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ORBITAL PRECESSION

  • Orbital precession
  • Topics referred to by the same term

    mechanics, orbital precession may refer to: Apsidal precession, where the major axis of an elliptical orbit cycles its orientation within its orbital plane

    Orbital precession

    Orbital_precession

  • Apsidal precession
  • Rotation of a celestial body's orbital line of apsides

    main orbital elements of an orbit. Apsidal precession is considered positive when the orbit's axis rotates in the same direction as the orbital motion

    Apsidal precession

    Apsidal precession

    Apsidal_precession

  • Nodal precession
  • Rotation of a satellite as it orbits

    Nodal precession is the precession of the orbital plane (more specifically, the line of nodes) of a satellite around the rotational axis of an astronomical

    Nodal precession

    Nodal_precession

  • Precession
  • Periodic change in the direction of a rotation axis

    or orbital parameters. An important example is the steady change in the orientation of the axis of rotation of the Earth, known as the precession of the

    Precession

    Precession

    Precession

  • Axial precession
  • Change of rotational axis in an astronomical body

    In the absence of precession, the astronomical body's orbit would show axial parallelism. In particular, Earth's axial precession is the gradual shift

    Axial precession

    Axial precession

    Axial_precession

  • Lunar precession
  • Changes in the moon's rotation and orbit

    normal rules of precession followed by spinning objects. In addition, the orbit of the Moon undergoes two further types of precessional motion: apsidal

    Lunar precession

    Lunar precession

    Lunar_precession

  • Sun-synchronous orbit
  • Type of geocentric orbit

    surface. Even if an orbit remains Sun-synchronous, however, other orbital parameters such as argument of periapsis and the orbital eccentricity evolve

    Sun-synchronous orbit

    Sun-synchronous orbit

    Sun-synchronous_orbit

  • Tests of general relativity
  • general relativity, this remaining precession, or change of orientation of the orbital ellipse within its orbital plane, is explained by gravitation being

    Tests of general relativity

    Tests_of_general_relativity

  • Orbit of the Moon
  • The Moon's circuit around Earth

    the orbit is not fixed in space but rotates over time. This orbital precession is called apsidal precession and is the rotation of the Moon's orbit within

    Orbit of the Moon

    Orbit of the Moon

    Orbit_of_the_Moon

  • Newton's theorem of revolving orbits
  • Theorem in classical mechanics

    applied his theorem to understanding the overall rotation of orbits (apsidal precession, Figure 3) that is observed for the Moon and planets. The term

    Newton's theorem of revolving orbits

    Newton's theorem of revolving orbits

    Newton's_theorem_of_revolving_orbits

  • Milankovitch cycles
  • Global climate cycles

    changes (axial precession), while the Earth's elliptical orbit around the Sun rotates (apsidal precession). The combined effect of precession with eccentricity

    Milankovitch cycles

    Milankovitch cycles

    Milankovitch_cycles

  • Orbital eccentricity
  • Amount by which an orbit deviates from a perfect circle

    astrodynamics, the orbital eccentricity of an astronomical object is a dimensionless parameter that determines the amount by which its orbit around another

    Orbital eccentricity

    Orbital eccentricity

    Orbital_eccentricity

  • Orbit
  • Curved path of an object around a point

    bodies (as with the precession of Mercury's orbit about the Sun), or when extreme precision is needed (as with calculations of the orbital elements and time

    Orbit

    Orbit

    Orbit

  • Two-body problem in general relativity
  • Verrier discovered that the orbital precession of the planet Mercury was not quite what it should be; the ellipse of its orbit was rotating (precessing)

    Two-body problem in general relativity

    Two-body_problem_in_general_relativity

  • Orbital inclination
  • Angle between a reference plane and the plane of an orbit

    distance maintain an almost constant orbital inclination with respect to the planet's equator (with an orbital precession mostly due to the tidal influence

    Orbital inclination

    Orbital inclination

    Orbital_inclination

  • Orbital period
  • Time an astronomical object takes to complete one orbit around another object

    reciprocal is the orbital frequency, a kind of revolution frequency, in units of hertz. According to Kepler's Third Law, the orbital period T of two point

    Orbital period

    Orbital_period

  • Precession (disambiguation)
  • Topics referred to by the same term

    the rotation of the orbit of a celestial body Nodal precession, the precession of the orbital plane of a satellite around the rotational axis of an

    Precession (disambiguation)

    Precession_(disambiguation)

  • Lense–Thirring precession
  • Precession of a gyroscope due to a nearby celestial body's rotation affecting spacetime

