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Short description: Planet

Jupiter ♃
An image of Jupiter taken by NASA's Hubble Space Telescope
Full disk view in natural colour, taken by the Hubble Space Telescope in April 2014[lower-alpha 1]
Pronunciation/ˈpɪtər/ (About this soundlisten)[1]
Named afterJupiter
AdjectivesJovian /ˈviən/
Orbital characteristics[5]
Epoch J2000
|{{{apsis}}}|helion}}816.363 Gm (5.4570 astronomical unit|AU)
|{{{apsis}}}|helion}}740.595 Gm (4.9506 AU)
778.479 Gm (5.2038 AU)
Synodic period398.88 d
Average Orbital speed13.07 km/s (8.12 mi/s)
Mean anomaly20.020°[2]
Longitude of ascending node100.464°
|{{{apsis}}}|helion}}21 January 2023[3]
Known satellites80 ((As of 2021))[4]
Physical characteristics[5][11][12]
Mean radius69,911 km (43,441 mi)[lower-alpha 2]
10.973 of Earth's
equatorial radius]]71,492 km (44,423 mi)[lower-alpha 2]
11.209 of Earth's
Polar radius66,854 km (41,541 mi)[lower-alpha 2]
10.517 of Earth's
Surface area6.1469×1010 km2 (2.3733×1010 sq mi)
120.4 of Earth's
Volume1.4313×1015 km3 (3.434×1014 cu mi)[lower-alpha 2]
1,321 of Earth's
Mass1.8982×1027 kg (4.1848×1027 lb)
Mean density1,326 kg/m3 (2,235 lb/cu yd)[lower-alpha 3]
24.79 m/s2 (81.3 ft/s2)[lower-alpha 2]
2.528 g
inertia factor0.2756±0.0006[6]
59.5 km/s (37.0 mi/s)[lower-alpha 2]
Rotation period9.9258 h (9 h 55 m 33 s)[7]
Sidereal rotation period9.9250 hours (9 h 55 m 30 s)
Equatorial rotation velocity12.6 km/s (7.8 mi/s; 45,000 km/h)
Axial tilt3.13° (to orbit)
North pole right ascension268.057°;  17h 52m 14s
North pole declination64.495°
Albedo0.503 (Bond)[8]
0.538 (geometric)[9]
Surface temp. min mean max
1 bar 165 K
0.1 bar 78 K 128 K
Apparent magnitude−2.94[10] to −1.66[10]
Angular diameter29.8" to 50.1"
Surface pressure200–600 kPa (opaque cloud deck)[13]
Scale height27 km (17 mi)
Composition by volume

Jupiter is the fifth planet from the Sun and the largest in the Solar System. It is a gas giant with a mass more than two and a half times that of all the other planets in the Solar System combined, but slightly less than one-thousandth the mass of the Sun. Jupiter is the third brightest natural object in the Earth's night sky after the Moon and Venus, and it has been observed since prehistoric times. It was named after the Roman god Jupiter, the king of the gods.

Jupiter is primarily composed of hydrogen, but helium constitutes one-quarter of its mass and one-tenth of its volume. It probably has a rocky core of heavier elements,[14] but, like the other giant planets in the Solar System, it lacks a well-defined solid surface. The ongoing contraction of Jupiter's interior generates more heat than it receives from the Sun. Because of its rapid rotation, the planet's shape is an oblate spheroid: it has a slight but noticeable bulge around the equator. The outer atmosphere is divided into a series of latitudinal bands, with turbulence and storms along their interacting boundaries. A prominent result of this is the Great Red Spot, a giant storm which has been observed since at least 1831.

Jupiter is surrounded by a faint planetary ring system and a powerful magnetosphere. Jupiter's magnetic tail is nearly 800 million km (5.3 astronomical unit|AU; 500 million mi) long, covering nearly the entire distance to Saturn's orbit. Jupiter has 80 known moons and possibly many more,[4] including the four large moons discovered by Galileo Galilei in 1610: Io, Europa, Ganymede, and Callisto. Io and Europa are about the size of Earth's Moon; Callisto is almost the size of the planet Mercury, and Ganymede is larger.

Pioneer 10 was the first spacecraft to visit Jupiter, making its closest approach to the planet in December 1973.[15] Jupiter has since been explored by multiple robotic spacecraft, beginning with the Pioneer and Voyager flyby missions from 1973 to 1979, and later with the Galileo orbiter in 1995.[16] In 2007, the New Horizons visited Jupiter using its gravity to increase its speed, bending its trajectory en route to Pluto. The latest probe to visit the planet, Juno, entered orbit around Jupiter in July 2016.[17][18] Future targets for exploration in the Jupiter system include the probable ice-covered liquid ocean of Europa.[19]

Name and symbol

In both the ancient Greek and Roman civilizations, Jupiter was named after the chief god of the divine pantheon: Zeus for the Greeks and Jupiter for the Romans. The International Astronomical Union (IAU) decided to formally adopt the name Jupiter for the planet in 1976. The IAU names newly discovered satellites of Jupiter for the mythological lovers, favourites, and descendants of the god.[20] The planetary symbol for Jupiter, ♃, descends from a Greek zeta with a horizontal stroke, ⟨Ƶ⟩, as an abbreviation for Zeus.[21][22]

Jove, the archaic name of Jupiter, came into use as a poetic name for the planet around the 14th century.[23] The Romans named the fifth day of the week diēs Iovis ("Jove's Day") after the planet Jupiter.[24] In Germanic mythology, Jupiter is equated to Thor, whence the English name Thursday for the Roman dies Jovis.[25]

The original Greek deity Zeus supplies the root zeno-, used to form some Jupiter-related words, such as zenographic.[lower-alpha 4] Jovian is the adjectival form of Jupiter. The older adjectival form jovial, employed by astrologers in the Middle Ages, has come to mean "happy" or "merry", moods ascribed to Jupiter's astrological influence.[26]

Formation and migration

Jupiter is believed to be the oldest planet in the Solar System.[27] Current models of Solar System formation suggest that Jupiter formed at or beyond the snow line: a distance from the early Sun where the temperature is sufficiently cold for volatiles such as water to condense into solids.[28] The planet began as a large solid core, then accumulated its gaseous atmosphere. As a consequence, the core must have formed before the solar nebula was fully dispersed after 10 million years. Over about a million years, Jupiter's atmosphere gradually expanded until it had 20 times the mass of the Earth. The orbiting mass created a gap in the solar nebula, and thereafter the planet slowly increased to 50 Earth masses over 3–4 million years.[27]

According to the "grand tack hypothesis", Jupiter began to form at a distance of roughly 3.5 astronomical unit|AU (520 million km; 330 million mi) from the Sun. As the young planet accreted mass, interaction with the gas disk orbiting the Sun and orbital resonances with Saturn caused it to migrate inward.[28][29] This upset the orbits of several super-Earths orbiting closer to the Sun, causing them to collide destructively. Saturn would later have begun to migrate inwards too, much faster than Jupiter, until the two planets became captured in a 3:2 mean motion resonance at approximately 1.5 AU (220 million km; 140 million mi) from the Sun. This changed the direction of migration, causing them to migrate away from the Sun and out of the inner system to their current locations.[30] All of this happened over a period of 3-6 million years, with the final migration of Jupiter occurring over several hundred thousand years.[29][31] Jupiter's departure from the inner solar system eventually allowed the inner planets—including Earth—to form from the rubble.[32]

There are several problems with the grand tack hypothesis. The resulting formation timescales of terrestrial planets appear to be inconsistent with the measured elemental composition.[33] It is likely that Jupiter would have settled into an orbit much closer to the Sun if it had migrated through the solar nebula.[34] Some competing models of Solar System formation predict the formation of Jupiter with orbital properties that are close to those of the present day planet.[35] Other models predict Jupiter forming at distances much farther out, such as 18 AU (2.7 billion km; 1.7 billion mi).[36][37]

Based on Jupiter's composition, researchers have made the case for an initial formation outside the molecular nitrogen (N2) snowline, which is estimated at 20–30 AU (3.0–4.5 billion km; 1.9–2.8 billion mi) from the Sun,[38][39] and possibly even outside the argon snowline, which may be as far as 40 AU (6.0 billion km; 3.7 billion mi). Having formed at one of these extreme distances, Jupiter would then have migrated inwards to its current location. This inward migration would have occurred over a roughly 700,000-year time period,[36][37] during an epoch approximately 2–3 million years after the planet began to form. In this model, Saturn, Uranus and Neptune would have formed even further out than Jupiter, and Saturn would also have migrated inwards.

Physical characteristics

Jupiter is a gas giant, being primarily composed of gas and liquid rather than solid matter. It is the largest planet in the Solar System, with a diameter of 142,984 km (88,846 mi) at its equator.[40] The average density of Jupiter, 1.326 g/cm3, is about the same as simple syrup (syrup USP),[41] and is lower than those of the four terrestrial planets.[42][43]


Jupiter's upper atmosphere is about 90% hydrogen and 10% helium by volume. Since helium atoms are more massive than hydrogen molecules, Jupiter's atmosphere is approximately 24% helium by mass.[44] The atmosphere contains trace amounts of methane, water vapour, ammonia, and silicon-based compounds. There are also fractional amounts of carbon, ethane, hydrogen sulfide, neon, oxygen, phosphine, and sulfur. The outermost layer of the atmosphere contains crystals of frozen ammonia. Through infrared and ultraviolet measurements, trace amounts of benzene and other hydrocarbons have also been found.[45] The interior of Jupiter contains denser materials—by mass it is roughly 71% hydrogen, 24% helium, and 5% other elements.[46][47]

The atmospheric proportions of hydrogen and helium are close to the theoretical composition of the primordial solar nebula. Neon in the upper atmosphere only consists of 20 parts per million by mass, which is about a tenth as abundant as in the Sun.[48] Helium is also reduced to about 80% of the Sun's helium composition. This depletion is a result of precipitation of these elements as helium-rich droplets, a process that happens deep in the interior of the planet.[49][50]

Based on spectroscopy, Saturn is thought to be similar in composition to Jupiter, but the other giant planets Uranus and Neptune have relatively less hydrogen and helium and relatively more of the next most common elements, including oxygen, carbon, nitrogen, and sulfur.[51] These planets are known as ice giants, because the majority of their volatile compounds are in solid form.

Size and mass

Main page: Astronomy:Jupiter mass
Jupiter's diameter is one order of magnitude smaller (×0.10045) than that of the Sun, and one order of magnitude larger (×10.9733) than that of Earth. The Great Red Spot is roughly the same size as Earth.

Jupiter's mass is 2.5 times that of all the other planets in the Solar System combined—so massive that its barycentre with the Sun lies above the Sun's surface at 1.068 solar radii from the Sun's centre.[52] Jupiter is much larger than Earth and considerably less dense: it has 1,321 times the volume of the Earth, but only 318 times the mass.[5][53]:6 Jupiter's radius is about one tenth the radius of the Sun,[54] and its mass is one thousandth the mass of the Sun, as the densities of the two bodies are similar.[55] A "Jupiter mass" (MJ or MJup) is often used as a unit to describe masses of other objects, particularly extrasolar planets and brown dwarfs. For example, the extrasolar planet HD 209458 b has a mass of 0.69 MJ, while Kappa Andromedae b has a mass of 12.8 MJ.[56]

Theoretical models indicate that if Jupiter had over 40% more mass, the interior would be so compressed that its volume would decrease despite the increasing amount of matter. For smaller changes in its mass, the radius would not change appreciably.[57] As a result, Jupiter is thought to have about as large a diameter as a planet of its composition and evolutionary history can achieve.[58] The process of further shrinkage with increasing mass would continue until appreciable stellar ignition was achieved.[59] Although Jupiter would need to be about 75 times more massive to fuse hydrogen and become a star,[60] the smallest red dwarf may be only slightly larger in radius than Saturn.[61]

Jupiter radiates more heat than it receives through solar radiation, due to the Kelvin–Helmholtz mechanism within its contracting interior.[62]:30[63] This process causes Jupiter to shrink by about 1 mm (0.039 in)/yr.[64][65] When it formed, Jupiter was hotter and was about twice its current diameter.[66]

Internal structure

Diagram of Jupiter, its interior, surface features, rings, and inner moons.

