Refuted

... yeah, because you say so.  You've refuted absolutely nothing, and your uttering the word doesn't count as a refutation, just like uttering the word "refraction" doesn't magically make all the problems with the globe model disappear, as much as you'd like them to.  Globe model has been refuted by that picture, but your weak mind refuses to let go of worshipping the scientific establishment, which has done nothing but lie for centuries.

UNREFUTED:  According to the prevalent model, by the time the sun's rays reach the earth, they're a fraction of a degree from parallel.  That's the premise of the entire Eratosthenes experiment also.  But NASA has to claim that they suddenly are coming in at angles (illustrating it with a laughable image) to explain the small size of totality.

Your posts on this thread demonstrate your intellectual dishonesty.

A fraction of a degree from parallel is not an angle? A rocky projection extending up a fraction of the distance covered by the ground is still flat?

The rays are emitted radially in all directions. So each ray is emitted at an angle. By the time they reach our earth, by virtue of the distance they have travelled, the angular difference between two rays becomes super microscopic. So for all practical purposes they are considered to be parallel.

Matthew,

This may help you understand what actually happens during an eclipse:

https://www.timeanddate.com/eclipse/shadows.html



Umbra, Penumbra, and Antumbra: Why Are There 3 Shadows?

By Konstantin Bikos
On their journey through space, the Earth and the Moon cast 3 different shadows causing different types of solar and lunar eclipses. Why are there 3 shadows?


Eclipse Type Depends on Shadow Type
If the Moon's shadow falls on Earth, we get to see a solar eclipse; the Earth's shadow falling on the Moon results in a lunar eclipse. However, there are different types of solar and lunar eclipses. A solar eclipse may be total, partial, or annular; a lunar eclipse may be total, partial, or penumbral.
The type of eclipse we experience depends on the type of shadow that is involved. Both the Moon and Earth cast 3 shadows:

• an umbra,
• a penumbra,
• and an antumbra.

The umbra is the shadow's dark center portion, while the penumbra and the antumbra are different types of half-shadows.
Shadow Experiments
To understand why the Earth and the Moon have 3 types of shadows, let's start on a smaller scale. The number and types of shadows created by an opaque object depend on its size in relation to the size of the light source. However, their absolute size is irrelevant, so a basketball illuminated by a large lamp produces the same shadows as the Moon illuminated by the Sun.
So imagine that you are in a windowless room with 1 light source and 1 round object that casts a shadow, say, a basketball. Both the light source and the basketball are at the same height as your head. You are standing on the side of the ball exactly opposite to the light source, facing it, so the order is: light source – basketball – you.


1st Experiment: Umbra Only
Rule: If the light emanates from a punctual light source, the object casts only 1 type of shadow: an umbra.
Let's say the light source is a tiny flashlight pointing into your direction. If you look into the direction of the lamp from behind the basketball, it is entirely invisible as the ball blocks the view and the light rays don't reach you. The ball's shadow is uniform, it only has an umbra.
If you move to the side, the flashlight immediately becomes visible as soon as you leave the shadow.
2nd Experiment: Umbra and Penumbra


A light source with a larger surface area creates 2 shadows.


Rule: If the light source is not punctual but has a larger surface area, a 2nd type of shadow appears around the object's umbra: the penumbra.
Now the light source is a round lamp that is a little smaller in diameter than the basketball. If you line up with the lamp and the ball, no light is visible because you are within the ball's umbra. However, as you move to either side, part of the light source becomes visible. That's the penumbra.
If you move further to the side until you can see all of the lamp's surface, you have left the penumbra.
3rd Experiment: Umbra, Penumbra, and Antumbra


If the diameter of the light source exceeds that of the object, an antumbra appears.

Rule: If the diameter of the light source is larger than the diameter of the object, a 3rd type of shadow appears where the cone-shaped umbra ends: the antumbra.
In this experiment, the light source is another round lamp, but this time it has twice the ball's diameter. Imagine once more that you are looking at the lamp from behind the ball. As long as you are fairly close to it, the ball's apparent size exceeds the lamp's apparent size. You are within the umbra, and the lamp is invisible.
However, as you move away from the ball, its apparent size decreases. At some point, the basketball will appear smaller than the lamp. A ring of light will appear around the ball as the outer rim of the lamp comes into view. You have just entered the basketball's antumbra.
3 Shadows, 6 Types of Eclipses
Our solar system resembles the set-up of the last experiment. The Sun is a very large light source, its diameter exceeding that of both the Earth and the Moon. This means that, on their journey through space, both objects produce all 3 types of shadows.
Depending on which shadow type is involved, we can experience 3 different types of solar eclipses and 3 different types of lunar eclipses on Earth:
Umbra Eclipses
The umbral shadow can produce the following eclipses:

• Total solar eclipse – the Moon's umbra falls on the Earth's surface, and the observer is within the umbra.
• Total lunar eclipse – the Earth's umbra completely covers the Moon.
• Partial lunar eclipse – the Earth's umbra covers only part of the Moon.

Penumbra Eclipses
The penumbral shadow is involved in these eclipses:

• Partial solar eclipse – the Moon's penumbra falls on the Earth's surface, and the observer is within the penumbra.
• Partial lunar eclipse – the Earth's penumbra covers the area of the Moon's visible surface that is not covered by the umbra.
• Penumbral lunar eclipse – the penumbra covers all or part of the Moon, the umbra misses it.

Antumbra Eclipses
The antumbral shadow can only cause 1 type of eclipse:

• Annular solar eclipse – the Moon's antumbra falls on the Earth's surface, and the observer is within the antumbra.

I also find the image where there's a giant boulder on the earth compelling. It looks like what the NASA photos of being on the moon look like but contradict the "luminous" aspect of the moon that we see on earth. If the moon is super luminous from the earth it seems intuitive that the photos NASA shows of the astronaut on the moon would also reflect a brilliant light. It would be really hard to get a photo that didn't look overexposed or something.

You'll notice how all the illustratons rely on the deception of making the sun look 5-10 times larger than the earth, which is not the case given the distances involved.  Then they even have to make the lightbulb super giant sized to pull it off. 

It's ridiculous and it's deception, but the resident dupes fall for anything that NASA and the scientific establishment feed to them.  CAD models completely debunk the nonsense falsely depicted in the NASA cartoons.  Bottom line for these clowns here is that they've already made up their minds beforehand that the modern narrative regarding the cosmos is true and they'll accept anything that they think might even sound remotely plausible as "proof".

Prove it with math.