    As Juno is a polar-orbit mission, it will be possible to measure the orbital frame-dragging, known also as Lense–Thirring precession, caused by the angular

    Lense–Thirring precession

    Lense–Thirring_precession

  • Orbital resonance
  • Regular and periodic mutual gravitational influence of orbiting bodies

    mechanics, orbital resonance occurs when orbiting bodies exert regular, periodic gravitational influence on each other, usually because their orbital periods

    Orbital resonance

    Orbital resonance

    Orbital_resonance

  • Geodetic effect
  • Precession of satellite orbits due to a celestial body's presence affecting spacetime

    The geodetic effect (also known as geodetic precession, de Sitter precession or de Sitter effect) is a consequence of the curvature of spacetime, predicted

    Geodetic effect

    Geodetic effect

    Geodetic_effect

  • Thomas precession
  • Relativistic correction

    In physics, the Thomas precession, named after Llewellyn Thomas, is a relativistic correction that applies to the spin of an elementary particle or the

    Thomas precession

    Thomas precession

    Thomas_precession

  • Axial tilt
  • Angle between the rotational axis and orbital axis of a body

    and its orbital axis, which is the line perpendicular to its orbital plane; equivalently, it is the angle between its equatorial plane and orbital plane

    Axial tilt

    Axial tilt

    Axial_tilt

  • Larmor precession
  • Movement of an object's magnetic moment axis about a magnetic field

    In physics, Larmor precession (named after Joseph Larmor) is the precession of the magnetic moment of an object about an external magnetic field. The phenomenon

    Larmor precession

    Larmor_precession

  • Mercury (planet)
  • First planet from the Sun

    angular orbital velocity equals its angular rotational velocity so that the Sun's apparent motion ceases; closer to perihelion, Mercury's angular orbital velocity

    Mercury (planet)

    Mercury (planet)

    Mercury_(planet)

  • Pluto
  • Largest dwarf planet in the Solar System

    orbit (such as its orbital precession) over millions of years so that a collision could happen. However, Pluto is also protected by its 2:3 orbital resonance

    Pluto

    Pluto

    Pluto

  • Earth's orbit
  • Trajectory of Earth around the Sun

    center of the orbit is relatively close to the center of the Sun (relative to the size of the orbit). As seen from Earth, the planet's orbital prograde motion

    Earth's orbit

    Earth's orbit

    Earth's_orbit

  • Equatorial bulge
  • Outward bulge around a planet's equator due to its rotation

    being spherically symmetrical also affects the orbits of satellites through secular orbital precessions. They depend on the orientation of the Earth's

    Equatorial bulge

    Equatorial bulge

    Equatorial_bulge

  • In-orbit fragmentation
  • Event causing release of space debris

    orbital decay, with decay rates strongly dependent on area-to-mass ratio and altitude, while J2-driven secular effects induce differential precession

    In-orbit fragmentation

    In-orbit fragmentation

    In-orbit_fragmentation

  • Astrochronology
  • Dating of sedimentary units by calibration with astronomically tuned timescales

    allows the resolution of timescales to a high degree of accuracy. If orbital precession cycles are identified, the dating error can be as low as 21,000 years

    Astrochronology

    Astrochronology

  • Frame-dragging
  • Effect of general relativity

    Institute 16 April 2020. By comparing the rate of orbital precession of two stars on different orbits, it is possible in principle to test the no-hair

    Frame-dragging

    Frame-dragging

  • Schwarzschild geodesics
  • Paths of particles in the Schwarzschild solution to Einstein's field equations

    sphere. The orbital precession rate may be derived using this radial effective potential V. A small radial deviation from a circular orbit of radius router

    Schwarzschild geodesics

    Schwarzschild_geodesics

  • Uranus XXVIII
  • Inner moon of Uranus

    local Laplace plane is the plane containing the satellite's nodal orbital precession. For regular moons of Uranus, their Laplace planes are usually closely

    Uranus XXVIII

    Uranus XXVIII

    Uranus_XXVIII

  • Sidereal year
  • Time taken by the Earth to orbit the Sun once with respect to the fixed stars

    sidus 'asterism, star'), also called a sidereal orbital period, is the time that Earth or another planetary body takes to orbit the Sun once with respect to the fixed

    Sidereal year

    Sidereal_year

  • Polar orbit
  • Satellite orbit with high inclination

    orbit inclined at a slight angle is subject to a torque, which causes precession. An angle of about 8° from the pole produces the desired precession in

