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en.wikipedia.org...
A magnetosphere is formed when a stream of charged particles, such as the solar wind, interacts with and is deflected by the intrinsic magnetic field of a planet or similar body. Earth is surrounded by a magnetosphere, as are the other planets with intrinsic magnetic fields: Mercury, Jupiter, Saturn, Uranus, and Neptune. Jupiter's moon Ganymede has a small magnetosphere — but it is situated entirely within the magnetosphere of Jupiter, leading to complex interactions. The ionospheres of weakly magnetized planets such as Venus and Mars set up currents that partially deflect the solar wind flow, but do not have magnetospheres, per se.
Originally posted by WeekendWarrior
reply to post by 1beerplease
The reason Phage changed hes mind was clearly interaction with this guy (Joseph B. Gurman. Facility Scientist, Solar Data Analysis Center. NASA Goddard Space Flight Center Code 671.1. Greenbelt, MD 20771.), as he stated in his post!
Ring the bells anyone?
Originally posted by opnmind
Made another GIF:
How come it makes a jump from 17:18:01 to 23:18:01 - where are the missing frames?edit on 28-12-2011 by opnmind because: (no reason given)
Originally posted by Pimander
Originally posted by phantomjack
I don't think there has ever been a time when Venus was NOT brighter than Saturn.
As you can see, the brightness of Venus varies depending on it's phase. Venus does not, therefore, always look brighter than Saturn.
Originally posted by phantomjack
Well, what ever it was, you probably won't see it now anyway. It was a sudden event, and the light from Venus is only what, 8 minutes away or so?
If you study the diagram above, you can clearly see that the distance between Earth and Venus changes quite a lot over time. This is why the time taken for light to reach Earth from Venus also varies between (very roughly) 2 and 12 minutes.
Originally posted by phantomjack
Dude, not sure where you went to school, but you were educated badly.
Do some homework LINK
So who needs educating? Learn some manners.edit on 28/12/11 by Pimander because: (no reason given)edit on 28/12/11 by Pimander because: (no reason given)
Table of notable celestial objects
Apparent visual magnitudes of known celestial objects
App. Mag. (V) Celestial object
–38.00 Rigel as seen from 1 astronomical unit. It is seen as a large very bright bluish scorching ball of 35° apparent diameter.
–30.30 Sirius as seen from 1 astronomical unit
–29.30 Sun as seen from Mercury at perihelion
–27.40 Sun as seen from Venus at perihelion
–26.74 Sun[5] (398,359 times brighter than mean full moon)
–25.60 Sun as seen from Mars at aphelion
–23.00 Sun as seen from Jupiter at aphelion
–21.70 Sun as seen from Saturn at aphelion
–20.20 Sun as seen from Uranus at aphelion
–19.30 Sun as seen from Neptune
–18.20 Sun as seen from Pluto at aphelion
–16.70 Sun as seen from Eris at aphelion
–12.92 Maximum brightness of full Moon (mean is –12.74)[4]
–11.20 Sun as seen from Sedna at aphelion
–10 Comet Ikeya–Seki (1965) which was the brightest Kreutz Sungrazer of modern times[6]
–9.50 Maximum brightness of an Iridium (satellite) flare
–7.50 The SN 1006 supernova of AD 1006, the brightest stellar event in recorded history[7]
–6.50 The total integrated magnitude of the night sky as seen from Earth
–6.00 The Crab Supernova (SN 1054) of AD 1054 (6500 light years away)[8]
–5.9 International Space Station (when the ISS is at its perigee and fully lit by the Sun)[9]
–4.89 Maximum brightness of Venus[10] when illuminated as a crescent
–4.00 Faintest objects observable during the day with naked eye when Sun is high
–3.99 Maximum brightness of Epsilon Canis Majoris, the brightest star of the last and next five million years
–3.82 Minimum brightness of Venus when it is on the far side of the Sun
–2.94 Maximum brightness of Jupiter[11]
–2.91 Maximum brightness of Mars[12]
–2.50 Faintest objects visible during the day with naked eye when Sun is less than 10° above the horizon
–2.50 Minimum brightness of new Moon
–2.45 Maximum brightness of Mercury at superior conjunction (unlike Venus, Mercury is at its brightest when on the far side of the Sun, the reason being their different phase curves)
–1.61 Minimum brightness of Jupiter
–1.47 Brightest star (except for the Sun) at visible wavelengths: Sirius[13]
–0.83 Eta Carinae apparent brightness as a supernova impostor in April 1843
–0.72 Second-brightest star: Canopus[14]
–0.49 Maximum brightness of Saturn at opposition and when the rings are full open (2003, 2018)
–0.27 The total magnitude for the Alpha Centauri AB star system. (Third-brightest star to the naked eye)
–0.04 Fourth-brightest star to the naked eye Arcturus[15]
−0.01 Fourth-brightest individual star visible telescopically in the sky Alpha Centauri A
+0.03 Vega, which was originally chosen as a definition of the zero point[16]
+0.50 Sun as seen from Alpha Centauri
1.47 Minimum brightness of Saturn
1.84 Minimum brightness of Mars
3.03 The SN 1987A supernova in the Large Magellanic Cloud 160,000 light-years away.
3 to 4 Faintest stars visible in an urban neighborhood with naked eye
3.44 The well known Andromeda Galaxy (M31)[17]
4.38 Maximum brightness of Ganymede[18] (moon of Jupiter and the largest moon in the Solar System)
4.50 M41, an open cluster that may have been seen by Aristotle[19]
5.14 Maximum brightness of brightest asteroid Vesta
5.32 Maximum brightness of Uranus[20]
5.72 The spiral galaxy M33, which is used as a test for naked eye seeing under dark skies[21][22]
5.73 Minimum brightness of Mercury
5.8 Peak visual magnitude of gamma ray burst GRB 080319B (the "Clarke Event") seen on Earth on March 19, 2008 from a distance of 7.5 gigalight-years.
