A Beginner's View of Our Electric Universe - New

Even further down in relation to the thermonuclear star model, this is where we find the so-called ‘failed stars’
but that term has no relevance in the electric model of a star. It is simply the case that these are stars whose
plasmaspheres are not being electrically excited enough to give off a great deal of visible light. In our own solar
system today there are bodies that have a relationship with this idea. Jupiter and Saturn both have enormous
invisible electromagnetic bubbles around them, as do all other bodies in the solar system, plus very relevantly
the solar system itself, but these two gas giants are particularly important because of their possible histories
about which I will say more later.
Taking Jupiter as the example, the electromagnetic bubble that surrounds it, also referred to as Jupiter's
plasmasphere or magnetosphere, is extremely large and currently not visible because it consists of plasma in
dark mode. If the outer surface of that plasmasphere, being Jupiter’s electrical barrier to the rest of space, were
to receive per unit area a much greater current density than it does at the moment, then it would start to glow
and Jupiter would appear to us here on Earth as if it was a much larger brown/red dwarf star. The diameter of
Jupiter's plasmasphere is many times its own diameter, and if we could see this in the night sky it would look
similar in size to the full moon. Incidentally, if this were to happen, then all of Jupiter’s current moons would
orbit inside this glowing bubble, so anyone standing on one of those moons would only see above them a
visually impenetrable purple glow right across the sky; there would be no day or night, no seasons, no stars to
see and the temperature and level of illumination would be very constant. (Associated information [6-9a] [6-9b] )
Here is a contradiction that underlines the relevance of questioning what we are told about stars. There are
classes known as T and L type dwarf stars. Relative to normal stars, these are very cool indeed with estimated
temperatures of between 600 to 1000K. Interestingly, these are temperatures in the same region as areas on
the surface of the planet Venus. Temperatures this low indicate that the thermonuclear fusion process cannot
possibly be occurring inside these bodies. Yet X-rays have been detected coming from similarly cool brown
dwarf stars, where again, the low temperatures involved are fundamentally incapable of initiating the production
of this powerful type of radiation. Straightforward evidence like this that indicates things are not right with the
thermonuclear theory of stars should be all that is needed to drive a more open and inclusive investigation, but
sadly, it does not.
Mainstream astro-science can talk about size, temperature, colour, radiation emissions and behaviours of their
range of star types, but it does not matter, for there seems to be an electrical bottom line to what has traditionally
been interpreted as different types of star. According to the EU model, all stars started as different combinations
and amounts of ionised matter as plasma, being brought together by the EM force then maintained in appearance
as the stars we recognise or as other phenomena by a certain level of current density delivered to them from their
environments. The standard list of star types is misleading and the thermonuclear star theory is wrong. What we
see in space are fundamentally all the same things; concentrated bodies of plasma reacting to different levels of
electrical energy.
102 | The Electric Universe answers I see