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Jupiter’s Large and Diffuse Core
According to measurements taken by NASA’s space craft Juno in the spring of 2017, Jupiter has a large and diffuse core.
This was not expected by NASA’s astronomers. Because they base their predictions on conventional ideas related to planetary formation.
However, Juno’s measurements fit well with our theory that all planets, stars and moons are hollow.
Created while rotating
Most things that are created while rotating are hollow. Because rotation pushes dense matter outwards. So, planets, stars and moons should be at their densest close to their surface.
Even conventional theories regarding planetary formation invoke rotating accretion disks. So, it’s not clear why so many astronomers ignore the obvious.
But conventional thinkers continue to insist that all astronomic objects are solid to their core.
They will even insist that the core is denser than the crust, which is contrary to standard physics. Because there’s no central force to counteract the effect of rotation.
All astronomic bodies above the size of small irregular moons must therefore be hollow.
Juno’s measurements
As it turns out, this is now largely confirmed by NASA.
The space ship Juno measured Jupiter’s core to extend up to half of Jupiter’s 70.000-kilometer radius.
Out of the planet’s total mass, which is 318 times that of Earth, the core was measured to be no more than 7 to 25 Earth masses.
That is 6 to 2 times less than the 40 Earth masses required to make Jupiter’s core as dense as its outer layers.
When combined with the fact that Jupiter has an overall density of 1.326 g/cm3, we find that its core must be substantially less dense than water while it’s outer layer is a good deal denser.
We get an outer layer of mineral rich liquids and gases surrounding a gas filled core. Which makes Jupiter a hollow planet.
This full-disc image of Jupiter was taken on 21 April 2014 with Hubble’s Wide Field Camera 3 (WFC3)
By NASA, ESA, and A. Simon (Goddard Space Flight Center)
http://www.spacetelescope.org/images/heic1410a/ or http://hubblesite.org/newscenter/archive/releases/2014/24/image/b/, Public Domain, https://commons.wikimedia.org/w/index.php?curid=32799232
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[…] seen as proof of this. For example, when NASA measured the density of Jupiter’s core, it was 60-80% less dense than the outer […]
It should be noted that the theory presented on this blog only supports the idea that large astronomic bodies are hollow. No other conclusion can be drawn from it.
The seismological evidence for a hollow Earth is laid out in Jan Lamprecht’s paper, and mainstream theory on gravity similarly supports this conclusion because there’s no gravity at the centre of gravitational bodies. This comes directly from Newton’s shell theorem which has been undisputed for centuries.
It follows that any cavity at the centre of a gravitational body will have no force to close the gap. There will of course be a lot of pressure in the walls around the gap, but pressure is not a force. Pressure cannot close a gap at the centre of a planet. Only gravity can pull matter into the hollow, and there’s no gravity at the centre of our planet.
On the other hand, stars, moons and planets spin on their axis. There’s therefore a constant force pushing heavy material out from the centre. Planets are also known to have earth quakes and volcanic eruptions. There are gas bubbles inside planets, and these are therefore likely to migrate towards the centre as heavy materials migrate out from the centre, all helped by occasional rumblings interior to these planets.
From this, we see that we have both theory and observational data in support of the notion that Earth and other astronomical bodies are hollow.