Before the early 21st century, most scientists proposed one of two scenarios for the formation of Jupiter. If the planet accreted first as a solid body, it would consist of a dense core, a surrounding layer of liquid metallic hydrogen (with some helium) extending outward to about 80% of the radius of the planet,[67] and an outer atmosphere consisting primarily of molecular hydrogen.[65] Alternatively, if the planet collapsed directly from the gaseous protoplanetary disk, it was expected to completely lack a core, consisting instead of denser and denser fluid (predominantly molecular and metallic hydrogen) all the way to the centre. Data from the Juno mission showed that Jupiter has a very diffuse core that mixes into its mantle.[17][68][69] This could have been caused by an impact from a planet of about ten Earth masses a few million years after Jupiter's formation, which would have disrupted an originally solid Jovian core.[70][71] It is estimated that the core takes up 30–50% of the planet's radius, and contains heavy elements with a combined mass 7–25 times the Earth.[72]

Outside the layer of metallic hydrogen lies a transparent interior atmosphere of hydrogen. At this depth, the pressure and temperature are above molecular hydrogen's critical pressure of 1.3 MPa and critical temperature of 33 K (−240.2 °C; −400.3 °F).[73] In this state, there are no distinct liquid and gas phases—hydrogen is said to be in a supercritical fluid state. The hydrogen and helium gas extending downward from the cloud layer gradually transitions to a liquid in deeper layers, possibly resembling something akin to an ocean of liquid hydrogen and other supercritical fluids.[62]:22[74][75][76] Physically, the gas gradually becomes hotter and denser as depth increases.[77][78]

Rain-like droplets of helium and neon precipitate downward through the lower atmosphere, depleting the abundance of these elements in the upper atmosphere.[49][79] Calculations suggest that helium drops separate from metallic hydrogen at a radius of 60,000 km (37,000 mi) (11,000 km (6,800 mi) below the cloudtops) and merge again at 50,000 km (31,000 mi) (22,000 km (14,000 mi) beneath the clouds).[80] Rainfalls of diamonds have been suggested to occur, as well as on Saturn[81] and the ice giants Uranus and Neptune.[82]

The temperature and pressure inside Jupiter increase steadily inward because the heat of planetary formation can only escape by convection.[83] At a surface depth where the atmospheric pressure level is 1 bar (0.10 MPa), the temperature is around 165 K (−108 °C; −163 °F). The region of supercritical hydrogen changes gradually from a molecular fluid to a metallic fluid spans pressure ranges of 50–400 GPa with temperatures of 5,000–8,400 K (4,730–8,130 °C; 8,540–14,660 °F), respectively. The temperature of Jupiter's diluted core is estimated to be 20,000 K (19,700 °C; 35,500 °F) with a pressure of around 4,000 GPa.[84]


Main page: Astronomy:Atmosphere of Jupiter

The atmosphere of Jupiter extends to a depth of 3,000 km (2,000 mi) below the cloud layers.[84]

Cloud layers

View of Jupiter's south pole
Enhanced colour view of Jupiter's southern storms

Jupiter is perpetually covered with clouds of ammonia crystals, which may contain ammonium hydrosulfide as well.[85] The clouds are located in the tropopause layer of the atmosphere, forming bands at different latitudes, known as tropical regions. These are subdivided into lighter-hued zones and darker belts. The interactions of these conflicting circulation patterns cause storms and turbulence. Wind speeds of 100 metres per second (360 km/h; 220 mph) are common in zonal jet streams.[86] The zones have been observed to vary in width, colour and intensity from year to year, but they have remained stable enough for scientists to name them.[53]:6

The cloud layer is about 50 km (31 mi) deep, and consists of at least two decks of ammonia clouds: a thin clearer region on top with a thick lower deck. There may be a thin layer of water clouds underlying the ammonia clouds, as suggested by flashes of lightning detected in the atmosphere of Jupiter.[87] These electrical discharges can be up to a thousand times as powerful as lightning on Earth.[88] The water clouds are assumed to generate thunderstorms in the same way as terrestrial thunderstorms, driven by the heat rising from the interior.[89] The Juno mission revealed the presence of "shallow lightning" which originates from ammonia-water clouds relatively high in the atmosphere.[90] These discharges carry "mushballs" of water-ammonia slushes covered in ice, which fall deep into the atmosphere.[91] Upper-atmospheric lightning has been observed in Jupiter's upper atmosphere, bright flashes of light that last around 1.4 milliseconds. These are known as "elves" or "sprites" and appear blue or pink due to the hydrogen.[92][93]

Time-lapse sequence from the approach of Voyager 1, showing the motion of atmospheric bands and circulation of the Great Red Spot. Recorded over 32 days with one photograph taken every 10 hours (once per Jovian day). See full size video.

The orange and brown colours in the clouds of Jupiter are caused by upwelling compounds that change colour when they are exposed to ultraviolet light from the Sun. The exact makeup remains uncertain, but the substances are thought to be made up of phosphorus, sulfur or possibly hydrocarbons.[62]:39[94] These colourful compounds, known as chromophores, mix with the warmer clouds of the lower deck. The light-coloured zones are formed when rising convection cells form crystallising ammonia that hides the chromophores from view.[95]

Jupiter's low axial tilt means that the poles always receive less solar radiation than the planet's equatorial region. Convection within the interior of the planet transports energy to the poles, balancing out the temperatures at the cloud layer.[53]:54

Great Red Spot and other vortices

The best known feature of Jupiter is the Great Red Spot,[96] a persistent anticyclonic storm located 22° south of the equator. It is known to have existed since at least 1831,[97] and possibly since 1665.[98][99] Images by the Hubble Space Telescope have shown as many as two "red spots" adjacent to the Great Red Spot.[100][101] The storm is visible through Earth-based telescopes with an aperture of 12 cm or larger.[102] The oval object rotates anticlockwise, with a period of about six days.[103] The maximum altitude of this storm is about 8 km (5 mi) above the surrounding cloudtops.[104] The Spot's composition and the source of its red colour remain uncertain, although photodissociated ammonia reacting with acetylene is a likely explanation.[105]

Close up of the Great Red Spot imaged by the Juno spacecraft in April 2018

The Great Red Spot is larger than the Earth.[106] Mathematical models suggest that the storm is stable and will be a permanent feature of the planet.[107] However, it has significantly decreased in size since its discovery. Initial observations in the late 1800s showed it to be approximately 41,000 km (25,500 mi) across. By the time of the Voyager flybys in 1979, the storm had a length of 23,300 km (14,500 mi) and a width of approximately 13,000 km (8,000 mi).[108] Hubble observations in 1995 showed it had decreased in size to 20,950 km (13,020 mi), and observations in 2009 showed the size to be 17,910 km (11,130 mi). (As of 2015), the storm was measured at approximately 16,500 by 10,940 km (10,250 by 6,800 mi),[108] and was decreasing in length by about 930 km (580 mi) per year.[106][109] In October 2021, a Juno flyby mission measured the depth of the Great Red Spot, putting it at around 300–500 kilometres (190–310 mi).[110]

Juno missions show that there are several polar cyclone groups at Jupiter's poles. The northern group contains nine cyclones, with a large one in the centre and eight others around it, while its southern counterpart also consists of a centre vortex but is surrounded by five large storms and a single smaller one.[111][112] These polar structures are caused by the turbulence in Jupiter's atmosphere and can be compared with the hexagon at Saturn's north pole.

The Great Red Spot is decreasing in size (May 15, 2014)[113]

In 2000, an atmospheric feature formed in the southern hemisphere that is similar in appearance to the Great Red Spot, but smaller. This was created when smaller, white oval-shaped storms merged to form a single feature—these three smaller white ovals were formed in 1939–1940. The merged feature was named Oval BA. It has since increased in intensity and changed from white to red, giving it the nickname "Little Red Spot".[114][115]

In April 2017, a "Great Cold Spot" was discovered in Jupiter's thermosphere at its north pole. This feature is 24,000 km (15,000 mi) across, 12,000 km (7,500 mi) wide, and 200 °C (360 °F) cooler than surrounding material. While this spot changes form and intensity over the short term, it has maintained its general position in the atmosphere for more than 15 years. It may be a giant vortex similar to the Great Red Spot, and appears to be quasi-stable like the vortices in Earth's thermosphere. This feature may be formed by interactions between charged particles generated from Io and the strong magnetic field of Jupiter, resulting in a redistribution of heat flow.[116]


Main page: Astronomy:Magnetosphere of Jupiter
Aurorae on the north and south poles
Aurorae on the north pole
Infrared view of southern lights
(Jovian IR Mapper)

Jupiter's magnetic field is the strongest of any planet in the Solar System,[95] with a dipole moment of 4.170 gauss (0.4170 mT) that is tilted at an angle of 10.31° to the pole of rotation. The surface magnetic field strength varies from 2 gauss (0.20 mT) up to 20 gauss (2.0 mT).[117] This field is thought to be generated by eddy currents—swirling movements of conducting materials—within the liquid metallic hydrogen core. At about 75 Jupiter radii from the planet, the interaction of the magnetosphere with the solar wind generates a bow shock. Surrounding Jupiter's magnetosphere is a magnetopause, located at the inner edge of a magnetosheath—a region between it and the bow shock. The solar wind interacts with these regions, elongating the magnetosphere on Jupiter's lee side and extending it outward until it nearly reaches the orbit of Saturn. The four largest moons of Jupiter all orbit within the magnetosphere, which protects them from the solar wind.[62]:69

The volcanoes on the moon Io emit large amounts of sulfur dioxide, forming a gas torus along the moon's orbit. The gas is ionized in Jupiter's magnetosphere, producing sulfur and oxygen ions. They, together with hydrogen ions originating from the atmosphere of Jupiter, form a plasma sheet in Jupiter's equatorial plane. The plasma in the sheet co-rotates with the planet, causing deformation of the dipole magnetic field into that of a magnetodisk. Electrons within the plasma sheet generate a strong radio signature, with short, superimposed bursts in the range of 0.6–30 MHz that are detectable from Earth with consumer-grade shortwave radio receivers.[118][119] As Io moves through this torus, the interaction generates Alfvén waves that carry ionized matter into the polar regions of Jupiter. As a result, radio waves are generated through a cyclotron maser mechanism, and the energy is transmitted out along a cone-shaped surface. When Earth intersects this cone, the radio emissions from Jupiter can exceed the radio output of the Sun.[120]

Orbit and rotation

Jupiter (red) completes one orbit of the Sun (centre) for every 11.86 orbits by Earth (blue)
A rotation time-lapse of Jupiter over 3 hours

Jupiter is the only planet whose barycentre with the Sun lies outside the volume of the Sun, though by only 7% of the Sun's radius.[121][122][123] The average distance between Jupiter and the Sun is 778 million km (5.2 AU) and it completes an orbit every 11.86 years. This is approximately two-fifths the orbital period of Saturn, forming a near orbital resonance.[124] The orbital plane of Jupiter is inclined 1.30° compared to Earth. Because the eccentricity of its orbit is 0.049, Jupiter is slightly over 75 million km nearer the Sun at perihelion than aphelion.[5]

The axial tilt of Jupiter is relatively small, only 3.13°, so its seasons are insignificant compared to those of Earth and Mars.[125]

Jupiter's rotation is the fastest of all the Solar System's planets, completing a rotation on its axis in slightly less than ten hours; this creates an equatorial bulge easily seen through an amateur telescope. Because Jupiter is not a solid body, its upper atmosphere undergoes differential rotation. The rotation of Jupiter's polar atmosphere is about 5 minutes longer than that of the equatorial atmosphere.[126] The planet is an oblate spheroid, meaning that the diameter across its equator is longer than the diameter measured between its poles.[78] On Jupiter, the equatorial diameter is 9,276 km (5,764 mi) longer than the polar diameter.[5]

Three systems are used as frames of reference for tracking the planetary rotation, particularly when graphing the motion of atmospheric features. System I applies to latitudes from 7° N to 7° S; its period is the planet's shortest, at 9h 50m 30.0s. System II applies at latitudes north and south of these; its period is 9h 55m 40.6s.[127] System III was defined by radio astronomers and corresponds to the rotation of the planet's magnetosphere; its period is Jupiter's official rotation.[128]


Conjunction of Jupiter and the Moon
The retrograde motion of an outer planet is caused by its relative location with respect to Earth

