful nebulas of hot, ionized hydrogen gas like star-forming region NGC 604, visible in the upper left of the full mosaic image.The star formation rate in Triangulum is intense. Though the Milky Way galaxy is about 10 times more massive, with 400 billion stars compared to Triangulum’s 40 billion, the galaxies appear to be producing stars at a similar rate. The orderly nature of Triangulum's spiral, with dust distributed throughout, is another distinctive feature. Astronomers think that in the Local Group of galaxies, Triangulum has been something of an introvert, isolated from frequent interactions with other galaxies that can distort spiral structure. Further research may determine if Triangulum is actually a newer member of the Local Group of galaxies, and perhaps its quiet days will soon be over.Continuing to uncovering the Triangulum galaxy’s story will provide an important point of reference in understanding how galaxies develop over time, and the diverse paths that shape what we see today. ||
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Spiral Galaxy M106
Read moreThis composite image of galaxy M106 focuses on its active center, where large amounts of gas are thought to be falling into and fueling a supermassive black hole. || This portrait of nearby galaxy M106 is a composite of separate exposures acquired by various instruments on NASA’s Hubble Space Telescope as well as ground-based telescopes. It shows the active galaxy’s chaotic center, where large amounts of gas are thought to be falling into and fueling a supermassive black hole.In addition to the starry arms we typically see in spiral galaxies, this image shows red “anomalous arms” of hot gas. Astronomers think the gas is being expelled from the galaxy’s active central nucleus. Cepheid variable stars in this galaxy were used to refine the cosmic “distance ladder,” which helps us to understand the vast distances of deep space, and how objects there relate to each other in spacetime. Certain Cepheids have a regular cycle of brightness changes, and this special property of these stars reveals how far away they are from us, providing benchmarks for measuring other objects in the universe. The image was created by astrophotographer Robert Gendler, who is not a professional astronomer but a civilian who took an interest in space and has been photographing the night sky for decades. He used publicly available Hubble data, combined with his own work and that of another astrophotographer, Jay GaBany, to create this hybrid image. ||
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CANDELS UDF
Read moreThis amazingly deep, detailed image is the result of the Hubble Space Telescope’s most substantial and ambitious observing campaign yet, CANDELS—the Cosmic Assembly Near-infrared Deep Extragalactic Legacy Survey. The image displays approximately 30,000 galaxies across 6 billion years of time and space—half the age of the universe—making for a fascinating visual study of galaxy evolution. || This may not look like the Hubble Space Telescope’s most dramatic image, but what you are seeing here is the history of the universe. This ultra deep field (UDF) is not a star field but a field of galaxies, stretching across half the observable universe in both space and time. The oldest and most distant galaxies depicted appear red, because as the universe expands their light has been stretched or “redshifted” to longer wavelengths. Red is the longest wavelength our eyes can see; beyond it are longer infrared wavelengths, which some telescopes, including Hubble, can detect for us. The brightest spots that appear to have x-shaped beams of light emanating from them are foreground stars between Hubble and the distant galaxies. The x-shaped light is characteristic of Hubble diffraction spikes, which are optical artifacts caused by the mirror support structure in most reflector telescopes.The image is the result of the CANDELS project—the Cosmic Assembly Near-infrared Deep Extragalactic Legacy Survey, Hubble’s most lengthy and detailed science observation. Gathering all the detailed data to create this image took Hubble 1450 hours, or the equivalent of 60 continuous days of observation. ||
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Globular Star Clusters Scattered Between Galaxies
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Pillars of Creation: M16