5.95 Minimum brightness of Uranus
6.40 Maximum brightness of asteroid Pallas
6.50 Approximate limit of stars observed by a mean naked eye observer under very good conditions. There are about 9,500 stars visible to mag 6.5.[23]
6.73 Maximum brightness of dwarf planet Ceres in the asteroid belt
6.75 Maximum brightness of asteroid Iris
6.90 The spiral galaxy M81 is an extreme naked eye target that pushes human eyesight and the Bortle Dark-Sky Scale to the limit[24]
7 to 8 Extreme naked eye limit with class 1 Bortle Dark-Sky Scale, the darkest skies available on Earth[25]
7.78 Maximum brightness of Neptune[26]
8.02 Minimum brightness of Neptune
8.10 Maximum brightness of Titan (largest moon of Saturn),[27][28] mean opposition magnitude 8.4[29]
9.01 Maximum brightness of asteroid 10 Hygiea[30]
9.50 Faintest objects visible using common 7x50 binoculars under typical conditions[31]
10.20 Maximum brightness of Iapetus[28] (brightest when west of Saturn and takes 40 days to switch sides)
12.91 Brightest quasar 3C 273 (luminosity distance of 2.4 giga-light years)
13.42 Maximum brightness of Triton[29]
13.65 Maximum brightness of Pluto[32] (725 times fainter than magnitude 6.5 naked eye skies)
15.40 Maximum brightness of centaur Chiron[33]
15.55 Maximum brightness of Charon (the large moon of Pluto)
16.80 Current opposition brightness of Makemake[34]
17.27 Current opposition brightness of Haumea[35]
18.70 Current opposition brightness of Eris
20.70 Callirrhoe (small ~8 km satellite of Jupiter)[29]
22.00 Approximate limiting magnitude of a 24" Ritchey-Chrétien telescope with 30 minutes of stacked images (6 subframes at 300s each) using a CCD detector[36]
22.91 Maximum brightness of Pluto's moon Hydra
23.38 Maximum brightness of Pluto's moon Nix
24.80 Amateur picture with greatest magnitude: quasar CFHQS J1641 +3755[37][38]
25.00 Fenrir (small ~4 km satellite of Saturn)[39]
27.00 Faintest objects observable in visible light with 8m ground-based telescopes
28.00 Jupiter if it were located 5000AU from the Sun[40]
28.20 Halley's Comet in 2003 when it was 28AU from the Sun[41]
31.50 Faintest objects observable in visible light with Hubble Space Telescope
35.00 Sedna at aphelion (900 AU)
35.00 LBV 1806-20 is a luminous blue variable star at visible wavelengths
36.00 Faintest objects observable in visible light with E-ELT
Originally posted by maceov
reply to post by Bcs8484
Wonderful find, but the last two pictures in particular look like they "might" be a HUMONGOUS Mother Ship leaving Venus' atmosphere.
Originally posted by Phage
Now that is interesting.
I don't often comment to say "Huh?" but that's what I'm doing now. No idea what it is. We may have to wait for the science quality data to be downloaded to get a better idea of what we're looking at. That will be sometime today.
I've asked Joseph Gurman at (Solar Data Analysis Center) to have a look.
Originally posted by AnotherSon
On December 5th I ran into this guys video on YouTube. He captured the phenomena and does a pretty good job at showing the Moon and Jupiter in the sky then Venus and its strange star-like behavior. Venus phenomena begins at 5:50 into the video.
Originally posted by phantomjack
Originally posted by Ophiuchus 13
Originally posted by Destinyone
Originally posted by Phage
Now that is interesting.
I don't often comment to say "Huh?" but that's what I'm doing now. No idea what it is. We may have to wait for the science quality data to be downloaded to get a better idea of what we're looking at. That will be sometime today.
I've asked Joseph Gurman at (Solar Data Analysis Center) to have a look.
The world as we know it has truly ended....when Phage doesn't know...we're doomed
Phage, of all folks, I was sure you would come here and settle us all down.
TY for asking your friend....
lol Thanks Phage I was waiting for your response aswell. Seems Venus waved hello or has been charged up a lil bit more. Can enough charge cause objects to move from their once stationed locations. My 1 cents, excellent find OP..
I am assuming that by using the word "charged up" you mean to imply that the light you see from Venus is some sort of self-generated energy?
Planets reflect light. They have nothing about them that generates any type of light themselves. So, not sure what you mean by "Charged up"
What we see here on the A & B is reflected light.
Originally posted by ngchunter
Originally posted by AnotherSon
On December 5th I ran into this guys video on YouTube. He captured the phenomena and does a pretty good job at showing the Moon and Jupiter in the sky then Venus and its strange star-like behavior. Venus phenomena begins at 5:50 into the video.
Bad seeing made far worse intermittently by the plume from the chimney you see towards the end of the video.
Originally posted by supamoto
reply to post by ngchunter
I agree. Lens flare. Blatantly obvious from this vids.
Thanks ngchunter for the enlightenment.