Jupiter is usually the fourth brightest object in the sky (after the Sun, the Moon, and Venus),[95] although at opposition Mars can appear brighter than Jupiter. Depending on Jupiter's position with respect to the Earth, it can vary in visual magnitude from as bright as −2.94 at opposition down to −1.66 during conjunction with the Sun.[10] The mean apparent magnitude is −2.20 with a standard deviation of 0.33.[10] The angular diameter of Jupiter likewise varies from 50.1 to 30.5 arc seconds.[5] Favourable oppositions occur when Jupiter is passing through the perihelion of its orbit, bringing it closer to Earth.[129] Near opposition, Jupiter will appear to go into retrograde motion for a period of about 121 days, moving backward through an angle of 9.9° before returning to prograde movement.[130]

Because the orbit of Jupiter is outside that of Earth, the phase angle of Jupiter as viewed from Earth is always less than 11.5°; thus, Jupiter always appears nearly fully illuminated when viewed through Earth-based telescopes. It was only during spacecraft missions to Jupiter that crescent views of the planet were obtained.[131] A small telescope will usually show Jupiter's four Galilean moons and the prominent cloud belts across Jupiter's atmosphere. A larger telescope with an aperture of 4–6 in (10.16–15.24 cm) will show Jupiter's Great Red Spot when it faces Earth.[132][133]

History of research and exploration

Pre-telescopic research

Model in the Almagest of the longitudinal motion of Jupiter (☉) relative to Earth (🜨)

Observation of Jupiter dates back to at least the Babylonian astronomers of the 7th or 8th century BC.[134] The ancient Chinese knew Jupiter as the "Suì Star" (Template:Transliteration 歲星) and established their cycle of 12 earthly branches based on the approximate number of years it takes Jupiter to rotate around the Sun; the Chinese language still uses its name (simplified as ) when referring to years of age. By the 4th century BC, these observations had developed into the Chinese zodiac,[135] and each year became associated with a Tai Sui star and god controlling the region of the heavens opposite Jupiter's position in the night sky. These beliefs survive in some Taoist religious practices and in the East Asian zodiac's twelve animals. The Chinese historian Xi Zezong has claimed that Gan De, an ancient Chinese astronomer,[136] reported a small star "in alliance" with the planet,[137] which may indicate a sighting of one of Jupiter's moons with the unaided eye. If true, this would predate Galileo's discovery by nearly two millennia.[138][139]

A 2016 paper reports that trapezoidal rule was used by Babylonians before 50 BCE for integrating the velocity of Jupiter along the ecliptic.[140] In his 2nd century work the Almagest, the Hellenistic astronomer Claudius Ptolemaeus constructed a geocentric planetary model based on deferents and epicycles to explain Jupiter's motion relative to Earth, giving its orbital period around Earth as 4332.38 days, or 11.86 years.[141]

Ground-based telescope research

Galileo Galilei, discoverer of the four largest moons of Jupiter, now known as Galilean moons

In 1610, Italian polymath Galileo Galilei discovered the four largest moons of Jupiter (now known as the Galilean moons) using a telescope. This is thought to be the first telescopic observation of moons other than Earth's. Just one day after Galileo, Simon Marius independently discovered moons around Jupiter, though he did not publish his discovery in a book until 1614.[142] It was Marius's names for the major moons, however, that stuck: Io, Europa, Ganymede, and Callisto. The discovery was a major point in favour of Copernicus' heliocentric theory of the motions of the planets; Galileo's outspoken support of the Copernican theory led to him being tried and condemned by the Inquisition.[143]

During the 1660s, Giovanni Cassini used a new telescope to discover spots and colourful bands in Jupiter's atmosphere, observe that the planet appeared oblate, and estimate its rotation period.[144] In 1692, Cassini noticed that the atmosphere undergoes differential rotation.[145]

The Great Red Spot may have been observed as early as 1664 by Robert Hooke and in 1665 by Cassini, although this is disputed. The pharmacist Heinrich Schwabe produced the earliest known drawing to show details of the Great Red Spot in 1831.[146] The Red Spot was reportedly lost from sight on several occasions between 1665 and 1708 before becoming quite conspicuous in 1878.[147] It was recorded as fading again in 1883 and at the start of the 20th century.[148]

Both Giovanni Borelli and Cassini made careful tables of the motions of Jupiter's moons, which allowed predictions of when the moons would pass before or behind the planet. By the 1670s, Cassini observed that when Jupiter was on the opposite side of the Sun from Earth, these events would occur about 17 minutes later than expected. Ole Rømer deduced that light does not travel instantaneously (a conclusion that Cassini had earlier rejected),[47] and this timing discrepancy was used to estimate the speed of light.[149][150]

In 1892, E. E. Barnard observed a fifth satellite of Jupiter with the 36-inch (910 mm) refractor at Lick Observatory in California. This moon was later named Amalthea.[151] It was the last planetary moon to be discovered directly by a visual observer through a telescope.[152] An additional eight satellites were discovered before the flyby of the Voyager 1 probe in 1979.[lower-alpha 5]

Infrared image of Jupiter taken by ESO's Very Large Telescope

In 1932, Rupert Wildt identified absorption bands of ammonia and methane in the spectra of Jupiter.[153]

Three long-lived anticyclonic features called "white ovals" were observed in 1938. For several decades they remained as separate features in the atmosphere, sometimes approaching each other but never merging. Finally, two of the ovals merged in 1998, then absorbed the third in 2000, becoming Oval BA.[154]

Radiotelescope research

In 1955, Bernard Burke and Kenneth Franklin discovered that Jupiter emits bursts of radio waves at a frequency of 22.2 MHz.[62]:36 The period of these bursts matched the rotation of the planet, and they used this information to determine a more precise value for Jupiter's rotation rate. Radio bursts from Jupiter were found to come in two forms: long bursts (or L-bursts) lasting up to several seconds, and short bursts (or S-bursts) lasting less than a hundredth of a second.[155]

Scientists have discovered three forms of radio signals transmitted from Jupiter:

  • Decametric radio bursts (with a wavelength of tens of metres) vary with the rotation of Jupiter, and are influenced by the interaction of Io with Jupiter's magnetic field.[156]
  • Decimetric radio emission (with wavelengths measured in centimetres) was first observed by Frank Drake and Hein Hvatum in 1959.[62]:36 The origin of this signal is a torus-shaped belt around Jupiter's equator, which generates cyclotron radiation from electrons that are accelerated in Jupiter's magnetic field.[157]
  • Thermal radiation is produced by heat in the atmosphere of Jupiter.[62]:43


Main page: Astronomy:Exploration of Jupiter

Jupiter has been visited by automated spacecraft since 1973, when the space probe Pioneer 10 passed close enough to Jupiter to send back revelations about its properties and phenomena.[158][159] Missions to Jupiter are accomplished at a cost in energy, which is described by the net change in velocity of the spacecraft, or delta-v. Entering a Hohmann transfer orbit from Earth to Jupiter from low Earth orbit requires a delta-v of 6.3 km/s,[160] which is comparable to the 9.7 km/s delta-v needed to reach low Earth orbit.[161] Gravity assists through planetary flybys can be used to reduce the energy required to reach Jupiter.[162]

Flyby missions

Spacecraft Closest
Pioneer 10 December 3, 1973 130,000 km
Pioneer 11 December 4, 1974 34,000 km
Voyager 1 March 5, 1979 349,000 km
Voyager 2 July 9, 1979 570,000 km
Ulysses February 8, 1992[163] 408,894 km
February 4, 2004[163] 120,000,000 km
Cassini December 30, 2000 10,000,000 km
New Horizons February 28, 2007 2,304,535 km

Beginning in 1973, several spacecraft have performed planetary flyby manoeuvres that brought them within observation range of Jupiter. The Pioneer missions obtained the first close-up images of Jupiter's atmosphere and several of its moons. They discovered that the radiation fields near the planet were much stronger than expected, but both spacecraft managed to survive in that environment. The trajectories of these spacecraft were used to refine the mass estimates of the Jovian system. Radio occultations by the planet resulted in better measurements of Jupiter's diameter and the amount of polar flattening.[53]:47[164]

Six years later, the Voyager missions vastly improved the understanding of the Galilean moons and discovered Jupiter's rings. They also confirmed that the Great Red Spot was anticyclonic. Comparison of images showed that the Spot had changed hue since the Pioneer missions, turning from orange to dark brown. A torus of ionized atoms was discovered along Io's orbital path, which were found to come from erupting volcanoes on the moon's surface. As the spacecraft passed behind the planet, it observed flashes of lightning in the night side atmosphere.[53]:87[165]

The next mission to encounter Jupiter was the Ulysses solar probe. In February 1992, it performed a flyby manoeuvre to attain a polar orbit around the Sun. During this pass, the spacecraft studied Jupiter's magnetosphere, although it had no cameras to photograph the planet. The spacecraft passed by Jupiter six years later, this time at a much greater distance.[163]

In 2000, the Cassini probe flew by Jupiter on its way to Saturn, and provided higher-resolution images.[166]

The New Horizons probe flew by Jupiter in 2007 for a gravity assist en route to Pluto.[167] The probe's cameras measured plasma output from volcanoes on Io and studied all four Galilean moons in detail.[168]

Galileo mission

Main page: Engineering:Galileo (spacecraft)
Jupiter as seen by the space probe Cassini

The first spacecraft to orbit Jupiter was the Galileo mission, which reached the planet on December 7, 1995.[58] It remained in orbit for over seven years, conducting multiple flybys of all the Galilean moons and Amalthea. The spacecraft also witnessed the impact of Comet Shoemaker–Levy 9 when it collided with Jupiter in 1994. Some of the goals for the mission were thwarted due to a malfunction in Galileo's high-gain antenna.[169]

A 340-kilogram titanium atmospheric probe was released from the spacecraft in July 1995, entering Jupiter's atmosphere on December 7.[58] It parachuted through 150 km (93 mi) of the atmosphere at a speed of about 2,575 km/h (1600 mph)[58] and collected data for 57.6 minutes until the spacecraft was destroyed.[170] The Galileo orbiter itself experienced a more rapid version of the same fate when it was deliberately steered into the planet on September 21, 2003. NASA destroyed the spacecraft in order to avoid any possibility of the spacecraft crashing into and possibly contaminating the moon Europa, which may harbour life.[169]

Data from this mission revealed that hydrogen composes up to 90% of Jupiter's atmosphere.[58] The recorded temperature was more than 300 °C (570 °F) and the windspeed measured more than 644 km/h (>400 mph) before the probes vaporized.[58]

Juno mission

Main page: Engineering:Juno (spacecraft)


thumb|Jupiter, as seen by the Juno spacecraft
(February 12, 2019)

NASA's Juno mission arrived at Jupiter on July 4, 2016 with the goal of studying the planet in detail from a polar orbit. The spacecraft was originally intended to orbit Jupiter thirty-seven times over a period of twenty months.[171][17][172] During the mission, the spacecraft will be exposed to high levels of radiation from Jupiter's magnetosphere, which may cause future failure of certain instruments.[173] On August 27, 2016, the spacecraft completed its first fly-by of Jupiter and sent back the first ever images of Jupiter's north pole.[174]

Juno completed 12 orbits before the end of its budgeted mission plan, ending July 2018.[175] In June of that year, NASA extended the mission operations plan to July 2021, and in January of that year the mission was extended to September 2025 with four lunar flybys: one of Ganymede, one of Europa, and two of Io.[176][177] When Juno reaches the end of the mission, it will perform a controlled deorbit and disintegrate into Jupiter's atmosphere. This will avoid the risk of collision with Jupiter's moons.[178][179]

Cancelled missions and future plans

There is great interest in missions to study Jupiter's larger icy moons, which may have subsurface liquid oceans. Funding difficulties have delayed progress, causing NASA's JIMO (Jupiter Icy Moons Orbiter) to be cancelled in 2005.[180] A subsequent proposal was developed for a joint NASA/ESA mission called EJSM/Laplace, with a provisional launch date around 2020. EJSM/Laplace would have consisted of the NASA-led Jupiter Europa Orbiter and the ESA-led Jupiter Ganymede Orbiter.[181] However, the ESA formally ended the partnership in April 2011, citing budget issues at NASA and the consequences on the mission timetable. Instead, ESA planned to go ahead with a European-only mission to compete in its L1 Cosmic Vision selection.[182] These plans have been realized as the European Space Agency's Jupiter Icy Moon Explorer (JUICE), due to launch in 2023,[183] followed by NASA's Europa Clipper mission, scheduled for launch in 2024.[184]

Other proposed missions include the Chinese National Space Administration's Gan De mission which aims to launch an orbiter to the Jovian system and possibly Callisto around 2035,[185] and CNSA's Interstellar Express[186] and NASA's Interstellar,[187] which would both use Jupiter's gravity to help them reach the edges of the heliosphere.