Read moreThis pair of images taken in 2014 reveal the Pillars of Creation in visible and near-infrared light, taken by the Hubble Space Telescope. || The Pillars of Creation (Eagle Nebula, or Messier 16) are a stellar nursery, composed of gas and dust slowly eaten away by massive stars that are off the far to the upper right corner of this image. The pillars are about 5 light-years tall in this image. Streamers of gas can be seen floating from the giant structures as intense radiation heats and evaporates them into space. Stars are being born inside the pillars due to the gas compressed into collapse by the powerful winds from the massive star cluster. The pillars are slowly being eroded but continue jutting out into the cleared region.The first Hubble image shows the Pillars in visible light capturing the silhouette of the dark cloud. The second Hubble image shows the Pillars in the near-infrared light where the dust now appears transparent. This reveals the stars within and behind the cloud. The infrared. blue-colored glow shows the edges of the cloud that are partly illuminated by the stars that surround them. The yellow-color captures the dusty stars that are obscured in the visible light image. ||
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ID: 30995 Hyperwall Visual
Sombrero Galaxy in Multiple Wavelengths
Read moreThe Sombrero Galaxy's dust and inner flat disk are very clear in the infrared. || The Sombrero Galaxy has a distinctive ring of dust that circles a smooth bulge of stars. The galaxy's dust and inner flat disk are very clear in the infrared. The Sombrero Galaxy may be a spiral galaxy like the Milky Way, but because of its extremely edge-on orientation, we see it in the flat pancake aspect. Our Milky Way would also have this appearance if viewed from the side angle.Optical: The dust ring is partially hidden in the galaxy's visible-light glow.Infrared: The galaxy's dust and inner flat disk are clear when viewing infrared. ||
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ID: 30994 Hyperwall Visual
Messier 82: Cigar Galaxy in Multiple Wavelengths
Read moreMassive burst of star formation in the core or M82 burst becomes clearer in infrared. || Messier 82 (M82), or the Cigar Galaxy, is an edge-on spiral undergoing a massive burst of star formation in its core. Many thousands of stars, and their surrounding gas and dust, have been stirred up. These stars are expelling violent winds that are blowing gas and dust out of the galaxy. The only hint of this in visible light are fountains of hot hydrogen gas streaming out of its disk. In infrared, the burst becomes clearer as we see massive amounts of dust also blowing out of the center.Optical: In visible light the edge-on disk highlights the geysers of hot gas shooting out of M82's core.Infrared: Infrared light lets us see this galaxy's full disk of stars and reveals volumes of dust (shown in red) carried along with the hot gas.X-ray: Chandra's X-ray image reveals gas that has been heated to millions of degrees by the violent outflow. ||
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ID: 30992 Hyperwall Visual
Galactic Center in Multiple Infrared Wavelengths
Read moreThe densely packed starfields at our galaxy's center are hidden behind dust clouds and only become visible in infrared light. || The densely packed starfields at our galaxy's center are hidden behind dust clouds and only become visible in infrared light. In the near-infrared they begin to appear, but are reddened for much the same reason that sunlight turns red when filtered through a smoky cloud. The dense dust clouds begin to stand out at longer infrared wavelengths, taking on changing rainbows of color depending on which parts of the spectrum contribute to the image. The very coldest, densest dust will only start to glow at the very longest wavelengths of light, rendered in red in the far-infrared image in this sequence.Far-infrared: At these long infrared wavelengths, the hottest dust glows blue, while the coldest is red.Mid-infrared: Some of the hottest dust clouds begin to glow as one looks deeper into the infrared spectrum.Near-infrared: The myriad stars and shadows caused by dust clouds are more vivid at shorter wavelengths of light. ||
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ID: 30990 Hyperwall Visual
Andromeda Galaxy in Visible and Infrared
Read moreWhile Andromeda is a spiral galaxy, its dust falls largely in a huge ring structure, possibly caused by gravitational interactions with its smaller satellite galaxies. || Andromeda is the nearest spiral galaxy to the Milky Way, around 2.5 million light-years away. Once thought to be a twin of our galaxy, its different structure is very evident in infrared light. While it is a spiral galaxy, its dust falls largely in a huge ring structure, possibly caused by gravitational interactions with its smaller satellite galaxies.Optical: This is the classic visible view of the Andromeda GalaxyInfrared: Andromeda's dust ring stands out in the infrared ||
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Messier 81 in Multiple Wavelengths
