# The Flat Earth Society

## Flat Earth Discussion Boards => Flat Earth Theory => Topic started by: WTF_Seriously on November 19, 2020, 09:20:02 PM

Title: Fun with 2-D orbital geometry
Post by: WTF_Seriously on November 19, 2020, 09:20:02 PM
The nice thing about FE theory is that it allows what would be a complicated 3-D discussion to be presented in a 2-D world.  2-D is much easier to comprehend and the math is often basic.

I apologize for starting several threads recently discussing the topic of lunar orbital phenomenon.  It's a discussion where "the documentation is fake" is usually of little use.

I created this for another topic:

(https://i.imgur.com/qxIfEE0.png)

The purpose was to illustrate the positions of the sun, moon, north pole, and a viewer on earth at the 1st quarter moon.  These relationships are constant regardless orbital radii of the sun and moon.  They can differ in any way and the 12:00-3:00 relationship will still hold true.  The FE model and 2-D geometry dictate it. The relationship is also the same regardless the viewer's position on earth.  What is also constant is the fact that the sun will lead the moon by a little over 6:12 at this time due to their differing orbital periods.

At the 1st quarter moon at my location on June 28, 2020 solar noon led lunar meridian crossing by 6:40.  At the upcoming 1st quarter moon on Nov. 12, 2020 solar noon will lead lunar meridian crossing by 6:20.  So, not only do the observable times differ from what the geometry dictates they also vary.  I specifically discuss solar noon and meridian crossing as they are the times when the sun and moon are directly south of the viewer so any effects of EA or refraction are negated.

How does FE theory explain these observed differences?
Title: Re: Fun with 2-D orbital geometry
Post by: Tom Bishop on November 19, 2020, 09:27:58 PM
You are comparing two days when the first quarter moon occurred, and when the Moon passed over your meridian on that day. You need to find the exact time the first quarter moon occurred.

The Moon rises 50 minutes later than the Sun every day. A difference of 20 minutes is within error bounds.
Title: Re: Fun with 2-D orbital geometry
Post by: WTF_Seriously on November 19, 2020, 10:22:32 PM
Thank you again for entering discussion, Tom.  You provide me with good insight to FE theory and force me to look at RE theory and discover misconceptions that I hold.

The Moon rises 50 minutes later than the Sun every day.

I don't think this is exactly what you meant to say or I simply misunderstand the statement.  Obviously we've all seen the moon rise at night.  Rising and setting is irrelevant to the discussion anyway.

You are comparing two days when the first quarter moon occurred, and when the Moon passed over your meridian on that day. You need to find the exact time the first quarter moon occurred.

I would need an additional piece of FE information to address this fully.  I think my point is independent of it,  but if I can include it as part of my discussion, I may be able to address your statement more accurately.  In the FE model, what is the longitudinal position of the sun and moon at the new moon?  I would assume 0 degrees but I would prefer your answer.
Title: Re: Fun with 2-D orbital geometry
Post by: WTF_Seriously on November 20, 2020, 05:15:11 AM

I would need an additional piece of FE information to address this fully.  I think my point is independent of it,  but if I can include it as part of my discussion, I may be able to address your statement more accurately.  In the FE model, what is the longitudinal position of the sun and moon at the new moon?  I would assume 0 degrees but I would prefer your answer.

Tom,  as I thought more about how things work in FE theory I realized that this is a difficult question and can't expect you to answer it.  I will compose my thoughts in a separate post.

Edited to add: As I'm on vacation until after the holidays.  I may not have the free time to adequately respond to this until I return to work.  ;D
Title: Re: Fun with 2-D orbital geometry
Post by: WTF_Seriously on November 23, 2020, 10:33:10 PM
I apologize up front as this is rather lengthy

You are comparing two days when the first quarter moon occurred, and when the Moon passed over your meridian on that day. You need to find the exact time the first quarter moon occurred.

OK.  A little time to discuss this.

Tom is correct here.  My original post presented a static view of things when the situation is a dynamic one.  Though the original post was accurate with regards to the static case, the dynamics of the situation must be considered.

The original illustration is correct for one specific case; the one in which the previous new moon occurred at 3:00 in the sketch.  For a new moon which occurs at 3:00, the 1st quarter moon will appear as shown with the sun leading the 1st quarter moon by approximately 6:12:00 (6:12:30 is more accurate) as it passes the viewers meridian.

So now to the dynamics.  The moon lags the sun by 50 minutes every day (approximately 12.2 deg). At this point I'm going to switch to degrees rather than a clock in my discussion.  This leads to a time between new moons of 29.5 days.  RE and FE models both agree on this point.  If we now look at the 2-D geometry of the situation, we'll see this.  If we allow the original new moon to be at 0 degrees, with the viewer on the 0 degree meridian, this would mean that the next new moon would occur 29.5 days later which would put the second new moon at 180 degrees.

This would then put the first quarter moon at 0 degrees,  sun at 90 degrees for the original 1st quarter and 180 degrees sun at 270 degrees for the second 1st quarter when the 1st quarter moon passes the preceding new moon meridian.

As my original post accurately stated, the time between the first solar noon and 1st quarter moon meridian crossing would be 6:12:30 each occurring at 0 degrees according to the FE model.  Now to the second 1st quarter moon.  The sun will cross the zero degree line of the viewer after traveling 90 degrees.  During this time, the moon will now lag 270 degrees by an additional 12:30.  As the sun rotates to 90 degrees the moon will have lost another 12:30.  Do the math and the second 1st quarter moon meridian crossing lags solar noon at the point of the viewer by a time in excess of 6:37:30.  If we think about the next lunar cycle we would expect the time to return to 6:12:30 as the new moon occurs back at 0 degrees.  At this time, I will admit that these times are approximations.  However, the observed data fall well outside of any possible error.

At first, I thought it might take awhile to find the proper data points.  Turns out I got lucky.  The city I've been using as my reference is Portland, OR.  As luck would have it, at the 1st quarter moon of Dec. 21, 2020 solar noon leads the lunar meridian crossing by 6:12:00.  The max error for this would be +/- 1 minute.  If the FE model is correct, this puts Portland at very near the location of the previous new moon. The FE model would then suggest that at the previous new moon of Dec. 14 we should see solar noon and lunar meridian crossing line up +/- 1 minute.  Turns out the difference is 10 minutes.  Problem 1 with the FE model.

Now let's look at the January 2021 1st quarter moon.  We would expect the crossings to differ by 6:37:30.  What we find is that they differ by 5:57.  Problem 2 with the FE model.

Now let's look at February 2021 1st quarter moon.  We would expect the crossings to return to 6:12:00.  What we find is that they differ by 5:59.

That's my analysis of the dynamic situation.  I fully leave open the possibility that it is flawed.  Would not be the 1st time I've made a fool of myself.  I look forward to the rebuttals.