Main page: Astronomy:Moons of Jupiter

Jupiter has 80 known natural satellites.[4][188] Of these, 60 are less than 10 km in diameter.[189] The four largest moons are Io, Europa, Ganymede, and Callisto, collectively known as the "Galilean moons", and are visible from Earth with binoculars on a clear night.[190]

Galilean moons

Main page: Astronomy:Galilean moons

The moons discovered by Galileo—Io, Europa, Ganymede, and Callisto—are among the largest in the Solar System. The orbits of Io, Europa, and Ganymede form a pattern known as a Laplace resonance; for every four orbits that Io makes around Jupiter, Europa makes exactly two orbits and Ganymede makes exactly one. This resonance causes the gravitational effects of the three large moons to distort their orbits into elliptical shapes, because each moon receives an extra tug from its neighbours at the same point in every orbit it makes. The tidal force from Jupiter, on the other hand, works to circularise their orbits.[191]

The eccentricity of their orbits causes regular flexing of the three moons' shapes, with Jupiter's gravity stretching them out as they approach it and allowing them to spring back to more spherical shapes as they swing away. The friction created by this tidal flexing generates heat in the interior of the moons.[192] This is seen most dramatically in the volcanic activity of Io (which is subject to the strongest tidal forces),[192] and to a lesser degree in the geological youth of Europa's surface, which indicates recent resurfacing of the moon's exterior.[193]

The Galilean moons, as a percent of the Earth's Moon
Name IPA Diameter Mass Orbital radius Orbital period
km % kg % km % days %
Io /ˈaɪ.oʊ/ 3,643 105 8.9×1022 120 421,700 110 1.77 7
Europa /jʊˈroʊpə/ 3,122 90 4.8×1022 65 671,034 175 3.55 13
Ganymede /ˈɡænimiːd/ 5,262 150 14.8×1022 200 1,070,412 280 7.15 26
Callisto /kəˈlɪstoʊ/ 4,821 140 10.8×1022 150 1,882,709 490 16.69 61
The Galilean moons. From left to right, in order of increasing distance from Jupiter: Io, Europa, Ganymede, Callisto.
The Galilean moons Io, Europa, Ganymede, and Callisto (in order of increasing distance from Jupiter)


Jupiter's moons were traditionally classified into four groups of four, based on their similar orbital elements.[194] This picture has been complicated by the discovery of numerous small outer moons since 1999. Jupiter's moons are currently divided into several different groups, although there are several moons which are not part of any group.[195]

The eight innermost regular moons, which have nearly circular orbits near the plane of Jupiter's equator, are thought to have formed alongside Jupiter, whilst the remainder are irregular moons and are thought to be captured asteroids or fragments of captured asteroids. The irregular moons within each group may have a common origin, perhaps as a larger moon or captured body that broke up.[196][197]

Regular moons
Inner group The inner group of four small moons all have diameters of less than 200 km, orbit at radii less than 200,000 km, and have orbital inclinations of less than half a degree.
Galilean moons[198] These four moons, discovered by Galileo Galilei and by Simon Marius in parallel, orbit between 400,000 and 2,000,000 km, and are some of the largest moons in the Solar System.
Irregular moons
Himalia group
Ananke group This retrograde orbit group has rather indistinct borders, averaging 21,276,000 km from Jupiter with an average inclination of 149 degrees.[197]
Carme group A fairly distinct retrograde group that averages 23,404,000 km from Jupiter with an average inclination of 165 degrees.[197]
Pasiphae group A dispersed and only vaguely distinct retrograde group that covers all the outermost moons.[199]

Planetary rings

Main page: Astronomy:Rings of Jupiter

Jupiter has a faint planetary ring system composed of three main segments: an inner torus of particles known as the halo, a relatively bright main ring, and an outer gossamer ring.[200] These rings appear to be made of dust, while Saturn's rings are made of ice.[62]:65 The main ring is most likely made out of material ejected from the satellites Adrastea and Metis, which is drawn into Jupiter because of the planet's strong gravitational influence. New material is added by additional impacts.[201] In a similar way, the moons Thebe and Amalthea are believed to produce the two distinct components of the dusty gossamer ring.[201] There is evidence of a fourth ring that may consist of collisional debris from Amalthea that is strung along the same moon's orbit.[202]

Interaction with the Solar System

Diagram showing the Trojan asteroids in Jupiter's orbit, as well as the main asteroid belt

As the most massive of the eight planets, the gravitational influence of Jupiter has helped shape the Solar System. With the exception of Mercury, the orbits of the system's planets lie closer to Jupiter's orbital plane than the Sun's equatorial plane. The Kirkwood gaps in the asteroid belt are mostly caused by Jupiter,[203] and the planet may have been responsible for the Late Heavy Bombardment in the inner Solar System's history.[204]

In addition to its moons, Jupiter's gravitational field controls numerous asteroids that have settled around the Lagrangian points that precede and follow the planet in its orbit around the Sun. These are known as the Trojan asteroids, and are divided into Greek and Trojan "camps" to honour the Iliad. The first of these, 588 Achilles, was discovered by Max Wolf in 1906; since then more than two thousand have been discovered.[205] The largest is 624 Hektor.[206]

The Jupiter family is defined as comets that have a semi-major axis smaller than Jupiter's; most short-period comets belong to this group. Members of the Jupiter family are thought to form in the Kuiper belt outside the orbit of Neptune. During close encounters with Jupiter, they are perturbed into orbits with a smaller period, which then becomes circularised by regular gravitational interaction with the Sun and Jupiter.[207]


Main page: Astronomy:Impact events on Jupiter
Hubble image taken on July 23, 2009, showing a blemish about 8,000 km (5,000 mi) long left by the 2009 Jupiter impact event.[208]

Jupiter has been called the Solar System's vacuum cleaner[209] because of its immense gravity well and location near the inner Solar System. There are more impacts on Jupiter, such as comets, than on any other planet in the Solar System.[210] For example, Jupiter experiences about 200 times more asteroid and comet impacts than Earth.[58] In the past, scientists believed that Jupiter partially shielded the inner system from cometary bombardment.[58] However, computer simulations in 2008 suggest that Jupiter does not cause a net decrease in the number of comets that pass through the inner Solar System, as its gravity perturbs their orbits inward roughly as often as it accretes or ejects them.[211] This topic remains controversial among scientists, as some think it draws comets towards Earth from the Kuiper belt, while others believes that Jupiter protects Earth from the Oort cloud.[212]

In July 1994, the Comet Shoemaker–Levy 9 comet collided with Jupiter.[213][214] The impacts were closely observed by observatories around the world, including the Hubble Space Telescope and Galileo spacecraft.[215][216][217][218] The event was widely covered by the media.[219]

Surveys of early astronomical records and drawings produced eight examples of potential impact observations between 1664 and 1839. However, a 1997 review determined that these observations had little or no possibility of being the results of impacts. Further investigation by this team revealed a dark surface feature discovered by astronomer Giovanni Cassini in 1690 may have been an impact scar.[220]

In culture

Jupiter, woodcut from a 1550 edition of Guido Bonatti's Liber Astronomiae

The planet Jupiter has been known since ancient times. It is visible to the naked eye in the night sky and can occasionally be seen in the daytime when the Sun is low.[221] To the Babylonians, this planet represented their god Marduk,[222] chief of their pantheon from the Hammurabi period.[223] They used Jupiter's roughly 12-year orbit along the ecliptic to define the constellations of their zodiac.[222]

The mythical Greek name for this planet is Zeus (Ζεύς), also referred to as Dias (Δίας), the planetary name of which is retained in modern Greek.[224] The ancient Greeks knew the planet as Phaethon (Ancient Greek:), meaning "shining one" or "blazing star".[225][226] The Greek myths of Zeus from the Homeric period showed particular similarities to certain Near-Eastern gods, including the Semitic El and Baal, the Sumerian Enlil, and the Babylonian god Marduk.[227] The association between the planet and the Greek deity Zeus was drawn from Near Eastern influences and was fully established by the fourth century BCE, as documented in the Epinomis of Plato and his contemporaries.[228]

left|frameless|80px The god Jupiter is the Roman counterpart of Zeus, and he is the principal god of Roman mythology. The Romans originally called Jupiter the "star of Jupiter" (Iuppiter Stella)," as they believed it to be sacred to its namesake god. This name comes from the Proto-Indo-European vocative compound *Dyēu-pəter (nominative: *Dyēus-pətēr, meaning "Father Sky-God", or "Father Day-God").[229] As the supreme god of the Roman pantheon, Jupiter was the god of thunder, lightning, and storms, and appropriately called the god of light and sky.

In Vedic astrology, Hindu astrologers named the planet after Brihaspati, the religious teacher of the gods, and often called it "Guru", which literally means the "Heavy One".[230] In Central Asian Turkic myths, Jupiter is called Erendiz or Erentüz, from eren (of uncertain meaning) and yultuz ("star"). The Turks calculated the period of the orbit of Jupiter as 11 years and 300 days. They believed that some social and natural events connected to Erentüz's movements on the sky.[231] The Chinese, Vietnamese, Koreans, and Japanese called it the "wood star" (Chinese: 木星; pinyin: mùxīng), based on the Chinese Five Elements.[232][233][234] In China it became known as the "Year-star" (Sui-sing) as Chinese astronomers noted that it jumped one zodiac constellation each year (with corrections). In some ancient Chinese writings the years were named, at least in principle, in correlation with the Jovian zodiacal signs.[235]


See also


  1. This image was taken by the Hubble Space Telescope, using the Wide Field Camera 3, on April 21, 2014. Jupiter's atmosphere and its appearance constantly changes, and hence its current appearance today may not resemble what it was when this image was taken. Depicted in this image, however, are a few features that remain consistent, such as the famous Great Red Spot, featured prominently in the lower right of the image, and the planet's recognizable banded appearance.
  2. 2.0 2.1 2.2 2.3 2.4 2.5 Refers to the level of 1 bar atmospheric pressure
  3. Based on the volume within the level of 1 bar atmospheric pressure
  4. See for example: "IAUC 2844: Jupiter; 1975h". International Astronomical Union. October 1, 1975.  That particular word has been in use since at least 1966. See: "Query Results from the Astronomy Database". Smithsonian/NASA. 
  5. See Moons of Jupiter for details and cites