Read moreStar-forming regions in M81 become evident in infrared. || Messier 81 (M81) is a classic example of a spiral galaxy. Star-forming regions in this galaxy become evident in the infrared view. In the infrared, the spiral arm structure becomes much more powerful relative to the visibly bright galactic center, revealing denser concentrations of cold dust and gas ready to be transformed into new stars.Optical: Stars are partly obscured by dust.Near-Infrared: Longer infrared wavelengths now show star-forming areas in red.Far-Infrared: Shifting to infrared light reveals the dust lanes in red. ||
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ID: 30980 Hyperwall Visual
Barred Galaxy (NGC 253) in Multiple Wavelengths
Read moreNGC 253, characterized by its vigorous star formation and spiral dust lanes, reveals its underlying structure in multiple wavelengths. || In NGC 253, the visible-light view is complicated by the viewing angle, dark dust clouds, and scatterings of massive stars. Switching to the near-infrared lets us see the full population of stars more clearly, revealing a bar running through the center of the galaxy. Including mid-infrared also brings out the dust lanes clearly, and even highlights the areas where stars are forming vigorously, particularly in the galaxy's center.Optical: Dust and bright stars confuse the view in visible light.Near-Infrared: Dust lanes along the spiral arms glow in the mid-infrared.Mid-Infrared: The base population of stars reveal the spiral arms and central bar. ||
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ID: 30972 Hyperwall Visual
Zoo of Galaxies
Read moreThis animation starts with a collage of different galaxies first in visible light, and then far-infrared light. || Galaxies come in all shapes and sizes. There are two dominant shapes: spiral galaxies, and "blobby" elliptical. Spirals have an organized rotation about a clear center, and the arms trail behind as they stretch farther from the center. Some spirals may have bulging central regions, or bar shapes, or extended halos. Elliptical galaxies appear to be a huge cloud of stars. The relationship between these two types is unclear. Astronomers think that galaxies can change from one type to the other, either by processes within their own galaxy, or by interactions with other galaxies. Galaxy collisions can create all new distinct shapes as they pass through each other and scramble their stellar populations and their gas and dust intermingle.In this collage of galaxies, the first image presents a collection of visible light (Sloan) images, organized by the amount of dust in each galaxy. The dustiest galaxies are found in the lower left, and the least dusty in the upper right. In the visible image, there is not much to distinguish these galaxies from each other. However, in the second far-infrared (Herschel) image, the difference becomes obvious. Dust glows in the far-infrared; the galaxies in the upper right portion of the collage appear very small and compact in the far-IR, indicating that their dust is centrally concentrated. This technique can differentiate between galaxies in different stages of their evolution. ||
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ID: 30970 Hyperwall Visual
Kepler Supernova Remnant
Read moreThis animation shows the remnant of Kepler's Supernova, shown first in infrared, then visible, then low energy X-ray, then high-energy X-ray emission and finally in combination. || In 1604, astronomer Johannes Kepler noted the appearance of a new bright object in the sky, visible to the naked eye for the next 18 months. Today we know that he was seeing the death of a star 20,000 light years from Earth. It was more than ten times the mass of our sun.Now, more than four hundred years later, several of NASA’s Great Observatories combined to produce a multi-wavelength image of the expanding remnant. Although the initial blast was caused by the implosion of the star core that rebounded to violently eject material. The supernova today can be seen as it impacts surrounding material that was likely ejected in previous episodes of losing mass into space. The multiple wavelengths show separated layers of emission that represent different portions of the impact. Infrared (Spitzer) traces the coolest material as it is heated by the ejecta. The optical emission (Hubble) traces hot (several thousand degree) gas that is excited by the collision. The lower energy X-ray (Chandra) represents much hotter gas - up to a few million degrees, Fahrenheit, similar to the hot corona of our sun. The highest energy X-ray emission can reach tens of millions of degrees. This emission is closest to the most powerful portions of the expanding blast wave. The observations reveal that Kepler's supernova was a "Type Ia" - a supernova caused by the transfer of material between two smaller dwarf stars. The added material brings the total mass of one of the stars beyond the critical threshold for supernova collapse. ||
