Actually you claim the sun is further away than I do.
Which is entirely irrelevant to the discussion at hand.
The issue isn't what the actual distances are, but your claim regarding how these distances effect the sun.
We accept what all the evidence shows, that you can't see the sun at night because Earth blocks it from view.
So distance is not playing a role.
The time we appeal to distance is to point out how the distance to the sun does not vary by any significant amount over the course of a day.
When viewed through a solar filter to remove glare, it appears the same size, just like the moon does. Showing the distance doesn't vary.
How this relates to your claim, is your claim that the sun is magically too far away so it is too faint to be seen.
Even though there are times where it is clearly still bright enough to be seen, and much much much much brighter than the faintest objects we can see; while the bottom appears to be obscured by Earth.
And then when it is just a bit further away, it then magically all too dim to be seen, even though simple extrapolation should result it in remaining quite bright and easily visible.
But the real nail in the coffin is that the light from a source is much brighter than secondary light, i.e. light which has gone from the source to illuminate some object, scattering off that object before going to our eyes.
If that secondary light is bright enough to see, then the direct light from the sun should certainly be bright enough to see.
Again:

Do you understand this?
What you are claiming is like saying there is someone on the other end of an incredibly long (and flat) corridor. They have a torch which is incredibly powerful so at a great distance they shine it towards you and you can see the torch, as well as all the ceiling around you lit up.
But then they take a single step, and suddenly you can no longer see the torch, but can magically still see the ceiling around you lit up.
It makes no sense at all.
Back in reality, what would happen is the ceiling becomes fainter and fainter until you can't see that lit up, while you can still see the torch. (Not the body of the torch, the light from the torch directly to your eyes).
On an average day, I claim that anyone outside perspective is too faint to be seen, and some things are that way before perspective.
No, you don't. You repeatedly switch between contradictory claims or perspective making things too faint and a magical parabola which doesn't work at all.
You claim that ground has hills nobody can see
No, we accept that the ground is roughly spherical, consistent with all observations.
Including importantly the observation being discussed.
This can also be seen with the observations of the horizon being further away and at a lower angle of elevation as you increase in altitude.
Consistent with observations of objects disappearing from the bottom up as they go over the horizon.
Consistent with observations of the sun being above a point on Earth yet casting light upwards to something at a much lower altitude.
And consistent with photos from space clearly showing this round planet.
You object to that with all sorts of delusional BS, including your latest one of wanting to pretend there are a bunch of tiny hills instead of it being a large ball.
that water can bend in ways not seen in even the world's largest swimming pool
No, that it can bend in ways not measured in the world's largest swimming pools.
A standard Olympic size swimming pool is 100 m long.
That means from the centre to either side you would have a dip of roughly 0.8 mm.
That would require quite precise tools to measure.
And your sunlight reflection story depends on a wife's tale that the moon's light is from the sun.
You mean based upon mountains of evidence which demonstrates beyond any sane doubt that the moon is merely reflecting the light from the sun.
This includes the phases of the moon, clearly indicating it is a roughly spherical object, being illuminated by a distant object.
This includes lunar eclipses where Earth blocks the light of the sun reaching the moon, so only light scattered through the atmosphere (making it more red) illuminates it.
This also includes close up observations of craters on the moon, showing shadows consistent with the above.
There is NOTHING to suggest otherwise.
The sun's light is golden colored and stings human eyes. Even reflected off of seven objects
Pure BS.
The sun's light is white. Hence why white objects appear white when illuminated by the sun.
What you are appealing to is the atmosphere, which scatters that light, so light directly from the sun will have a slight yellow colour while the sky elsewhere will have a slight blue colour.
As for reflection, the sun can illuminate a white sheet of paper or a concrete slab, etc, and someone can look directly at that.
It is only if you have specular reflection that it is an issue.
And the moon is clearly not included in that.
What you are saying now is like saying that if I take a white sheet of paper out into the sun, then it isn't illuminated by the sun but instead magically casts its own light.
It is pure BS.
The moon's light on the other hand is silver, can be safely looked at
It is white. Just like a white sheet of paper.
And just like a white sheet of paper, it can be safely looked at.
we don't actually see any rays of sunlight go from on to another when both at out!
Why would we?
"rays of sunlight" are not literal rays of sunlight.
Instead they are regions where the sun is brightly illuminating some dust, while regions around it have something blocking the sun.
I don't see any "rays of light" going from the light in a room to objects being illuminated by it.
So why would expect to see that for the moon?
Some plants in fact bloom in moonlight rather than sunlight.
Really?
So during a quarter moon, they bloom as the moon rises during the day?
And it wont bloom during a new moon?
Or does it just bloom at night, regardless of the moon?
Like a politician, you also dodged the question. How do we actually know there are other planets? (And that's a terrible picture, most of those blobs of color do not look like stars)
The mountains of evidence supporting it, including observations from Earth, and space probes sent to other planets.
most of those blobs of color do not look like stars)
Probably because they are galaxies, not stars.