  1. Simpson, J. A.; Weiner, E. S. C. (1989). "Jupiter". Jupiter. 8 (2nd ed.). Clarendon Press. ISBN 978-0-19-861220-9. 
  2. 2.0 2.1 Simon, J. L.; Bretagnon, P.; Chapront, J.; Chapront-Touzé, M.; Francou, G.; Laskar, J. (February 1994). "Numerical expressions for precession formulae and mean elements for the Moon and planets". Astronomy and Astrophysics 282 (2): 663–683. Bibcode1994A&A...282..663S. 
  3. "HORIZONS Planet-center Batch call for January 2023 Perihelion". NASA/JPL. 
  4. 4.0 4.1 4.2 Kindy, David. "Amateur Astronomer Discovers New Moon Orbiting Jupiter". Smithsonian Magazine. Retrieved 2022-03-08. 
  5. 5.0 5.1 5.2 5.3 5.4 5.5 5.6 Williams, David R. (December 23, 2021). "Jupiter Fact Sheet". NASA. 
  6. Ni, D. (2018). "Empirical models of Jupiter's interior from Juno data". Astronomy & Astrophysics 613: A32. doi:10.1051/0004-6361/201732183. Bibcode2018A&A...613A..32N. 
  7. Cite error: Invalid <ref> tag; no text was provided for refs named planet_years
  8. Li, Liming; Jiang, X.; West, R. A.; Gierasch, P. J.; Perez-Hoyos, S.; Sanchez-Lavega, A.; Fletcher, L. N.; Fortney, J. J. et al. (2018). "Less absorbed solar energy and more internal heat for Jupiter". Nature Communications 9 (1): 3709. doi:10.1038/s41467-018-06107-2. PMID 30213944. Bibcode2018NatCo...9.3709L. 
  9. Mallama, Anthony; Krobusek, Bruce; Pavlov, Hristo (2017). "Comprehensive wide-band magnitudes and albedos for the planets, with applications to exo-planets and Planet Nine". Icarus 282: 19–33. doi:10.1016/j.icarus.2016.09.023. Bibcode2017Icar..282...19M. 
  10. 10.0 10.1 10.2 10.3 Mallama, A.; Hilton, J. L. (2018). "Computing Apparent Planetary Magnitudes for The Astronomical Almanac". Astronomy and Computing 25: 10–24. doi:10.1016/j.ascom.2018.08.002. Bibcode2018A&C....25...10M. 
  11. Seidelmann, P. Kenneth; Archinal, Brent A.; A'Hearn, Michael F.; Conrad, Albert R.; Consolmagno, Guy J.; Hestroffer, Daniel; Hilton, James L.; Krasinsky, Georgij A. et al. (2007). "Report of the IAU/IAG Working Group on cartographic coordinates and rotational elements: 2006". Celestial Mechanics and Dynamical Astronomy 98 (3): 155–180. doi:10.1007/s10569-007-9072-y. Bibcode2007CeMDA..98..155S. 
  12. de Pater, Imke; Lissauer, Jack J. (2015). Planetary Sciences (2nd updated ed.). New York: Cambridge University Press. p. 250. ISBN 978-0-521-85371-2. 
  13. Bjoraker, G. L.; Wong, M. H.; de Pater, I.; Ádámkovics, M. (September 2015). "Jupiter's Deep Cloud Structure Revealed Using Keck Observations of Spectrally Resolved Line Shapes". The Astrophysical Journal 810 (2): 10. doi:10.1088/0004-637X/810/2/122. 122. Bibcode2015ApJ...810..122B. 
  14. Saumon, D.; Guillot, T. (2004). "Shock Compression of Deuterium and the Interiors of Jupiter and Saturn". The Astrophysical Journal 609 (2): 1170–1180. doi:10.1086/421257. Bibcode2004ApJ...609.1170S. 
  15. "In Depth | Pioneer 10". "Pioneer 10, the first NASA mission to the outer planets, garnered a series of firsts perhaps unmatched by any other robotic spacecraft in the space era: the first vehicle placed on a trajectory to escape the solar system into interstellar space; the first spacecraft to fly beyond Mars; the first to fly through the asteroid belt; the first to fly past Jupiter; and the first to use all-nuclear electrical power" 
  16. "Exploration | Jupiter".,title+asc&search=&tags=Jupiter&category=129. 
  17. 17.0 17.1 17.2 Chang, Kenneth (July 5, 2016). "NASA's Juno Spacecraft Enters Jupiter's Orbit". The New York Times. 
  18. Chang, Kenneth (June 30, 2016). "All Eyes (and Ears) on Jupiter". The New York Times. 
  19. Chang, Kenneth (14 June 2021). "Mushballs and a Great Blue Spot: What Lies Beneath Jupiter's Pretty Clouds - NASA's Juno probe is beginning an extended mission that may not have been possible if it hadn't experienced engine trouble when it first arrived at the giant planet.". The New York Times. 
  20. "Naming of Astronomical Objects". International Astronomical Union. 
  21. Jones, Alexander (1999). Astronomical papyri from Oxyrhynchus. pp. 62–63. ISBN 9780871692337. "It is now possible to trace the medieval symbols for at least four of the five planets to forms that occur in some of the latest papyrus horoscopes ([ P.Oxy. ] 4272, 4274, 4275 [...]). That for Jupiter is an obvious monogram derived from the initial letter of the Greek name." 
  22. "The origin of the symbols of the planets". The Observatory 57: 238–247. August 1934. Bibcode1934Obs....57..238M. 
  23. Harper, Douglas. Jove. Retrieved 2022-03-22. 
  24. Falk, Michael (June 1999), "Astronomical Names for the Days of the Week", Journal of the Royal Astronomical Society of Canada 93: 122–133, Bibcode1999JRASC..93..122F,, retrieved 18 November 2020 
  25. Falk, Michael; Koresko, Christopher (2004). "Astronomical Names for the Days of the Week". Journal of the Royal Astronomical Society of Canada 93: 122–133. doi:10.1016/j.newast.2003.07.002. Bibcode1999JRASC..93..122F. 
  26. "Jovial". 
  27. 27.0 27.1 Kruijer, Thomas S.; Burkhardt, Christoph; Budde, Gerrit; Kleine, Thorsten (June 2017). "Age of Jupiter inferred from the distinct genetics and formation times of meteorites". Proceedings of the National Academy of Sciences 114 (26): 6712–6716. doi:10.1073/pnas.1704461114. PMID 28607079. Bibcode2017PNAS..114.6712K. 
  28. 28.0 28.1 Bosman, A. D.; Cridland, A. J.; Miguel, Y. (December 2019). "Jupiter formed as a pebble pile around the N2 ice line". Astronomy & Astrophysics 632: 5. doi:10.1051/0004-6361/201936827. L11. Bibcode2019A&A...632L..11B. 
  29. 29.0 29.1 Walsh, K. J.; Morbidelli, A.; Raymond, S. N.; O'Brien, D. P.; Mandell, A. M. (2011). "A low mass for Mars from Jupiter's early gas-driven migration". Nature 475 (7355): 206–209. doi:10.1038/nature10201. PMID 21642961. Bibcode2011Natur.475..206W. 
  30. Batygin, Konstantin (2015). "Jupiter's decisive role in the inner Solar System's early evolution". Proceedings of the National Academy of Sciences 112 (14): 4214–4217. doi:10.1073/pnas.1423252112. PMID 25831540. Bibcode2015PNAS..112.4214B. 
  31. Haisch Jr., K. E.; Lada, E. A.; Lada, C. J. (2001). "Disc Frequencies and Lifetimes in Young Clusters". The Astrophysical Journal 553 (2): 153–156. doi:10.1086/320685. Bibcode2001ApJ...553L.153H. 
  32. Fazekas, Andrew (March 24, 2015). "Observe: Jupiter, Wrecking Ball of Early Solar System". National Geographic. 
  33. Zube, N.; Nimmo, F.; Fischer, R.; Jacobson, S. (2019). "Constraints on terrestrial planet formation timescales and equilibration processes in the Grand Tack scenario from Hf-W isotopic evolution". Earth and Planetary Science Letters 522 (1): 210–218. doi:10.1016/j.epsl.2019.07.001. PMID 32636530. Bibcode2019E&PSL.522..210Z. 
  34. D'Angelo, G.; Marzari, F. (2012). "Outward Migration of Jupiter and Saturn in Evolved Gaseous Disks". The Astrophysical Journal 757 (1): 50 (23 pp.). doi:10.1088/0004-637X/757/1/50. Bibcode2012ApJ...757...50D. 
  35. D'Angelo, G.; Weidenschilling, S. J.; Lissauer, J. J.; Bodenheimer, P. (2021). "Growth of Jupiter: Formation in disks of gas and solids and evolution to the present epoch". Icarus 355: 114087. doi:10.1016/j.icarus.2020.114087. Bibcode2021Icar..35514087D. 
  36. 36.0 36.1 Pirani, S.; Johansen, A.; Bitsch, B.; Mustill, A.J.; Turrini, D. (March 2019). "Consequences of planetary migration on the minor bodies of the early solar system". Astronomy & Astrophysics 623: A169. doi:10.1051/0004-6361/201833713. Bibcode2019A&A...623A.169P. 
  37. 37.0 37.1 "Jupiter's Unknown Journey Revealed". ScienceDaily. Lund University. March 22, 2019. 
  38. Öberg, K.I.; Wordsworth, R. (2019). "Jupiter's Composition Suggests its Core Assembled Exterior to the N_{2} Snowline". The Astronomical Journal 158 (5). doi:10.3847/1538-3881/ab46a8. 
  39. Öberg, K.I.; Wordsworth, R. (2020). "Erratum: "Jupiter's Composition Suggests Its Core Assembled Exterior to the N2 Snowline"". The Astronomical Journal 159 (2): 78. doi:10.3847/1538-3881/ab6172. 
  40. Denecke, Edward J. (January 7, 2020). Regents Exams and Answers: Earth Science—Physical Setting 2020. Barrons Educational Series. p. 419. ISBN 978-1-5062-5399-2. 
  41. Swarbrick, James (2013). Encyclopedia of Pharmaceutical Technology. 6. CRC Press. p. 3601. ISBN 9781439808238. ""Syrup USP (1.31 g/cm3)"" 
  42. Allen, Clabon Walter; Cox, Arthur N. (2000). Allen's Astrophysical Quantities. Springer. pp. 295–296. ISBN 978-0-387-98746-0. 
  43. Polyanin, Andrei D.; Chernoutsan, Alexei (October 18, 2010). A Concise Handbook of Mathematics, Physics, and Engineering Sciences. CRC Press. p. 1041. ISBN 978-1-4398-0640-1. 
  44. Guillot, Tristan; Gautier, Daniel; Hubbard, William B (December 1997). "NOTE: New Constraints on the Composition of Jupiter from Galileo Measurements and Interior Models". Icarus 130 (2): 534–539. doi:10.1006/icar.1997.5812. Bibcode1997Icar..130..534G. 
  45. Kim, S. J.; Caldwell, J.; Rivolo, A. R.; Wagner, R. (1985). "Infrared Polar Brightening on Jupiter III. Spectrometry from the Voyager 1 IRIS Experiment". Icarus 64 (2): 233–248. doi:10.1016/0019-1035(85)90201-5. Bibcode1985Icar...64..233K. 
  46. Gautier, D.; Conrath, B.; Flasar, M.; Hanel, R.; Kunde, V.; Chedin, A.; Scott N. (1981). "The helium abundance of Jupiter from Voyager". Journal of Geophysical Research 86 (A10): 8713–8720. doi:10.1029/JA086iA10p08713. Bibcode1981JGR....86.8713G. 
  47. 47.0 47.1 Kunde, V. G. (September 10, 2004). "Jupiter's Atmospheric Composition from the Cassini Thermal Infrared Spectroscopy Experiment". Science 305 (5690): 1582–1586. doi:10.1126/science.1100240. PMID 15319491. Bibcode2004Sci...305.1582K. Retrieved April 4, 2007. 
  48. Niemann, H. B.; Atreya, S. K.; Carignan, G. R.; Donahue, T. M.; Haberman, J. A.; Harpold, D. N.; Hartle, R. E.; Hunten, D. M. et al. (1996). "The Galileo Probe Mass Spectrometer: Composition of Jupiter's Atmosphere". Science 272 (5263): 846–849. doi:10.1126/science.272.5263.846. PMID 8629016. Bibcode1996Sci...272..846N. 
  49. 49.0 49.1 von Zahn, U.; Hunten, D. M.; Lehmacher, G. (1998). "Helium in Jupiter's atmosphere: Results from the Galileo probe Helium Interferometer Experiment". Journal of Geophysical Research 103 (E10): 22815–22829. doi:10.1029/98JE00695. Bibcode1998JGR...10322815V. 