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ID: 30969 Hyperwall Visual
M101 (Pinwheel Galaxy)
Read moreThis animation shows the Messier 101 (Pinwheel) Galaxy, with simulated rotation, in visible, then infrared, then X-ray, and finally all three combined. || M101 is a comparable in size to the Milky Way. The disk is 100 billion solar masses, and the central bulge of about 3 billion solar masses. M101 is rich is pinkish star forming regions, many of which are very large and bright. Unlike most spiral galaxies, M101's spiral shape is notably asymmetrical. This is due to the tidal forces from interactions with its companion galaxies. These gravitational interactions compress interstellar hydrogen gas, which then triggers strong star formation activity in M101's spiral arms. ||
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ID: 30967 Hyperwall Visual
30 Doradus: A Massive Star-Forming Region
Read moreThis animation of the active star-forming region 30 Doradus showcases Hubble's entire wavelength range, from ultraviolet to infrared. || 30 Doradus (the Tarantula Nebula) is a very bright and active star-forming region outside of the Milky Way galaxy, at 160,000 light-years away. “30 Dor” is home to the central star cluster NGC 2070, including the most active region, R136, which appears in the central-right area of the image. R136 is a few million years old and contains many thousands of young stars, including several of the largest known. The visible (Hubble) bright blue stars shine out of the cleared cavity that is excavated by stellar winds. The redder stars are still partially embedded in the cloud material, seen in shadow except where illuminated by the cavity stars. In the infrared (Hubble) view the embedded stars shine more clearly through the intervening cloud material. ||
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ID: 30960 Hyperwall Visual
Eagle Nebula: M16 Wide
Read moreThis series of images shows the environment around the Pillars of Creation, the Eagle Nebula, Messier 16. The images reveal the nebula in optical, X-ray, mid-infrared, and far-infrared light. || The Pillars of Creation are revealed as the most persistent remnant of a once cocooned giant star forming nursery, although an even more slender pillar remains far to the left of the famous trio, and a massive promontory remains above them. All Pillars are aimed toward the massive star cluster to the upper right of the Pillars, most visible in X-ray (Chandra). These massive stars have blown open the nursery door. Their powerful stellar winds of charged particles blow away the gas and dust to create a window into the center of the cloud. In the visible (NOAO) image the cloud surface shines where the gas is illuminated, and is shadowed where the light source is blocked. The X-ray (Chandra+XMM) image shows exclusively the most massive stars, which generate the highest energy and powerful winds that excite the X-rays themselves.In sharp contrast, the mid-infrared image (Spitzer) reveals the cloud material. The blue color represents reflected starlight, while the green color is hydrogen gas, emitting directly from the depths of the cloud. The red haze is warm hydrocarbon dust, filling the cavity, heated by the ultraviolet light from the nearby massive stars. The far-infrared (Herschel) image shows very cold dust, at a chilly few hundred degrees below freezing. It represents cloud material that has yet to coalesce into stars or be blown away. This image most closely resembles the cavern in which the massive stars have carved out space. Finally, the visible (ESO) image shows where the stars illuminate portions of the cloud and leave shadows. ||
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ID: 30961 Hyperwall Visual
Milky Way Center in Multiple Wavelengths
Read moreThis animation reveals the center of our Milky Way galaxy, first in near-infrared, then mid-infrared, then X-ray light, and then all three in combination. || Our solar system and sun is located inside a pancake shaped galaxy. Imagine a scale model where the plane of the Milky Way is a DVD, and the central bulge is a ping pong ball glued in the center. It is this narrow plane that we see across the sky on a sufficiently dark night from Earth, from our vantage point inside it. Dust blocks much of our view. But at other wavelengths astronomers can probe the heart of our galaxy.The center of our Milky Way Galaxy, located 26,000 light-years away, houses a black hole as massive as a million suns, surrounded by very dense nest of stars and bright clouds. The density of stars in the innermost regions of the Milky Way is up to