Pluto, Charon & the Plutons
... comet, but is much larger (about 50,000 times larger) than typical comets - probably about 180 km is size. Chiron’s orbit around the Sun, between Jupiter and Neptune, is highly eccentric (e = 0.38) and inclined (i = 6.9 degrees). Its orbit takes it as far as 19 AU from the Sun and as close as 8.4 AU ...
... comet, but is much larger (about 50,000 times larger) than typical comets - probably about 180 km is size. Chiron’s orbit around the Sun, between Jupiter and Neptune, is highly eccentric (e = 0.38) and inclined (i = 6.9 degrees). Its orbit takes it as far as 19 AU from the Sun and as close as 8.4 AU ...
a survey for ``normal`` irregular satellites around neptune: limits to
... slow-moving objects. The limiting magnitude of the survey was determined by placing artificial objects in the fields matched to the point-spread function of the images with motions mimicking that of Neptune (3B5 hr1). Results are shown in Figure 3 for both the visual blinking and computer algorith ...
... slow-moving objects. The limiting magnitude of the survey was determined by placing artificial objects in the fields matched to the point-spread function of the images with motions mimicking that of Neptune (3B5 hr1). Results are shown in Figure 3 for both the visual blinking and computer algorith ...
A Survey for “Normal” Irregular Satellites Around Neptune: Limits to
... We model the irregular satellite size distribution through a differential power-law radius distribution of the form n(r)dr = Γr −q dr, where Γ and q are constants, r is the radius of the satellite, and n(r)dr is the number of satellites with radii in the range r to r + dr. The slope of the CLF (α) a ...
... We model the irregular satellite size distribution through a differential power-law radius distribution of the form n(r)dr = Γr −q dr, where Γ and q are constants, r is the radius of the satellite, and n(r)dr is the number of satellites with radii in the range r to r + dr. The slope of the CLF (α) a ...
Chapter 13
... • Uranus’s spin axis is almost in the plane of its orbit • Surface features are hard to discern on Uranus but are more obvious on Neptune • Uranus has no excess heat emission, but Neptune does ...
... • Uranus’s spin axis is almost in the plane of its orbit • Surface features are hard to discern on Uranus but are more obvious on Neptune • Uranus has no excess heat emission, but Neptune does ...
The Planet Neptune
... • Neptune’s mass is 1.02747e26 kg • Neptune’s volume is 102.4e24 kg • Neptune’s density is 1.64g ...
... • Neptune’s mass is 1.02747e26 kg • Neptune’s volume is 102.4e24 kg • Neptune’s density is 1.64g ...
The outer solar system:
... Uranus has a magnetic field, about 50 times as strong as Earth’s. However, the magnetic axis is not only tilted by about 60 degrees from the rotational axis, but is also offset from the centre of the planet by about 8000 km. This field probably arises as a result of electrical currents in the liqui ...
... Uranus has a magnetic field, about 50 times as strong as Earth’s. However, the magnetic axis is not only tilted by about 60 degrees from the rotational axis, but is also offset from the centre of the planet by about 8000 km. This field probably arises as a result of electrical currents in the liqui ...
class slides for Chapter 9
... This work is protected by U.S. copyright laws and is provided solely for the use of instructors in teaching their courses and assessing student learning. Dissemination or sale of any part of this work (including on the World Wide Web) will destroy the integrity of the work and is not permitted. The ...
... This work is protected by U.S. copyright laws and is provided solely for the use of instructors in teaching their courses and assessing student learning. Dissemination or sale of any part of this work (including on the World Wide Web) will destroy the integrity of the work and is not permitted. The ...
The Milky Way - UNT Department of Political Science
... White cloud features of methane ice crystals ...
... White cloud features of methane ice crystals ...
Interpreting the Densities of the Kuiper Belt`s Dwarf Planets
... smaller counterparts. Many of these objects have moons, which suggests that collisions may have played a role in modifying their compositions. We show that the dwarf planets fall into two categories when analysed by their mean densities and satellite-toprimary size ratio. Systems with large moons, s ...
... smaller counterparts. Many of these objects have moons, which suggests that collisions may have played a role in modifying their compositions. We show that the dwarf planets fall into two categories when analysed by their mean densities and satellite-toprimary size ratio. Systems with large moons, s ...
All About Neptune
... mass in orbit around the planet. It has a diameter of 2,705 kilometres (1,700 miles) and is the only spheroid moon. Triton was probably a dwarf planet in the Kuiper belt before being captured by Neptune’s orbit. Astronomers believe it was captured instead of forming as a satellite because it has a r ...
... mass in orbit around the planet. It has a diameter of 2,705 kilometres (1,700 miles) and is the only spheroid moon. Triton was probably a dwarf planet in the Kuiper belt before being captured by Neptune’s orbit. Astronomers believe it was captured instead of forming as a satellite because it has a r ...
Ch. 13
... Very similar to Saturn’s medium-sized moons, except that all are much less reflective. Umbriel is the darkest: ...
... Very similar to Saturn’s medium-sized moons, except that all are much less reflective. Umbriel is the darkest: ...
19uranusneptune2s
... Radiation darkening produces dark, soot colored rings and moons Interior composed of rocky core, water and ammonia mantle and hydrogen atmosphere Offset magnetic field Formed more slowly than Jupiter and Saturn and so captured less gas ...
... Radiation darkening produces dark, soot colored rings and moons Interior composed of rocky core, water and ammonia mantle and hydrogen atmosphere Offset magnetic field Formed more slowly than Jupiter and Saturn and so captured less gas ...
The outer planets: Uranus, Neptune and Pluto
... Uranus has a magnetic field, about 50 times as strong as Earth’s. However, the magnetic axis is not only tilted by about 60 degrees from the rotational axis, but is also offset from the centre of the planet by about 8000 km. This field probably arises as a result of electrical currents in the liqui ...