  50. Stevenson, David J. (May 2020). "Jupiter's Interior as Revealed by Juno". Annual Review of Earth and Planetary Sciences 48: 465–489. doi:10.1146/annurev-earth-081619-052855. Bibcode2020AREPS..48..465S. Retrieved 2022-03-18. 
  51. Ingersoll, A. P.; Hammel, H. B.; Spilker, T. R.; Young, R. E. (June 1, 2005). "Outer Planets: The Ice Giants". Lunar & Planetary Institute. 
  52. MacDougal, Douglas W. (2012). "A Binary System Close to Home: How the Moon and Earth Orbit Each Other" (in en). Newton's Gravity. Undergraduate Lecture Notes in Physics. Springer New York. pp. 193–211. doi:10.1007/978-1-4614-5444-1_10. ISBN 978-1-4614-5443-4. "the barycentre is 743,000 km from the centre of the Sun. The Sun's radius is 696,000 km, so it is 47,000 km above the surface." 
  53. 53.0 53.1 53.2 53.3 53.4 Burgess, Eric (1982). By Jupiter: Odysseys to a Giant. New York: Columbia University Press. ISBN 978-0-231-05176-7. 
  54. Shu, Frank H. (1982). The physical universe: an introduction to astronomy. Series of books in astronomy (12th ed.). University Science Books. p. 426. ISBN 978-0-935702-05-7. 
  55. Davis, Andrew M.; Turekian, Karl K. (2005). Meteorites, comets, and planets. Treatise on geochemistry. 1. Elsevier. p. 624. ISBN 978-0-08-044720-9. 
  56. Schneider, Jean (2009). "The Extrasolar Planets Encyclopedia: Interactive Catalogue". Paris Observatory. 
  57. Seager, S.; Kuchner, M.; Hier-Majumder, C. A.; Militzer, B. (2007). "Mass-Radius Relationships for Solid Exoplanets". The Astrophysical Journal 669 (2): 1279–1297. doi:10.1086/521346. Bibcode2007ApJ...669.1279S. 
  58. 58.0 58.1 58.2 58.3 58.4 58.5 58.6 58.7 How the Universe Works 3. Jupiter: Destroyer or Savior?. Discovery Channel. 2014.
  59. Guillot, Tristan (1999). "Interiors of Giant Planets Inside and Outside the Solar System". Science 286 (5437): 72–77. doi:10.1126/science.286.5437.72. PMID 10506563. Bibcode1999Sci...286...72G. Retrieved 2022-04-24. 
  60. Burrows, Adam; Hubbard, W. B.; Lunine, J. I.; Liebert, James (July 2001). "The theory of brown dwarfs and extrasolar giant planets". Reviews of Modern Physics 73 (3): 719–765. doi:10.1103/RevModPhys.73.719. Bibcode2001RvMP...73..719B. "Hence the HBMM at solar metallicity and Yα = 50.25 is 0.07 – 0.074 M, ... while the HBMM at zero metallicity is 0.092 M". 
  61. von Boetticher, Alexander; Triaud, Amaury H. M. J.; Queloz, Didier; Gill, Sam; Lendl, Monika; Delrez, Laetitia; Anderson, David R.; Collier Cameron, Andrew et al. (August 2017). "The EBLM project. III. A Saturn-size low-mass star at the hydrogen-burning limit". Astronomy & Astrophysics 604: 6. doi:10.1051/0004-6361/201731107. L6. Bibcode2017A&A...604L...6V. 
  62. 62.0 62.1 62.2 62.3 62.4 62.5 62.6 62.7 Elkins-Tanton, Linda T. (2011). Jupiter and Saturn (revised ed.). New York: Chelsea House. ISBN 978-0-8160-7698-7. 
  63. Irwin, Patrick (2003). Giant Planets of Our Solar System: Atmospheres, Composition, and Structure. Springer Science & Business Media. p. 62. ISBN 9783540006817. 
  64. Irwin, Patrick G. J. (2009). Giant Planets of Our Solar System: Atmospheres, Composition, and Structure (Second ed.). Springer. p. 4. ISBN 978-3-642-09888-8. "the radius of Jupiter is estimated to be currently shrinking by approximately 1 mm/yr" .
  65. 65.0 65.1 Guillot, Tristan; Stevenson, David J.; Hubbard, William B.; Saumon, Didier (2004). "Chapter 3: The Interior of Jupiter". in Bagenal, Fran; Dowling, Timothy E.; McKinnon, William B.. Jupiter: The Planet, Satellites and Magnetosphere. Cambridge University Press. ISBN 978-0-521-81808-7. 
  66. Bodenheimer, P. (1974). "Calculations of the early evolution of Jupiter". Icarus. 23 23 (3): 319–325. doi:10.1016/0019-1035(74)90050-5. Bibcode1974Icar...23..319B. 
  67. Smoluchowski, R. (1971). "Metallic interiors and magnetic fields of Jupiter and Saturn". The Astrophysical Journal 166: 435. doi:10.1086/150971. Bibcode1971ApJ...166..435S. 
  68. Wall, Mike (May 26, 2017). "More Jupiter Weirdness: Giant Planet May Have Huge, 'Fuzzy' Core". 
  69. Weitering, Hanneke (January 10, 2018). "'Totally Wrong' on Jupiter: What Scientists Gleaned from NASA's Juno Mission". 
  70. Liu, S. F.; Hori, Y.; Müller, S.; Zheng, X.; Helled, R.; Lin, D.; Isella, A. (2019). "The formation of Jupiter's diluted core by a giant impact". Nature 572 (7769): 355–357. doi:10.1038/s41586-019-1470-2. PMID 31413376. Bibcode2019Natur.572..355L. 
  71. Guillot, T. (2019). "Signs that Jupiter was mixed by a giant impact". Nature 572 (7769): 315–317. doi:10.1038/d41586-019-02401-1. PMID 31413374. Bibcode2019Natur.572..315G. 
  72. Wahl, S. M.; Hubbard, William B.; Militzer, B.; Guillot, Tristan; Miguel, Y.; Movshovitz, N.; Kaspi, Y.; Helled, R. et al. (2017). "Comparing Jupiter interior structure models to Juno gravity measurements and the role of a dilute core". Geophysical Letters 44 (10): 4649–4659. doi:10.1002/2017GL073160. Bibcode2017GeoRL..44.4649W. 
  73. Trachenko, K.; Brazhkin, V. V.; Bolmatov, D. (March 2014). "Dynamic transition of supercritical hydrogen: Defining the boundary between interior and atmosphere in gas giants". Physical Review E 89 (3): 032126. doi:10.1103/PhysRevE.89.032126. 032126. PMID 24730809. Bibcode2014PhRvE..89c2126T. 
  74. "A Freaky Fluid inside Jupiter?". 
  75. "Oceans of diamond possible on Uranus and Neptune". 
  76. "NASA System Exploration Jupiter". 
  77. Guillot, T. (1999). "A comparison of the interiors of Jupiter and Saturn". Planetary and Space Science 47 (10–11): 1183–1200. doi:10.1016/S0032-0633(99)00043-4. Bibcode1999P&SS...47.1183G. 
  78. 78.0 78.1 Lang, Kenneth R. (2003). "Jupiter: a giant primitive planet". NASA. 
  79. Lodders, Katharina (2004). "Jupiter Formed with More Tar than Ice". The Astrophysical Journal 611 (1): 587–597. doi:10.1086/421970. Bibcode2004ApJ...611..587L. 
  80. S. Brygoo et al. 'Evidence of hydrogen−helium immiscibility at Jupiter-interior conditions.' Nature. Vol. 593, May 27, 2021, p. 517. doi:10.1038/s41586-021-03516-0.
  81. Kramer, Miriam (October 9, 2013). "Diamond Rain May Fill Skies of Jupiter and Saturn". 
  82. Kaplan, Sarah (August 25, 2017). "It rains solid diamonds on Uranus and Neptune". The Washington Post. 
  83. Stevenson, David J. (2020). "Jupiter's Interior as Revealed by Juno". Annual Review of Earth and Planetary Sciences 48: 465–489. doi:10.1146/annurev-earth-081619-052855. Bibcode2020AREPS..48..465S. 
  84. 84.0 84.1 Guillot, Tristan; Stevenson, David J.; Hubbard, William B.; Saumon, Didier (2004). "The interior of Jupiter". in Bagenal, Fran; Dowling, Timothy E.; McKinnon, William B.. Jupiter. The planet, satellites and magnetosphere. Cambridge planetary science. 1. Cambridge, UK: Cambridge University Press. p. 45. ISBN 0-521-81808-7. 
  85. Loeffler, Mark J.; Hudson, Reggie L. (March 2018). "Coloring Jupiter's clouds: Radiolysis of ammonium hydrosulfide (NH4SH)". Icarus 302: 418–425. doi:10.1016/j.icarus.2017.10.041. Bibcode2018Icar..302..418L. Retrieved 2022-04-25. 
  86. Bagenal, Fran; Dowling, Timothy E.; McKinnon, William B., eds (2004). "Dynamics of Jupiter's Atmosphere". Jupiter. The Planet, Satellites and Magnetosphere. Cambridge planetary science (Cambridge, UK: Cambridge University Press) 1: 105–128. ISBN 0-521-81808-7. Retrieved 2022-03-08. 
  87. Aglyamov, Yury S.; Lunine, Jonathan; Becker, Heidi N.; Guillot, Tristan; Gibbard, Seran G.; Atreya, Sushil; Bolton, Scott J.; Levin, Steven et al. (February 2021). "Lightning Generation in Moist Convective Clouds and Constraints on the Water Abundance in Jupiter". Journal of Geophysical Research: Planets 126 (2). doi:10.1029/2020JE006504. e06504. Bibcode2021JGRE..12606504A. 
  88. Watanabe, Susan, ed (February 25, 2006). "Surprising Jupiter: Busy Galileo spacecraft showed jovian system is full of surprises". NASA. 
  89. Kerr, Richard A. (2000). "Deep, Moist Heat Drives Jovian Weather". Science 287 (5455): 946–947. doi:10.1126/science.287.5455.946b. Retrieved 2022-04-26. 
  90. "Small lightning flashes from shallow electrical storms on Jupiter". Nature 584 (7819): 55–58. 2020. doi:10.1038/s41586-020-2532-1. ISSN 0028-0836. PMID 32760043. Bibcode2020Natur.584...55B. 
  91. "Storms and the Depletion of Ammonia in Jupiter: I. Microphysics of "Mushballs"". Journal of Geophysical Research: Planets 125 (8): e2020JE006403. 2020. doi:10.1029/2020JE006404. Bibcode2020JGRE..12506403G. 
  92. Giles, Rohini S.; Greathouse, Thomas K.; Bonfond, Bertrand; Gladstone, G. Randall; Kammer, Joshua A.; Hue, Vincent; Grodent, Denis C.; Gérard, Jean-Claude et al. (2020). "Possible Transient Luminous Events Observed in Jupiter's Upper Atmosphere". Journal of Geophysical Research: Planets 125 (11): e06659. doi:10.1029/2020JE006659. e06659. Bibcode2020JGRE..12506659G. 
  93. Greicius, Tony, ed (October 27, 2020). "Juno Data Indicates 'Sprites' or 'Elves' Frolic in Jupiter's Atmosphere". 
  94. Strycker, P. D.; Chanover, N.; Sussman, M.; Simon-Miller, A. (2006). "A Spectroscopic Search for Jupiter's Chromophores". American Astronomical Society. Bibcode2006DPS....38.1115S. 
  95. 95.0 95.1 95.2 Gierasch, Peter J.; Nicholson, Philip D. (2004). "Jupiter". World Book @ NASA. 
  96. Chang, Kenneth (December 13, 2017). "The Great Red Spot Descends Deep into Jupiter". The New York Times. 
  97. Denning, William F. (1899). "Jupiter, early history of the great red spot on". Monthly Notices of the Royal Astronomical Society 59 (10): 574–584. doi:10.1093/mnras/59.10.574. Bibcode1899MNRAS..59..574D. 
  98. Kyrala, A. (1982). "An explanation of the persistence of the Great Red Spot of Jupiter". Moon and the Planets 26 (1): 105–107. doi:10.1007/BF00941374. Bibcode1982M&P....26..105K. 
  99. Oldenburg, Henry, ed (1665–1666). "Philosophical Transactions of the Royal Society". Project Gutenberg. 
  100. Wong, M.; de Pater, I. (May 22, 2008). "New Red Spot Appears on Jupiter". NASA. 
  101. Simon-Miller, A.; Chanover, N.; Orton, G. (July 17, 2008). "Three Red Spots Mix It Up on Jupiter". NASA. 
  102. Covington, Michael A. (2002). Celestial Objects for Modern Telescopes. Cambridge University Press. p. 53. ISBN 978-0-521-52419-3. 
  103. Cardall, C. Y.; Daunt, S. J.. "The Great Red Spot". University of Tennessee. 