    Polar orbit

    Polar orbit

    Polar_orbit

  • Orbital pole
  • Celestial coordinate system

    An orbital pole is either point at the ends of the orbital normal, an imaginary line segment that runs through a focus of an orbit (of a revolving body

    Orbital pole

    Orbital pole

    Orbital_pole

  • Zodiac
  • Area of the sky divided into twelve signs

    2nd century BC, as well as into developing the Hindu zodiac. Due to the precession of the equinoxes, the time of year that the Sun is in a given constellation

    Zodiac

    Zodiac

    Zodiac

  • TOI-1338 b
  • Circumbinary exoplanet orbiting TOI-1338

    Earth's perspective, showing how the orbit angle of TOI-1338 b slowly changes over time due to nodal orbital precession. The physical appearance of TOI-1338

    TOI-1338 b

    TOI-1338 b

    TOI-1338_b

  • Iapetus (moon)
  • Moon of Saturn

    satellite. Regular satellites, which are closer to the planet, have their orbital precession primarily controlled by the equatorial bulge of their primary planet

    Iapetus (moon)

    Iapetus (moon)

    Iapetus_(moon)

  • Proper orbital elements
  • Mathematical constants describing an orbit

    The proper orbital elements or proper elements of an orbit are constants of motion of an object in space that remain practically unchanged over an astronomically

    Proper orbital elements

    Proper orbital elements

    Proper_orbital_elements

  • Kallichore (moon)
  • Moon of Jupiter

    of the orbits of irregular moons like Kallichore. On average, Kallichore has an orbital period of about 714 days (1.95 years) with an orbital eccentricity

    Kallichore (moon)

    Kallichore (moon)

    Kallichore_(moon)

  • Geostationary orbit
  • Circular orbit above Earth's Equator and following the direction of Earth's rotation

    the Earth at its poles causes a precession motion of the orbital plane of any geostationary object, with an orbital period of about 53 years and an initial

    Geostationary orbit

    Geostationary orbit

    Geostationary_orbit

  • Lunar node
  • Intersection of Moon's orbit with Earth's ecliptic

    node is either of the two orbital nodes of the Moon; that is, the two points at which the orbit of the Moon intersects the orbit of Earth (the ecliptic)

    Lunar node

    Lunar node

    Lunar_node

  • North African climate cycles
  • Cyclic climate pattern

    insolation because of slow shifts in Earth's orbital parameters. The parameters include the precession of the equinoxes, obliquity, and eccentricity

    North African climate cycles

    North_African_climate_cycles

  • Middle Pleistocene
  • Stage of the Pleistocene Epoch

    a marsh. Eastern Africa's hydroclimate was governed primarily by orbital precession, although modulated significantly by the 100 kyr eccentricity cycle

    Middle Pleistocene

    Middle Pleistocene

    Middle_Pleistocene

  • S/2023 U 1
  • Irregular moon of Uranus

    96 million mi; 0.0533 AU), with an average orbital period of 1.86 years (681 d). S/2023 U 1 has an average orbital eccentricity of 0.25 and an average inclination

    S/2023 U 1

    S/2023_U_1

  • Io (moon)
  • Innermost Galilean moon of Jupiter

    closer encounters with Jupiter's Galilean satellites due to Juno's orbital precession. After a series of increasingly closer encounters with Io in 2022

    Io (moon)

    Io (moon)

    Io_(moon)

  • Innermost stable circular orbit
  • Smallest stable circular orbit of a particle

    practical terms in artificial satellite orbits; in geostationary orbit at 35,786 kilometres (22,236 mi) the orbital speed is 10,800 kilometres per hour (6

    Innermost stable circular orbit

    Innermost_stable_circular_orbit

  • Sidereal time
  • Timekeeping system on Earth relative to the celestial sphere

    the plane of Earth's orbit, taking about 25,800 years to perform a complete rotation. This phenomenon is termed the precession of the equinoxes. Because

    Sidereal time

    Sidereal time

    Sidereal_time

  • Year
  • Unit of time based on Earth's orbit

    axial precession is not constant. The anomalistic year is the time taken for the Earth to complete one revolution with respect to its apsides. The orbit of

    Year

    Year

    Year

  • Orbital mechanics
  • Field of classical mechanics concerned with the motion of spacecraft

    planets, moons, and comets. Orbital mechanics focuses on spacecraft trajectories, including orbital maneuvers, orbital plane changes, and interplanetary