... Uranus has a magnetic field, about 50 times as strong as Earth’s. However, the magnetic axis is not only tilted by about 60 degrees from the rotational axis, but is also offset from the centre of the planet by about 8000 km. This field probably arises as a result of electrical currents in the liqui ...
Neptune
... Uranus, the most recently discovered planet. Since it was so far away, one of the best ways they had to learn more details about Uranus was through math. Mathematicians were studying Uranus's orbit when they noticed something strange. Uranus didn't travel along its path at an even speed. It sped up ...
... Uranus, the most recently discovered planet. Since it was so far away, one of the best ways they had to learn more details about Uranus was through math. Mathematicians were studying Uranus's orbit when they noticed something strange. Uranus didn't travel along its path at an even speed. It sped up ...
Neptune
... In the 1840s, astronomers were interested in the planet Uranus, the most recently discovered planet. Since it was so far away, one of the best ways they had to learn more details about Uranus was through math. Mathematicians were studying Uranus's orbit when they noticed something strange. Uranus di ...
... In the 1840s, astronomers were interested in the planet Uranus, the most recently discovered planet. Since it was so far away, one of the best ways they had to learn more details about Uranus was through math. Mathematicians were studying Uranus's orbit when they noticed something strange. Uranus di ...
Lecture #29
... mostly of hydrogen, helium, and methane and possessing a strong internal heat source ...
... mostly of hydrogen, helium, and methane and possessing a strong internal heat source ...
Uranus Neptune Pluto
... a. Seasons on Uranus are 84 times longer and more extreme than on Earth. b. Seasons on Uranus are 84 times longer and less extreme than on Earth. c. Seasons on Uranus are 21 times longer and more extreme than on Earth. d. Seasons on Uranus are 21 times longer and less extreme than on Earth. e. Seaso ...
... a. Seasons on Uranus are 84 times longer and more extreme than on Earth. b. Seasons on Uranus are 84 times longer and less extreme than on Earth. c. Seasons on Uranus are 21 times longer and more extreme than on Earth. d. Seasons on Uranus are 21 times longer and less extreme than on Earth. e. Seaso ...
CHP 24
... d. Triton and Nereid may both have suffered major impacts that radically changed their orbits. e. Triton and Nereid should both have relatively strong magnetic fields. The particles in the rings of Uranus and Neptune are very dark. They may have become dark due to a. collisions with small icy partic ...
... d. Triton and Nereid may both have suffered major impacts that radically changed their orbits. e. Triton and Nereid should both have relatively strong magnetic fields. The particles in the rings of Uranus and Neptune are very dark. They may have become dark due to a. collisions with small icy partic ...
Neptune is the eighth planet from the Sun and the fourth largest (by
... about Neptune comes from this single encounter. But fortunately, recent ground-based and HST observations have added a great deal, too. Because Pluto's orbit is so eccentric, it sometimes crosses the orbit of Neptune making Neptune the most distant planet from the Sun for a few years. Neptune's comp ...
... about Neptune comes from this single encounter. But fortunately, recent ground-based and HST observations have added a great deal, too. Because Pluto's orbit is so eccentric, it sometimes crosses the orbit of Neptune making Neptune the most distant planet from the Sun for a few years. Neptune's comp ...
Chapter 14 Uranus, Neptune, Pluto and the Kuiper Belt
... mass to gravitationally pull itself into a spherical shoape, yet not enough gravity to clear out planetesimals from its surroundings. • This term was introduced in 2006 to help reclassify Pluto as a dw ...
... mass to gravitationally pull itself into a spherical shoape, yet not enough gravity to clear out planetesimals from its surroundings. • This term was introduced in 2006 to help reclassify Pluto as a dw ...
Neptune Mission Concept
... northern hemisphere. Near-global surface coverage will extend the postcapture cratering history and other modification of Triton’s surface. ...
... northern hemisphere. Near-global surface coverage will extend the postcapture cratering history and other modification of Triton’s surface. ...
19uranusneptune5s
... Rings are composed of dark material They reflect very little light and are difficult to observe at optical wavelengths ...
... Rings are composed of dark material They reflect very little light and are difficult to observe at optical wavelengths ...
Uranus Neptune ppt NOTES
... Some of the satellites are in regular orbits Satellites of Uranus (nearly circular, orbiting in the same direction that the planet spins, and near the planet’s equator) which probably formed along with the planet. ...
... Some of the satellites are in regular orbits Satellites of Uranus (nearly circular, orbiting in the same direction that the planet spins, and near the planet’s equator) which probably formed along with the planet. ...
Triton (moon)
Triton is the largest natural satellite of the planet Neptune. It was discovered on October 10, 1846, by English astronomer William Lassell. It is the only large moon in the Solar System with a retrograde orbit, an orbit in the opposite direction to its planet's rotation. At 2,700 kilometres (1,700 mi) in diameter, it is the seventh-largest moon in the Solar System. Because of its retrograde orbit and composition similar to Pluto's, Triton is thought to have been a dwarf planet captured from the Kuiper belt. Triton has a surface of mostly frozen nitrogen, a mostly water-ice crust, an icy mantle and a substantial core of rock and metal. The core makes up two-thirds of its total mass. Triton has a mean density of 2.061 grams per cubic centimetre (0.0745 lb/cu in) and is composed of approximately 15–35% water ice.Triton is one of the few moons in the Solar System known to be geologically active. As a consequence, its surface is relatively young, with a complex geological history revealed in intricate cryovolcanic and tectonic terrains. Part of its crust is dotted with geysers thought to erupt nitrogen. Triton has a tenuous nitrogen atmosphere less than 1/70,000 the pressure of Earth's atmosphere at sea level.