  104. Jupiter, the Giant of the Solar System. NASA. 1979. p. 5. 
  105. Sromovsky, L. A.; Baines, K. H.; Fry, P. M.; Carlson, R. W. (July 2017). "A possibly universal red chromophore for modeling colour variations on Jupiter". Icarus 291: 232–244. doi:10.1016/j.icarus.2016.12.014. Bibcode2017Icar..291..232S. 
  106. 106.0 106.1 White, Greg (November 25, 2015). "Is Jupiter's Great Red Spot nearing its twilight?". 
  107. Sommeria, Jöel; Meyers, Steven D.; Swinney, Harry L. (February 25, 1988). "Laboratory simulation of Jupiter's Great Red Spot". Nature 331 (6158): 689–693. doi:10.1038/331689a0. Bibcode1988Natur.331..689S. 
  108. 108.0 108.1 Simon, A. A.; Wong, M. H.; Rogers, J. H.; Orton, G. S.; de Pater, I.; Asay-Davis, X.; Carlson, R. W.; Marcus, P. S. (March 2015). "Dramatic Change in Jupiter's Great Red Spot". 46th Lunar and Planetary Science Conference. March 16–20, 2015. The Woodlands, Texas.. Bibcode2015LPI....46.1010S. 
  109. Doctor, Rina Marie (October 21, 2015). "Jupiter's Superstorm Is Shrinking: Is Changing Red Spot Evidence Of Climate Change?". Tech Times. 
  110. Grush, Loren (2021-10-28). "NASA's Juno spacecraft finds just how deep Jupiter's Great Red Spot goes" (in en). 
  111. Adriani, A.; Mura, A.; Orton, G.; Hansen, C.; Altieri, F.; Moriconi, M. L.; Rogers, J.; Eichstädt, G. et al. (March 2018). "Clusters of cyclones encircling Jupiter's poles". Nature 555 (7695): 216–219. doi:10.1038/nature25491. PMID 29516997. Bibcode2018Natur.555..216A. 
  112. Starr, Michelle (December 13, 2017). "NASA Just Watched a Mass of Cyclones on Jupiter Evolve Into a Mesmerising Hexagon". 
  113. Harrington, J. D.; Weaver, Donna; Villard, Ray (May 15, 2014). "Release 14-135 – NASA's Hubble Shows Jupiter's Great Red Spot is Smaller than Ever Measured". NASA. 
  114. Steigerwald, Bill (October 14, 2006). "Jupiter's Little Red Spot Growing Stronger". NASA. 
  115. Wong, Michael H.; de Pater, Imke; Asay-Davis, Xylar; Marcus, Philip S.; Go, Christopher Y. (September 2011). "Vertical structure of Jupiter's Oval BA before and after it reddened: What changed?". Icarus 215 (1): 211–225. doi:10.1016/j.icarus.2011.06.032. Bibcode2011Icar..215..211W. Retrieved 2022-04-27. 
  116. Stallard, Tom S.; Melin, Henrik; Miller, Steve; Moore, Luke; O'Donoghue, James; Connerney, John E. P.; Satoh, Takehiko; West, Robert A. et al. (April 10, 2017). "The Great Cold Spot in Jupiter's upper atmosphere". Geophysical Research Letters 44 (7): 3000–3008. doi:10.1002/2016GL071956. PMID 28603321. Bibcode2017GeoRL..44.3000S. 
  117. Connerney, J. E. P.; Kotsiaros, S.; Oliversen, R. J.; Espley, J. R.; Joergensen, J. L.; Joergensen, P. S.; Merayo, J. M. G.; Herceg, M. et al. (May 26, 2017). "A New Model of Jupiter's Magnetic Field From Juno's First Nine Orbits" (in en). Geophysical Research Letters 45 (6): 2590–2596. doi:10.1002/2018GL077312. Bibcode2018GeoRL..45.2590C. 
  118. Brainerd, Jim (November 22, 2004). "Jupiter's Magnetosphere". The Astrophysics Spectator. 
  119. "Receivers for Radio JOVE". March 1, 2017. 
  120. Phillips, Tony; Horack, John M. (February 20, 2004). "Radio Storms on Jupiter". 
  121. Herbst, T. M.; Rix, H.-W. (1999). "Star Formation and Extrasolar Planet Studies with Near-Infrared Interferometry on the LBT". in Guenther, Eike; Stecklum, Bringfried; Klose, Sylvio. Optical and Infrared Spectroscopy of Circumstellar Matter. ASP Conference Series. 188. San Francisco, Calif.: Astronomical Society of the Pacific. pp. 341–350. ISBN 978-1-58381-014-9. Bibcode1999ASPC..188..341H.  – See section 3.4.
  122. MacDougal, Douglas W. (December 16, 2012). Newton's Gravity: An Introductory Guide to the Mechanics of the Universe. Springer New York. p. 199. ISBN 978-1-4614-5444-1. 
  123. Popular Astronomy. 44. Carleton College. 1936. p. 542. 
  124. Michtchenko, T. A.; Ferraz-Mello, S. (February 2001). "Modeling the 5:2 Mean-Motion Resonance in the Jupiter–Saturn Planetary System". Icarus 149 (2): 77–115. doi:10.1006/icar.2000.6539. Bibcode2001Icar..149..357M. 
  125. "Interplanetary Seasons". Science@NASA. 
  126. Ridpath, Ian (1998). Norton's Star Atlas (19th ed.). Prentice Hall. ISBN 978-0-582-35655-9. 
  127. Hide, R. (January 1981). "On the rotation of Jupiter". Geophysical Journal 64: 283–289. doi:10.1111/j.1365-246X.1981.tb02668.x. Bibcode1981GeoJ...64..283H. 
  128. Russell, C. T.; Yu, Z. J.; Kivelson, M. G. (2001). "The rotation period of Jupiter". Geophysical Research Letters 28 (10): 1911–1912. doi:10.1029/2001GL012917. Bibcode2001GeoRL..28.1911R. Retrieved 2022-04-28. 
  129. Rogers, John H. (July 20, 1995). "Appendix 3". The giant planet Jupiter. Cambridge University Press. ISBN 978-0-521-41008-3. 
  130. Price, Fred W. (October 26, 2000). The Planet Observer's Handbook. Cambridge University Press. p. 140. ISBN 9780521789813. 
  131. Fimmel, Richard O.; Swindell, William; Burgess, Eric (1974). "8. Encounter with the Giant". Pioneer Odyssey (Revised ed.). NASA History Office. Retrieved February 17, 2007. 
  132. Chaple, Glenn F. (2009). Jones, Lauren V.; Slater, Timothy F.. eds. Outer Planets. Greenwood Guides to the Universe. ABC-CLIO. p. 47. ISBN 9780313365713. 
  133. North, Chris; Abel, Paul (October 31, 2013). The Sky at Night: How to Read the Solar System. Ebury Publishing. p. 183. ISBN 978-1-4481-4130-2. 
  134. Sachs, A. (May 2, 1974). "Babylonian Observational Astronomy". Philosophical Transactions of the Royal Society of London 276 (1257): 43–50 (see p. 44). doi:10.1098/rsta.1974.0008. Bibcode1974RSPTA.276...43S. 
  135. Dubs, Homer H. (1958). "The Beginnings of Chinese Astronomy". Journal of the American Oriental Society 78 (4): 295–300. doi:10.2307/595793. 
  136. Chen, James L.; Chen, Adam (2015). A Guide to Hubble Space Telescope Objects: Their Selection, Location, and Significance. Springer International Publishing. p. 195. ISBN 9783319188720. 
  137. Seargent, David A. J. (September 24, 2010). "Facts, Fallacies, Unusual Observations, and Other Miscellaneous Gleanings". Weird Astronomy: Tales of Unusual, Bizarre, and Other Hard to Explain Observations. Astronomers' Universe. pp. 221–282. ISBN 978-1-4419-6424-3. 
  138. Xi, Z. Z. (1981). "The Discovery of Jupiter's Satellite Made by Gan-De 2000 Years Before Galileo". Acta Astrophysica Sinica 1 (2): 87. Bibcode1981AcApS...1...85X. 
  139. Dong, Paul (2002). China's Major Mysteries: Paranormal Phenomena and the Unexplained in the People's Republic. China Books. ISBN 978-0-8351-2676-2. 
  140. Ossendrijver, Mathieu (January 29, 2016). "Ancient Babylonian astronomers calculated Jupiter's position from the area under a time-velocity graph". Science 351 (6272): 482–484. doi:10.1126/science.aad8085. PMID 26823423. Bibcode2016Sci...351..482O. 
  141. Pedersen, Olaf (1974). A Survey of the Almagest. Odense University Press. pp. 423, 428. 
  142. Pasachoff, Jay M. (2015). "Simon Marius's Mundus Iovialis: 400th Anniversary in Galileo's Shadow". Journal for the History of Astronomy 46 (2): 218–234. doi:10.1177/0021828615585493. Bibcode2015AAS...22521505P. 
  143. Westfall, Richard S. "Galilei, Galileo". The Galileo Project. Rice University. 
  144. O'Connor, J. J.; Robertson, E. F. (April 2003). "Giovanni Domenico Cassini". University of St. Andrews. 
  145. Atkinson, David H.; Pollack, James B.; Seiff, Alvin (September 1998). "The Galileo probe Doppler wind experiment: Measurement of the deep zonal winds on Jupiter". Journal of Geophysical Research 103 (E10): 22911–22928. doi:10.1029/98JE00060. Bibcode1998JGR...10322911A. 
  146. Murdin, Paul (2000). Encyclopedia of Astronomy and Astrophysics. Bristol: Institute of Physics Publishing. ISBN 978-0-12-226690-4. 
  147. Rogers, John H. (1995). The giant planet Jupiter. Cambridge University Press. pp. 188–189. ISBN 9780521410083. 
  148. Fimmel, Richard O.; Swindell, William; Burgess, Eric (August 1974). "Jupiter, Giant of the Solar System". Pioneer Odyssey (Revised ed.). NASA History Office. Retrieved August 10, 2006. 
  149. Brown, Kevin (2004). "Roemer's Hypothesis". MathPages. 
  150. Bobis, Laurence; Lequeux, James (July 2008). "Cassini, Rømer, and the velocity of light". Journal of Astronomical History and Heritage 11 (2): 97–105. Bibcode2008JAHH...11...97B. 
  151. Tenn, Joe (March 10, 2006). "Edward Emerson Barnard". Sonoma State University. 
  152. "Amalthea Fact Sheet". NASA/JPL. October 1, 2001. 
  153. Dunham Jr., Theodore (1933). "Note on the Spectra of Jupiter and Saturn". Publications of the Astronomical Society of the Pacific 45 (263): 42–44. doi:10.1086/124297. Bibcode1933PASP...45...42D. 
  154. Youssef, A.; Marcus, P. S. (2003). "The dynamics of jovian white ovals from formation to merger". Icarus 162 (1): 74–93. doi:10.1016/S0019-1035(02)00060-X. Bibcode2003Icar..162...74Y. 
  155. Weintraub, Rachel A. (September 26, 2005). "How One Night in a Field Changed Astronomy". NASA. 
  156. Garcia, Leonard N. "The Jovian Decametric Radio Emission". NASA. 
  157. Klein, M. J.; Gulkis, S.; Bolton, S. J. (1996). "Jupiter's Synchrotron Radiation: Observed Variations Before, During and After the Impacts of Comet SL9". Conference at University of Graz (NASA): 217. Bibcode1997pre4.conf..217K. Retrieved February 18, 2007. 
  158. "The Pioneer Missions". NASA. March 26, 2007. 
  159. "NASA Glenn Pioneer Launch History". NASA – Glenn Research Center. March 7, 2003. 
  160. Fortescue, Peter W.; Stark, John; Swinerd, Graham (2003). Spacecraft systems engineering (3rd ed.). John Wiley and Sons. p. 150. ISBN 978-0-470-85102-9. 
  161. Hirata, Chris. "Delta-V in the Solar System". California Institute of Technology. 
  162. Wong, Al (May 28, 1998). "Galileo FAQ: Navigation". NASA. 
  163. 163.0 163.1 163.2 Chan, K.; Paredes, E. S.; Ryne, M. S. (2004). "Ulysses Attitude and Orbit Operations: 13+ Years of International Cooperation". Space OPS 2004 Conference. American Institute of Aeronautics and Astronautics. doi:10.2514/6.2004-650-447. 
  164. Lasher, Lawrence (August 1, 2006). "Pioneer Project Home Page". NASA Space Projects Division. 
  165. "Jupiter". NASA/JPL. January 14, 2003. 
  166. Hansen, C. J.; Bolton, S. J.; Matson, D. L.; Spilker, L. J.; Lebreton, J.-P. (2004). "The Cassini–Huygens flyby of Jupiter". Icarus 172 (1): 1–8. doi:10.1016/j.icarus.2004.06.018. Bibcode2004Icar..172....1H. 