    Orbital mechanics

    Orbital mechanics

    Orbital_mechanics

  • Jupiter
  • Fifth planet from the Sun

    completes an orbit every 11.86 years. This is approximately two-fifths the orbital period of Saturn, forming a near orbital resonance. The orbital plane of

    Jupiter

    Jupiter

    Jupiter

  • Desertification
  • Process by which fertile areas of land become increasingly arid

    now located is due to natural variations in solar insolation due to orbital precession of the Earth. Such variations influence the strength of the West African

    Desertification

    Desertification

    Desertification

  • Moon of 38628 Huya
  • mutual orbit of the Huya system is relatively tight. The moon's orbit is nearly circular, with a low orbital eccentricity of 0.036. The moon's orbital inclination

    Moon of 38628 Huya

    Moon of 38628 Huya

    Moon_of_38628_Huya

  • S/2002 N 5
  • Irregular moon of Neptune

    5 million mi; 0.156 AU), with an average orbital period of 8.6 Earth years. S/2002 N 5 has an average orbital eccentricity of 0.43 and an average inclination

    S/2002 N 5

    S/2002 N 5

    S/2002_N_5

  • 2024 YR4
  • Risk-listed near-Earth asteroid

    orbital resonances, such as the 3:1 mean-motion resonance with Jupiter's orbital period at 2.5 AU and the ν6 secular resonance with Saturn's orbital precession

    2024 YR4

    2024 YR4

    2024_YR4

  • Ecliptic
  • Apparent path of the Sun on the celestial sphere

    ecliptic because their orbital planes are very close to Earth's. The Moon also appears near the plane, with the Moon's orbital plane inclined only 5.1°

    Ecliptic

    Ecliptic

    Ecliptic

  • Peter Goldreich
  • American astrophysicist (born 1939)

    distance maintain an almost constant orbital inclination with respect to the planet's equator (with an orbital precession mostly due to the tidal influence

    Peter Goldreich

    Peter Goldreich

    Peter_Goldreich

  • Orbital state vectors
  • Cartesian vectors of position and velocity of an orbiting body in space

    In astrodynamics and celestial dynamics, the orbital state vectors (sometimes state vectors) of an orbit are Cartesian vectors of position ( r {\displaystyle

    Orbital state vectors

    Orbital state vectors

    Orbital_state_vectors

  • Ceres (dwarf planet)
  • Dwarf planet in the asteroid belt

    identified. Ceres is close to a 1:1 mean-motion orbital resonance with Pallas (their proper orbital periods differ by 0.2%), but not close enough to

    Ceres (dwarf planet)

    Ceres (dwarf planet)

    Ceres_(dwarf_planet)

  • Apsis
  • Either of two extreme points in a celestial object's orbit

    dates of perihelion and aphelion change over a century due to precession and other orbital factors, which follow cyclical patterns known as Milankovitch

    Apsis

    Apsis

    Apsis

  • 44 Nysa
  • Main-belt asteroid

    about proper orbital elements, go to the "Proper Elements" tab and then click "[Help]" at the upper right corner. The synthetic proper orbital elements shown

    44 Nysa

    44 Nysa

    44_Nysa

  • 52246 Donaldjohanson
  • Main-belt asteroid

    majority of Erigone family members, Donaldjohanson's orbit is not influenced by any meaningfully strong orbital resonances with another planet. However, its high

    52246 Donaldjohanson

    52246 Donaldjohanson

    52246_Donaldjohanson

  • Saturn
  • Sixth planet from the Sun

    less than a third of its mass. Saturn orbits the Sun at a distance of 9.59 AU (1,434 million km), with an orbital period of 29.45 years. Saturn's interior

    Saturn

    Saturn

    Saturn

  • Libration
  • Apparent oscillation of a minor body seen from the major body it orbits

    ecliptic matches the ascending node of the orbit plane. In addition to uniform rotation and uniform precession of the equator plane, the Moon has small

    Libration

    Libration

    Libration

  • Hirnantian glaciation
  • Glaciation 460 million to 430 million years ago

    from the sun, and orbital eccentricity such that the orbit of the earth is more elongated which would enhance the effect of precession. Coupled models have

    Hirnantian glaciation

    Hirnantian_glaciation

  • Frozen orbit
  • Orbit in which natural drifting has been minimized

    the orbital period. Such an orbit is then perfectly periodic (except for the orbital plane precession) and it is therefore called a "frozen orbit". These

    Frozen orbit

    Frozen_orbit

  • Spin–orbit interaction
  • Relativistic interaction in quantum physics

    atom. Thomas precession rate Ω T {\displaystyle {\boldsymbol {\Omega }}_{\text{T}}} is related to the angular frequency of the orbital motion ω {\displaystyle

