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That configuration" being the one on Betty's map, the only one we have seen.
As long as you do not understand that you are working with the wrong data you will always be fooling yourself.
originally posted by: ArMaP
No, that result is from Betty's map, not from the original.
"That configuration" being the one on Betty's map, the only one we have seen.
As long as you do not understand that you are working with the wrong data you will always be fooling yourself.
originally posted by: 111DPKING111
So if someone shows me a rough sketch of roads to take from NYC to LA, and then I try to later recreate the map, how do I know if I got it right? Looking at a 3rd map from Garmin with all the roads would let us verify.
originally posted by: james1947
Yes, ArMaP, it is, but, after all we are trying to verify Betty's drawing are we not?
Unfortunately ArMap, you do not understand that I am working with precisely the right data for this analysis. We are trying to see if Betty's map has any correlation to real world stars, and I have proven that.
I have demonstrated that Betty's drawing is a very close match to real stars within 33 parsec when viewed from HIP-26737. I have shown that with the selection of stars defined by Betty's map it is very logical that it might be what it is claimed to be.
And, just what "original" are you talking about? ET's original map display? I though we had agreed that ET's maps were identical with ours.
Seriously man, your lack of understanding is getting frustrating...
originally posted by: ArMaP
Yes, but what I am saying is that, regardless of any match between Betty's and a real map we don't know how close a match was Betty's map when compared to ET's map.
If we accept your results (which I haven't) then I agree, Betty's map matches real stars, but we still don't know how close her map was to ET's map.
Yes, ET's original map, what else could it be?
And yes, the stars they see are the same we see, but that doesn't mean their maps are the same as ours, as we don't know what rules they follow to make their maps.
PS: I don't know a thing about star maps, so, a question: on Earth maps we usually draw them with north at the top of the representation, how are star maps drawn, with a kind of "galactic north" at the top?
originally posted by: james1947
So...now ET's map isn't real?
And that, ArMap is what the analysis was about, determining the "accuracy" or quality of match between Betty's map and reality i.e. "how close is Betty's match". We determined that...
Yes, I know, ArMaP, it is possible that ET has a map of stars out to 500 parsec, and doesn't have the location of any of them, or anything other than "oooh shiny". Do you understand just how ludicrous that notion is?
Well, land maps are 2D, in that all that is needed to get from point "A" to point "B" is a single direction; say 34 degrees North, if there is a second parameter it will be distance. In space we have to navigate in 3D so we have a sort of "compass heading" not unlike 34 degrees (Astronomers call this Right Ascension), and then a "declination", and finally a distance.
originally posted by: Slichter
If the ET mapping of this particular part of the sky was not recorded on Earth in 1961 (that we know of) then:
Why was this star group selected and revealed to Betty but no-one else?
Odds are that the missing star data was known to be unavailable because there had been an alien investigation into the publicly available star charts from that period.
There must be other abductees that could corroborate Betty's story.
originally posted by: ArMaP
When did I say that? Stop implying I said things I never said.
Yes, but what I am saying is that, regardless of any match between Betty's and a real map we don't know how close a match was Betty's map when compared to ET's map.
You haven't really answered my question. On the map you posted on page 1, why are the stars on those position and not rotated 180º, for example?
Why does your map look like this
and not like this?
One correction: when I say I think ET's maps are the same as ours I mean to say that they have the same stars on them, not that they are made according to the same conventions.
originally posted by: james1947
That kind of implies that ET's map isn't real.
Because of camera, or view orientation; your camera is upside-down. And, the first image is the same orientation as Betty's.
These are things like "Right Ascension", "Declination", "Distance" probably in the form of "Parallax", Stellar Class, and several others.
originally posted by: ArMaP
On a map there's no "camera orientation", right?
How is "declination" defined on star maps made on Earth?
the angular distance of a point north or south of the celestial equator.
originally posted by: james1947
the angular distance of a point north or south of the celestial equator.
www.merriam-webster.com...
Or as some might say; "up and down."
originally posted by: ArMaP
originally posted by: james1947
the angular distance of a point north or south of the celestial equator.
www.merriam-webster.com...
Or as some might say; "up and down."
And what is the definition of "celestial equator"?
-- en.wikipedia.org...
The celestial equator is a great circle on the imaginary celestial sphere, in the same plane as the Earth's equator. In other words, it is a projection of the terrestrial equator out into space. As a result of the Earth's axial tilt, the celestial equator is inclined by 23.4° with respect to the ecliptic plane.
If we accept your results (which I haven't) then I agree, Betty's map matches real stars, but we still don't know how close her map was to ET's map.
originally posted by: 111DPKING111
It doesn't matter, if the story went they projected the map into her brain, it's still the same problem. Does the map represent something unique in modern star maps?
originally posted by: ArMaP
a reply to: james1947
Thanks, that's what I thought it was.
Doesn't that mean that the star maps we use are a representation of how we see the stars from our own planet?
If ETs use a similar method, wouldn't that mean that their maps have a celestial equator that is a projection of their own planet's equator?
So, if their planet has a completely different axial tilt or if they use a different method (for example, using the orbit plane of their planet as the basis for their celestial equator) their maps, although showing the same stars, would show them in a different way, with some tilt when compared with star maps made on Earth, so this