If «normal» planets circle other
stars at greater distances, his team's techniques should reveal some of them within several years.
Not exact matches
But Einstein, 105f, sees that the infinite lines of force on any body would result in a field of infinite intensity, which is impossible; hence he argues that Newton had to postulate for his universe «a kind of centre in which the density of the
stars is a maximum, and that as we proceed outwards from this centre the group - density of the
stars would diminish, until finally,
at great distances, it is succeeded by an infinite region of emptiness.»
Is the story of the long -
distance runner eternally running culture's fast track (or
at least until our
star reaches the end of its evolutionary run) in the quest for
greater order and harmony the most adequate one available?
If we now consider the number of the
stars (15,000 x 106 visible to the optical telescope alone) you will understand how it is possible to say, cosmically speaking, that we are enveloped in a sort of monstrous gas formed of molecules as heavy as the Sun moving
at distances from each other so
great that they have to be reckoned in light - years (bearing in mind that light travels
at a speed of 186,000 miles per second, and that we are only 8 light - minutes distant from the sun)-- a gas made of
stars!
The observation provides the first evidence for black holes that does not depend on watching hot gas or
stars swirl around them
at far
greater distances.
This scenario naturally produces a planetary system just like our own: small, rocky planets with thin atmospheres close to the
star, a Jupiter - like gas giant just beyond the snowline, and the other giants getting progressively smaller
at greater distances because they move more slowly through their orbits and take longer to hoover up material.
He deduced them to be
at a
great distance (too far for their individual
stars to be detectable), each of them another entire «universe» like the Milky Way.
But to the astronomers» astonishment, the RR Lyrae
stars do not follow football - shaped orbits, but have large random motions more consistent with their having formed
at a
great distance from the centre of the Milky Way.
A fraction of these lost
stars may still be gravitationally bound to the cluster and surround it
at a
great distance.
In principle, Tanvir says, a bright, well - observed GRB
at great distances could expose the makeup of the intergalactic medium as well as the chemistry of the
star's host galaxy, which would in turn indicate the products of previous generations of
stars.
Boss suggests that these planets actually formed
at much
greater distances from their
stars but then migrated inward.
Current theory holds that giant planets can form only
at comparatively
great distances from a
star, where cold temperatures allow ice and frozen gases to gather together.
A larger sixth planet, closer in mass to Saturn, also appears significantly in the data
at a
greater distance from HD 10180, but the study's authors note that the signal could be caused by a long - term magnetic cycle on the
star rather than the tug of an orbiting planet.
An IMBH
at the cluster's center acts like a cosmic «spoon» and stirs the pot, causing those
stars to slingshot to higher speeds and
greater distances.
It appears to be a main sequence red dwarf
star of spectral and luminosity type M4.5 V. Because of its small mass and great distance from the primary (Star A), Upsilon Andromedae B appears to have a negligible effect on the radial velocity measurements used to determine that Star A has at least three large planets (Lowrance et al, 20
star of spectral and luminosity type M4.5 V. Because of its small mass and
great distance from the primary (
Star A), Upsilon Andromedae B appears to have a negligible effect on the radial velocity measurements used to determine that Star A has at least three large planets (Lowrance et al, 20
Star A), Upsilon Andromedae B appears to have a negligible effect on the radial velocity measurements used to determine that
Star A has at least three large planets (Lowrance et al, 20
Star A has
at least three large planets (Lowrance et al, 2002).
Nearly 900 extrasolar planets have been confirmed to date, but now for the first time astronomers think they are seeing compelling evidence for a planet under construction in an unlikely place,
at a
great distance from its diminutive red dwarf
star.
Using the National Science Foundation's Very Large Array (VLA) radio telescope, the scientists found a huge quantity of dense interstellar gas — the environment required for active
star formation —
at the
greatest distance yet detected.
As relatively small planets
at close
distances to their host
stars, astronomers would have
great difficulty in detecting such planets around either
star using present methods.
So far the direct detection has only been able to show giant exoplanets, several times larger than Jupiter and orbiting
at great distances from their
stars.
Models of planetary formation suggest that giant extrasolar planets detected very near their
stars formed
at greater distances and migrated inward as a result of gravitational interactions with remnants of the circumstellar disks from which they accumulated.
Sedna orbits the Sun
at such a
great distance that Sol appears as a bright point like a
star, and some astonomers have designated it as a member of the inner Oort Cloud (more).
(Like Sedna, shown above, 2012 VP113 orbits the Sun
at such a
great distance that Sol appears as a bright point, like a
star (more).
The exoplanet 51 Eri b, whose mass is estimated to be roughly twice that of Jupiter, appears to orbit its host
star at a
distance 13 times
greater than the Earth - Sun
distance.
A large milky - white nebula, on the body of the
Great Bear, with a small
star at its sp [south preceding, SW] apex, and an 8th - magnitude preceding [W] it
at double the
distance; there is also a brightish group in the np [north preceding, NW] quadrant.
It was designed so elderly people with cataracts, even
at night thanks to an optional lighting kit, can see the Mercedes
star shining from
great distances.