one million times greater than in our portion of the galaxy. This region contains extreme and unusual conditions that can influence the types of stars that reside there. The density of stars and clouds creates streaming patterns. There are large massive star clusters that cannot not be found outside that region. The radiation environment is intense in the galactic center. The near-infrared image (Hubble) shows the knots of cloud edges and emission that mark the plane of our galaxy. The mid-infrared image (Spitzer) highlights the clouds of gas and dust and star forming regions. The X-ray image (Chandra) tracks the most luminous and powerful stars in the area conspicuously revealing the galactic center region itself - including the million-solar mass black hole at the very hub of our galaxy. In addition, several other X-ray emitting locations can be seen, linked to massive star clusters. ||
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ID: 30959 Hyperwall Visual
The Orion Nebula: Visible and Infrared Views
Read moreThis animation showcases the Orion Nebula, first in infrared light (Spitzer), then in visible light (Hubble), and finally a blend of the two images in a multi-color mosaic. || This sequence uses infrared (Spitzer) and visible (Hubble) images to reveal the formation of stars within a large cloud of hydrogen gas and dust. The warm gas lights up in the infrared view as red, and the hydrocarbon dust appears in green. The starlight from young stars appears in blue. The flood of starlight provides extra illumination throughout the dusty environment and in front of the cloud. The threads of gas, reminiscent of clouds on Earth, are compressed and pushed into knots by the winds from forming stars throughout the region. The clouds appear as shadows in this visible-light view. However, in areas where the gas has mostly been cleared or thinned, glowing cavities can be seen inside these cocoons. The combined view hints at the nebula’s complex three-dimensional structure. ||
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ID: 30952 Hyperwall Visual
The Whirlpool Galaxy: Visible and X-ray Views
Read moreThis animation contrasts the visible-light (Hubble Space Telescope) and X-ray (Chandra X-ray Observatory) images of Messier 51, the majestic Whirlpool galaxy. || This sequence uses visible (Hubble) and X-ray (Chandra) imagery to highlight different structures within the Whirlpool galaxy (Messier 51). As seen in visible light, the familiar whirlpool shape is traced out by glowing spiral arms. These arms are composed of billions of stars orbiting about the center of the galaxy over millions of years. The pink color is from hot hydrogen gas that permeates the galaxy and indicates sites of new star formation. Silhouetted in the bright arms are dark lanes of obscuring dust that blocks visible light. The stars farther away from the center orbit more slowly and fall behind, creating the signature spiral "winding" arm. A massive black hole lies at the galaxy’s center. The black hole can’t be seen directly, but its presence is hinted at by the dense star clusters at the center. A second smaller spiral galaxy can be seen in the upper-right portion of the image. The second image shows the X-ray view, highlighting the very hottest gas at millions of degrees Fahrenheit. The X-rays most closely match the visible pink hot gas in active star-forming regions and are particularly strong near the galactic centers of both galaxies. X-rays are also penetrating obscuring dust. ||
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ID: 30945 Hyperwall Visual
HH666: The Hidden Jet Launch
Read moreHerbig Haro 666, a young star driving bipolar jets within a pillar of gas and dust in the Carina Nebula, is shown in two Hubble Space Telescope images, first in visible light and then near-infrared light. || Herbig Haro 666 is a young star that is shooting out narrow collimated jets in opposite directions. The jets are a byproduct of material falling onto to the star. The material is heated and then escapes along the star’s spin axis. Blazing across space at 200,000 miles per hour, the jets provide a way for the star to slow its spin by carrying off angular momentum. The star is hidden deep within the obscuring cloud of gas and dust shown in the Hubble visible-light image. In Hubble’s infrared view, the cloud mostly disappears, revealing the stars within. The jets will extend out to a light-year before dissipating. Jets are a dramatic example of the interaction between stars and the gas and dust that surrounds them. ||
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ID: 30944 Hyperwall Visual
Vision Across the Full Spectrum: The Crab Nebula, from Radio to X-ray