  167. "Pluto-Bound New Horizons Sees Changes in Jupiter System". NASA. October 9, 2007. 
  168. "Pluto-Bound New Horizons Provides New Look at Jupiter System". NASA. May 1, 2007. 
  169. 169.0 169.1 McConnell, Shannon (April 14, 2003). "Galileo: Journey to Jupiter". NASA/JPL. 
  170. Magalhães, Julio (December 10, 1996). "Galileo Probe Mission Events". NASA Space Projects Division. 
  171. Goodeill, Anthony (March 31, 2008). "New Frontiers – Missions – Juno". NASA. 
  172. "Juno, NASA's Jupiter probe". The Planetary Society. 
  173. Jet Propulsion Laboratory (June 17, 2016). "NASA's Juno spacecraft to risk Jupiter's fireworks for science". 
  174. Firth, Niall (September 5, 2016). "NASA's Juno probe snaps first images of Jupiter's north pole". New Scientist. 
  175. Clark, Stephen (February 21, 2017). "NASA's Juno spacecraft to remain in current orbit around Jupiter". Spaceflight Now. 
  176. Agle, D. C.; Wendel, JoAnna; Schmid, Deb (June 6, 2018). "NASA Re-plans Juno's Jupiter Mission". NASA/JPL. 
  177. Talbert, Tricia (January 8, 2021). "NASA Extends Exploration for Two Planetary Science Missions". 
  178. Dickinson, David (February 21, 2017). "Juno Will Stay in Current Orbit Around Jupiter". Sky & Telescope. 
  179. Bartels, Meghan (July 5, 2016). "To protect potential alien life, NASA will destroy its $1 billion Jupiter spacecraft on purpose". Business Insider. 
  180. Berger, Brian (February 7, 2005). "White House scales back space plans". MSNBC. 
  181. "Laplace: A mission to Europa & Jupiter system". European Space Agency. 
  182. Favata, Fabio (April 19, 2011). "New approach for L-class mission candidates". European Space Agency. 
  183. "ESA Science & Technology - JUICE". ESA. November 8, 2021. 
  184. Foust, Jeff (July 10, 2020). "Cost growth prompts changes to Europa Clipper instruments". Space News. 
  185. Jones, Andrew (January 12, 2021). "Jupiter Mission by China Could Include Callisto Landing". The Planetary Society. 
  186. Jones, Andrew (April 16, 2021). "China to launch a pair of spacecraft towards the edge of the solar system". Space News. 
  187. Billings, Lee (November 12, 2019). "Proposed Interstellar Mission Reaches for the Stars, One Generation at a Time". 
  188. Sheppard, Scott S.. "The Giant Planet Satellite and Moon Page". Department of Terrestrial Magnetism. Carnegie Institution for Science. 
  189. Zimmermann, Kim Ann (October 1, 2018). "Jupiter's Moons: Facts About the Largest Jovian Moons". 
  190. Carter, Jamie (2015). A Stargazing Program for Beginners. Springer International Publishing. p. 104. ISBN 978-3-319-22072-7. 
  191. Musotto, S.; Varadi, F.; Moore, W. B.; Schubert, G. (2002). "Numerical simulations of the orbits of the Galilean satellites". Icarus 159 (2): 500–504. doi:10.1006/icar.2002.6939. Bibcode2002Icar..159..500M. 
  192. 192.0 192.1 Lang, Kenneth R. (March 3, 2011). The Cambridge Guide to the Solar System. Cambridge University Press. p. 304. ISBN 978-1-139-49417-5. 
  193. McFadden, Lucy-Ann; Weissmann, Paul; Johnson, Torrence (2006). Encyclopedia of the Solar System. Elsevier Science. p. 446. ISBN 978-0-08-047498-4. 
  194. Kessler, Donald J. (October 1981). "Derivation of the collision probability between orbiting objects: the lifetimes of jupiter's outer moons". Icarus 48 (1): 39–48. doi:10.1016/0019-1035(81)90151-2. Bibcode1981Icar...48...39K. Retrieved December 30, 2020. 
  195. Hamilton, Thomas W. M. (2013). Moons of the Solar System. SPBRA. p. 14. ISBN 978-1-62516-175-8. 
  196. Jewitt, D. C.; Sheppard, S.; Porco, C. (2004). Bagenal, F.; Dowling, T.; McKinnon, W.. eds. Jupiter: The Planet, Satellites and Magnetosphere. Cambridge University Press. ISBN 978-0-521-81808-7. 
  197. 197.0 197.1 197.2 Nesvorný, D.; Alvarellos, J. L. A.; Dones, L.; Levison, H. F. (2003). "Orbital and Collisional Evolution of the Irregular Satellites". The Astronomical Journal 126 (1): 398–429. doi:10.1086/375461. Bibcode2003AJ....126..398N. 
  198. Showman, A. P.; Malhotra, R. (1999). "The Galilean Satellites". Science 286 (5437): 77–84. doi:10.1126/science.286.5437.77. PMID 10506564. Bibcode1999Sci...296...77S. 
  199. Nesvorný, David; Beaugé, Cristian; Dones, Luke; Levison, Harold F. (July 2003). "Collisional Origin of Families of Irregular Satellites". The Astronomical Journal 127 (3): 1768–1783. doi:10.1086/382099. Bibcode2004AJ....127.1768N. 
  200. Showalter, M. A.; Burns, J. A.; Cuzzi, J. N.; Pollack, J. B. (1987). "Jupiter's ring system: New results on structure and particle properties". Icarus 69 (3): 458–498. doi:10.1016/0019-1035(87)90018-2. Bibcode1987Icar...69..458S. 
  201. 201.0 201.1 Burns, J. A.; Showalter, M. R.; Hamilton, D. P.; Nicholson, P. D.; de Pater, I.; Ockert-Bell, M. E.; Thomas, P. C. (1999). "The Formation of Jupiter's Faint Rings". Science 284 (5417): 1146–1150. doi:10.1126/science.284.5417.1146. PMID 10325220. Bibcode1999Sci...284.1146B. 
  202. Fieseler, P. D.; Adams, O. W.; Vandermey, N.; Theilig, E. E.; Schimmels, K. A.; Lewis, G. D.; Ardalan, S. M.; Alexander, C. J. (2004). "The Galileo Star Scanner Observations at Amalthea". Icarus 169 (2): 390–401. doi:10.1016/j.icarus.2004.01.012. Bibcode2004Icar..169..390F. 
  203. Ferraz-Mello, S. (1994). "Kirkwood Gaps and Resonant Groups". in Milani, Andrea; Di Martino, Michel; Cellino, A.. Asteroids, Comets, Meteors 1993: Proceedings of the 160th Symposium of the International Astronomical Union, held in Belgirate, Italy, June 14–18, 1993, International Astronomical Union. Symposium no. 160. Dordrecht: Kluwer Academic Publishers. p. 175. Bibcode1994IAUS..160..175F. 
  204. Kerr, Richard A. (2004). "Did Jupiter and Saturn Team Up to Pummel the Inner Solar System?". Science 306 (5702): 1676. doi:10.1126/science.306.5702.1676a. PMID 15576586. 
  205. "List Of Jupiter Trojans". IAU Minor Planet Center. 
  206. Cruikshank, D. P.; Dalle Ore, C. M.; Geballe, T. R.; Roush, T. L.; Owen, T. C.; Cash, Michele; de Bergh, C.; Hartmann, W. K. (October 2000). "Trojan Asteroid 624 Hektor: Constraints on Surface Composition". Bulletin of the American Astronomical Society 32: 1027. Bibcode2000DPS....32.1901C. 
  207. Quinn, T.; Tremaine, S.; Duncan, M. (1990). "Planetary perturbations and the origins of short-period comets". Astrophysical Journal, Part 1 355: 667–679. doi:10.1086/168800. Bibcode1990ApJ...355..667Q. 
  208. Overbye, Dennis (July 24, 2009). "Hubble Takes Snapshot of Jupiter's 'Black Eye'". The New York Times. 
  209. "Caught in the act: Fireballs light up Jupiter". ScienceDaily. September 10, 2010. 
  210. Nakamura, T.; Kurahashi, H. (1998). "Collisional Probability of Periodic Comets with the Terrestrial Planets: An Invalid Case of Analytic Formulation". Astronomical Journal 115 (2): 848–854. doi:10.1086/300206. Bibcode1998AJ....115..848N. 
  211. Horner, J.; Jones, B. W. (2008). "Jupiter – friend or foe? I: the asteroids.". International Journal of Astrobiology 7 (3–4): 251–261. doi:10.1017/S1473550408004187. Bibcode2008IJAsB...7..251H. 
  212. Overbye, Dennis (July 25, 2009). "Jupiter: Our Comic Protector?". The New York Times. 
  213. "In Depth | P/Shoemaker-Levy 9". 
  214. Howell, Elizabeth (2018-01-24). "Shoemaker-Levy 9: Comet's Impact Left Its Mark on Jupiter" (in en). 
  215. "The Big Comet Crash of 1994 - Intensive Observational Campaign at ESO" (in en). 
  216. "Top 20 Comet Shoemaker-Levy Images". 
  217. "Comet P/Shoemaker-Levy 9 "Gang Of Four"" (in en). 
  218. Savage, Donald; Elliott, Jim; Villard, Ray (December 30, 2004). "Hubble Observations Shed New Light on Jupiter Collision". 
  219. "NASA TV Coverage on Comet Shoemaker-Levy". 
  220. Tabe, Isshi; Watanabe, Jun-ichi; Jimbo, Michiwo (February 1997). "Discovery of a Possible Impact SPOT on Jupiter Recorded in 1690". Publications of the Astronomical Society of Japan 49: L1–L5. doi:10.1093/pasj/49.1.l1. Bibcode1997PASJ...49L...1T. 
  221. "Stargazers prepare for daylight view of Jupiter". ABC News. June 16, 2005. 
  222. 222.0 222.1 Rogers, J. H. (1998). "Origins of the ancient constellations: I. The Mesopotamian traditions". Journal of the British Astronomical Association 108: 9–28. Bibcode1998JBAA..108....9R. 
  223. Waerden, B. L. (1974). "Old-Babylonian Astronomy". Science Awakening II (Dordrecht: Springer): 46–59. doi:10.1007/978-94-017-2952-9_3. ISBN 978-90-481-8247-3. Retrieved 2022-03-21. 
  224. "Greek Names of the Planets". April 25, 2010. "In Greek the name of the planet Jupiter is Dias, the Greek name of god Zeus."  See also the Greek article about the planet.
  225. Cicero, Marcus Tullius (1888) (in en). Cicero's Tusculan Disputations; also, Treatises on The Nature of the Gods, and on The Commonwealth. New York, NY: Harper & Brothers. p. 274. 
  226. Cicero, Marcus Tullus (1967). Warmington, E. H.. ed. De Natura Deorum. Cicero. 19. Cambridge, MA: Cambridge University Press. p. 175. 
  227. Zolotnikova, O. (2019). "Mythologies in contact: Syro-Phoenician traits in Homeric Zeus". The Scientific Heritage 41 (5): 16–24. Retrieved 2022-04-26. 
  228. Tarnas, R. (2009). "The planets". Archai: The Journal of Archetypal Cosmology 1 (1): 36–49. Retrieved 2022-03-21. 
  229. Harper, Douglas (November 2001). "Jupiter". Online Etymology Dictionary. 
  230. "Guru". Indian 
  231. "Türk Astrolojisi-2" (in tr). NTV. 
  232. De Groot, Jan Jakob Maria (1912). Religion in China: universism. a key to the study of Taoism and Confucianism. 10. G.P. Putnam's Sons. p. 300. Retrieved January 8, 2010. 
  233. Crump, Thomas (1992). The Japanese numbers game: the use and understanding of numbers in modern Japan. Routledge. pp. 39–40. ISBN 978-0-415-05609-0. 
  234. Hulbert, Homer Bezaleel (1909). The passing of Korea. Doubleday, Page & Company. p. 426. Retrieved January 8, 2010. 
  235. Dubs, Homer H. (1958). "The Beginnings of Chinese Astronomy". Journal of the American Oriental Society 78 (4): 295–300. doi:10.2307/595793. 
  236. "By Jove! Jupiter Shows Its Stripes and Colors". National Science Foundation. May 11, 2021. 
  237. "Hubble Finds Evidence of Persistent Water Vapour Atmosphere on Europa". European Space Agency. October 14, 2021. 
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