    Spin–orbit interaction

    Spin–orbit_interaction

  • Cassini's laws
  • Description of the moon's motion

    loops on the unit sphere that rotates at the speed of the orbital precession (so that the orbit normal and the normal to the Laplace plane are fixed points

    Cassini's laws

    Cassini's_laws

  • Retrograde and prograde motion
  • Relative directions of orbit or rotation

    central object (right figure). It may also describe other motions such as precession or nutation of an object's rotational axis. Prograde or direct motion

    Retrograde and prograde motion

    Retrograde and prograde motion

    Retrograde_and_prograde_motion

  • Foucault pendulum
  • Device to demonstrate Earth's rotation

    due to Earth's rotation. The precession rate of the pendulum's oscillation plane depends on latitude. The angular precession rate Ω p {\displaystyle \Omega

    Foucault pendulum

    Foucault pendulum

    Foucault_pendulum

  • 100,000-year problem
  • Discrepancy between past temperatures and the amount of incoming solar radiation

    years, related to Earth's orbital eccentricity, its contribution to variation in insolation is much smaller than those of precession and obliquity. The 100

    100,000-year problem

    100,000-year problem

    100,000-year_problem

  • Polaris
  • Northern pole-star; brightest star in Ursa Minor

    longer orbital period and a large eccentricity of around 0.6. Moore published preliminary orbital elements of the system in 1929, giving an orbital period

    Polaris

    Polaris

    Polaris

  • Lunar month
  • Time between successive new moons

    Michelle; Francou, George (2002). "A new determination of lunar orbital parameters, precession constant and tidal acceleration from LLR measurements". Astronomy

    Lunar month

    Lunar month

    Lunar_month

  • Tidal locking
  • Situation in which an astronomical object's orbital period matches its rotational period

    include non-synchronous orbital resonances in which there is no further transfer of angular momentum over the course of one orbit. In Mercury's case, the

    Tidal locking

    Tidal locking

    Tidal_locking

  • Secular resonance
  • A secular resonance is a type of orbital resonance between two bodies with synchronized precessional frequencies. In celestial mechanics, secular refers

    Secular resonance

    Secular_resonance

  • Orbital station-keeping
  • Maintenance of a particular orbit

    and Moon will in general perturb the orbital plane. For a Sun-synchronous orbit, the precession of the orbital plane caused by the oblateness of the

    Orbital station-keeping

    Orbital_station-keeping

  • S/2021 N 1
  • Outermost moon of Neptune

    5 million mi; 0.339 AU), with an average orbital period of 27.5 Earth years. S/2021 N 1 has an average orbital eccentricity of 0.50 and an average inclination

    S/2021 N 1

    S/2021 N 1

    S/2021_N_1

  • Space debris
  • Pollution around Earth by defunct artificial objects

    second-stage in an elliptical geocentric orbit with a low-perigee, thus ensuring rapid orbital decay and avoiding long-term orbital debris from spent rocket bodies

    Space debris

    Space debris

    Space_debris

  • Laplace plane
  • satellite orbit's precession. In effect, this is the plane normal to the orbital precession pole of the satellite. It is a kind of "average orbital plane"

    Laplace plane

    Laplace_plane

  • Rosetta orbit
  • Complex type of orbit

    A Rosetta orbit is a complex type of orbit. In astronomy, a Rosetta orbit occurs when there is a periastron shift during each orbital cycle. A retrograde

    Rosetta orbit

    Rosetta orbit

    Rosetta_orbit

  • Gyroscope
  • Device for measuring or maintaining orientation

    used to demonstrate the principle. A simple case of precession, also known as steady precession, can be described by the following relation to a moment[which

    Gyroscope

    Gyroscope

    Gyroscope

  • Rotation
  • Movement of an object which leaves at least one point unchanged

    velocity (spin angular velocity and orbital angular velocity) and angular momentum (spin angular momentum and orbital angular momentum). Mathematically

    Rotation

    Rotation

    Rotation

  • Lunar standstill
  • Moon stops moving north or south

    direction of Earth's axis and to the rotation of the Moon's orbital nodes (lunar nodal precession) once every 18.6 years. The standstill position does not

    Lunar standstill

    Lunar standstill

    Lunar_standstill

  • Celestial mechanics
  • Branch of astronomy

    planets, moons, and comets. Orbital mechanics focuses on spacecraft trajectories, including orbital maneuvers, orbital plane changes, and interplanetary