Read moreThis animation shows the Crab Nebula from the lowest-frequency light (radio), to infrared, visible, ultraviolet, and finally X-ray. || The Crab Nebula (Messier 1) is the remnant of a supernova that exploded in the year 1054 AD. This mysterious "new star," as early sky watchers called it, was observed around the world and most notably recorded by Chinese astronomers. The supernova was triggered when the progenitor star abruptly collapsed onto its iron core, and rebounded to expel most of its layers of gas into a blast wave. This wave is seen as an optical and infrared set of filaments that continues to impact surrounding material. This material was expelled from the dying red giant progenitor star 20,000 years prior to the supernova. The ultra-dense remnant core, called a neutron star, is crushed to the size of a city. Spinning furiously, the neutron star sends out twin beams of radiation, like a lighthouse. A lot of this energy comes from the neutron star’s intense magnetic fields.The initial radio image (from the Very Large Array) shows the cool gas and dust blown out by the supernova winds. The infrared (Spitzer) image shows synchrotron radiation, an unusual form of light produced by electrons trapped in magnetic fields. The infrared image also shows hot gas.The visible-light image (Hubble) shows the detailed filamentary structure of the blast wave as it impacts the surrounding material. The ultraviolet image (XMM-Newton) shows hot, ionized gas. Finally, the X-ray emission (Chandra) from high-energy particles ejected from the pulsar shows the expanding nebula. The bipolar structure represents a powerful jet of material funneled along the neutron star's spin axis. ||
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ID: 30943 Hyperwall Visual
Lagoon Nebula: Visible and Infrared Views
Read moreThis video compares the colorful Hubble Space Telescope visible-light image of the core of the Lagoon Nebula and a Hubble infrared-light view of the same region. || This visible-light image of the central region of the Lagoon Nebula reveals a fantasy landscape of ridges, canyons, pillars, and mountains of gas and dust surrounding a very hot newborn star. When the visible view crossfades into an image taken in near-infrared light, the most obvious difference is the abundance of stars that fill the field of view. Most of them are more distant, background stars located behind the nebula itself. However, some of these pinpricks of light are young stars within the Lagoon Nebula. Only the densest of the gas clouds remain in the infrared view. ||
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ID: 30941 Hyperwall Visual
Colliding Galaxies (NGC 2207)
Read moreThis animation shows the interacting galaxy pair NGC 2207, first in optical light, then in infrared, in X-ray, and finally in combination. || NGC 2207 is a pair of colliding spiral galaxies. Their bright central nuclei resemble a striking set of eyes. In visible light (Hubble), trails of stars and gas trace out spiral arms, stretched by the tidal pull between the galaxies. When seen in infrared light (IR; Spitzer), the glow of warm dust appears. This dust is the raw material for the creation of new stars and planets. Complementary to the IR, the X-ray (Chandra) view reveals areas of active star formation and the birth of super star clusters. Though individual stars are too far apart to collide, the materialbetween the stars merges to create high-density pockets of gas. These regions gravitationally collapse to trigger a firestorm of starbirth. The galaxy collision will go on for several millions of years, leaving the galaxies completely altered in terms of their shapes. ||
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ID: 30940 Hyperwall Visual
Pillars in the Carina Nebula (HH901)
Read moreThis animation shows Herbig Haro 901 (HH901), a large pillar of gas and dust with eruptive young stars inside the Carina Nebula. The animation reveals the object in two Hubble Space Telescope images: first in visible light and then in infrared light. || Herbig Haro 901 is an immense pillar of gas and dust inside the Carina Nebula, a huge star-forming region in our galaxy. The pillar is several light-years tall and contains a few massive young stars. They shoot out powerful jets that emerge from the cloud. In some cases, the jets create bow-shock patterns similar to the effects of a ship plowing through the ocean. In the visible-light (Hubble) view, very few stars can be seen because the gas and dust block starlight. But in the infrared (Hubble) view, stars become visible and numerous. The visible-light colors emerge from the glow of different gases: oxygen (blue), hydrogen/nitrogen (green), and sulfur (red). The Carina Nebula is approximately 7,500 light years from Earth. ||
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