Actually, no.
Light ray hitting a surface != it will illuminate that surface.
Sure, you will be able to see the source of the ray from the surface it's hitting, but it wont illuminate the surface you are on.
If a light ray strikes a surface, it will illuminate it. That is what "illumination" means.
Making light bendy up and away in a asymptote fashion (as your diagrams suggest) to the ground would make the light travel further out and make them visible from further away.
Are you contradicting your own theory? Or have you since changed how Bendylightlol works?
Bendy light has not changed, although I'm guessing your understanding of it is flawed because your conclusion is wrong. It's hard to tell exactly what you mean when you use phrases like "a asymptote fashion to the ground", though.
Show me where "Bendy Light" is accepted physics. And while you're at it, acknowledge the rest of my post.
I never claimed bendy light to be accepted physics, only that it provides an explanation for a point you raised. Also, I responded to your entire post, since most of it hinged on your misconception of what a light wave is.
How does the FE Sun, act as a spotlight if it is a sphere?
The spherical Sun model with bendy light is an
alternative to the spotlight Sun model. In the model I am discussing, the Sun does not act as a spotlight.
Please bother to read the whole of my post, where I state that the reaction ends when all the fuel is used up. How much fuel is in a hydrogen bomb compared to the mass of the Sun?
Unless you can prove that providing a fusion bomb with a continuous supply of hydrogen would cause the reaction to be sustained, this is still not evidence of a sustainable fusion reaction.
Additionally, most of the explosive energy of a bomb is due to secondary fission which is not what happens in the Sun.
Then, by your own admission, it is not a valid representation of the mechanism which powers the RE Sun. As such, it is not evidence to support the model.
You clearly don't understand the mechanisms which cause explosions and the conditions which must be met for them to happen. If you ignite a big pile of gunpowder, it burns. It doesn't explode. If you fire a shotgun shell, the gunpowder makes an explosion. Learn.
Chemical reactions are very different to nuclear ones. For instance, the rate at which chemical reactions occur is often dependent on the exposed surface area to volume ratio of the reactants, which explains why larger quantities of substances typically react slower. There is no analogue to surface area in the context of nuclear reactions.