    Celestial mechanics

    Celestial_mechanics

  • Margaret (moon)
  • Irregular moon of Uranus

    orbit cannot accurately describe their long-term orbital motions. Instead, proper or mean orbital elements are used to describe the long-term orbits of

    Margaret (moon)

    Margaret (moon)

    Margaret_(moon)

  • Psamathe (moon)
  • Irregular moon of Neptune

    than its nodal precession period, which causes its longitude of pericenter (ϖ) to precess in the opposite direction from its orbital motion. This behavior

    Psamathe (moon)

    Psamathe (moon)

    Psamathe_(moon)

  • Glossary of astronomy
  • direction of the orbiting object and a specified plane of reference. orbital mechanics orbital node One of two points at which the plane of an orbit intersects

    Glossary of astronomy

    Glossary_of_astronomy

  • Kore (moon)
  • Moon of Jupiter

    irregular moons like Kore. On average, Kore has an orbital period of about 769 days (2.11 years) with an orbital eccentricity of 0.338 and an inclination of

    Kore (moon)

    Kore (moon)

    Kore_(moon)

  • Landau–Lifshitz–Gilbert equation
  • Description of the dynamics of magnetization in a solid

    used for a differential equation describing the dynamics (typically the precessional motion) of magnetization M in a solid. It is a modified version by Gilbert

    Landau–Lifshitz–Gilbert equation

    Landau–Lifshitz–Gilbert_equation

  • Space rendezvous
  • Series of orbital maneuvers

    match of the orbital velocities and position vectors of the two spacecraft, allowing them to remain at a constant distance through orbital station-keeping

    Space rendezvous

    Space rendezvous

    Space_rendezvous

  • Exoplanet orbital and physical parameters
  • Nodal precession is rotation of a planet's orbital plane. Nodal precession is more easily seen as distinct from periastron precession when the orbital plane

    Exoplanet orbital and physical parameters

    Exoplanet_orbital_and_physical_parameters

  • Antikythera mechanism
  • Ancient Greek analogue astronomical computer

    extant use of epicyclic gearing. It also tracked the precession of the Moon's elliptical orbit around the ecliptic in an 8.88 year cycle. The mean Sun

    Antikythera mechanism

    Antikythera mechanism

    Antikythera_mechanism

  • Halimede (moon)
  • Irregular moon of Neptune

    orbital resonances, nor does it share orbit similarities with other Neptunian irregular moons. Its orbit exhibits both apsidal and nodal precession with

    Halimede (moon)

    Halimede (moon)

    Halimede_(moon)

  • Maureen Raymo
  • American climate scientist and marine geologist

    ago as due to the out-of-phase response of the polar ice sheets to orbital precession. Raymo has also advanced stratigraphy and dating of the past via oxygen

    Maureen Raymo

    Maureen_Raymo

  • Mediterranean basin
  • Region of lands around the Mediterranean Sea that have a Mediterranean climate

    "Astrochronology for the Messinian Sorbas basin (SE Spain) and orbital (precessional) forcing for evaporite cyclicity" (PDF). Sedimentary Geology. 140

    Mediterranean basin

    Mediterranean_basin

  • Newton's law of universal gravitation
  • Classical statement of gravity as force

    relativity. Newton's theory does not fully explain the precession of the perihelion of the orbits of the planets, especially that of Mercury, which was

    Newton's law of universal gravitation

    Newton's_law_of_universal_gravitation

  • Gliese 876
  • Star in the constellation Aquarius

    found to orbit the star. The planetary system is also notable for the orbital properties of its planets. It is the only known system of orbital companions

    Gliese 876

    Gliese 876

    Gliese_876

  • Longitude of periapsis
  • periapsis ω (measured on orbital plane): ϖ = Ω + ω {\displaystyle \varpi =\Omega +\omega } which are derived from the orbital state vectors. Define the

    Longitude of periapsis

    Longitude of periapsis

    Longitude_of_periapsis

  • Tropical year
  • Period of time for the ecliptic longitude of the Sun to increase 360°

    particular orbital period. Another type is the sidereal year (or sidereal orbital period), which is the time it takes Earth to complete one full orbit around

    Tropical year

    Tropical_year

  • Nereid (moon)
  • Moon of Neptune

    be either in the state of forced precession or even chaotic rotation (like Hyperion) due to its highly elliptical orbit. In 2016, extended observations

    Nereid (moon)

    Nereid (moon)

    Nereid_(moon)

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