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Originally posted by jra
Originally posted by FoosM
1. The far left side the image is correctly exposed, as you head towards the center you see a vertical line of light causing some over-exposure of the image (orange rectangle). Though it appears to be more light reflecting or refracting off a pane of glass
What is causing that effect?
I'd place my bets on the Reseau plate that was in the camera.
2. There are double exposed cross hairs (orange circles).
How does that happen, and why did it happen in this particular photo?
They're not double exposed, it's merely a shadow of the cross hairs being cast onto the film due to the angle of the Sunlight. I've seen other photos of internal shadows being cast from the cross hairs onto the film.
3. In the visor of the astronaut you see a reflection of the astronaut taking the picture. In this case the astronaut seems to be correctly facing his subject. In an earlier case I presented:
www.hq.nasa.gov... and the one you brought up in regards to a PPK post history.nasa.gov... they dont.
Whats the difference between them?
In this photo the astronaut is almost in the center of the frame, in 20488 the astronaut is on the extreme edge of the frame. That's the difference.
Brother, you will step off with your left foot one full step, and bring the heel of your right in the hollow of your left foot; now step off with your right foot, and bring the heel of your left in the hollow of your right foot; now step off with your left foot, and bring both heels together.”
Cutting the photo in half we can see that the photographer is facing the ladder but a bit on the right side.
The side of the astronaut in the picture.
We can see that because we can see the inside of the left part of the ladder (arrows)
and, the right side is basically flat or flush (rectangle)
A "Stand-up" EVA (SEVA) is where the astronaut does not fully exit a spacecraft, but is completely reliant on the spacesuit for environmental support.[1] Its name derives from the astronaut "standing up" in the open hatch, usually to film or assist a spacewalking astronaut.
To fill out landing day, Scott and Irwin gave the scientists back in Houston a thorough description of the surrounding countryside. Rather than restrict themselves to the views out the forward-facing windows, they donned their helmets and gloves for what was billed as a "Stand-up EVA". (Scott now wishes that they had called it a "Site Survey".) Two hours after the landing they were ready. They bled all the air out of the cabin; and then Scott opened the overhead hatch. With that done and the docking hardware out of the way (a daunting task in the tight confines of the LM, Scott stood on the ascent engine cover with his head and arms outside the spacecraft, bracing himself in the opening as he took pictures with a 70-mm camera equipped with a long, 500-millimeter lens. By standing up in the hatch, Scott had a clear view all the way around the horizon.
SURFACE OBSCURATION DURING DESCENT
During Apollo landings, crews experienced regolith entrainment during the final maneuvers forlanding. This obscured fine scale topography during the final touchdown and required landing the LM into a cloud of regolith
Surface obscuration during descent varied for each LM landing. For Apollo 11, visibility was degraded; During Apollo 12 and 15 the surface was completely obscured;
The blowing dust caused by the Apollo 12 LM landing appears to have been worse than that ofApollo 11. In fact, a standup extravehicular activity (EVA) was performed by the crew to assess the site prior to performing lunar surface EVAs because blowing dust completely obscured theview during landing
Pete Conrad described the blowing dust in the Apollo 12 Technical Debrief: “I’ve already commented on the blowing dust. I felt it was very bad. It looked a lot worse to me than it did in the movies I saw of Neil’s landing. I’m going to have to wait and see our movies to determine if itdoesn’t show up as badly in the movies as it does to the eye. Maybe we landed in an area that had more surface dust and we actually got more dust at landing. It seemed to me that we got the dust much higher than Neil indicated. It could be because we were in a hover, higher up coming down; I don’t know. But we had dust from – I think I called it around 300 feet.”
a. The height at which erosion first occurred was essentially the same on the two missions. TheApollo 11 sequence camera photographs indicate the first signs of dust at about 120 feetaltitude about 65 seconds before landing.
b. Photographs taken during the extravehicular activity in the general area of the lunar modulerevealed that the soil disturbances cause by the descent engine exhaust produced about thesame effects on the two missions.
c. Photographs of the crewmen’s boot prints indicate that the soil behaved about the same atthe two sites. Although there were local variations in bootprint penetrations, such variations were observed at both sites.
d. Analysis of the returned core tube samples indicates that the lunar soil had about the samedensity and the same particle size distribution at both sites.
Bart Sibrel is the film-maker of "A Funny Thing Happened on The Way to the Moon." In this films Bart claims that the footage that was shown world-wide on national TV was fake and that none of the six Apollo moon landings ever took place, something also referred to as the moon landing hoax. Meet the filmmaker in this installment of UFONAUT News.
Well according to NASA, they did it because of... billowing dust.
Yes, stop trying to confuse people with smoke and mirrors.
A curved surface cannot magically make somebody who is standing forward stand to to the side.
And the camera, no matter what should at least look like its pointing to what it is taking a photo of as demonstrated here:
In that position he wouldn't be able to take the photo that he made.
Originally posted by DJW001
reply to post by FoosM
Sorry, FoosM. but your latest posts are all "new business." We haven't concluded "old business" yet. I asked you to confirm the following statement:
Yes, stop trying to confuse people with smoke and mirrors.
A curved surface cannot magically make somebody who is standing forward stand to to the side.
And the camera, no matter what should at least look like its pointing to what it is taking a photo of as demonstrated here:
In that position he wouldn't be able to take the photo that he made.
(Edited for brevity.)
You did say that, didn't you? If you are correct, how do you explain the following photograph?
[atsimg]http://files.abovetopsecret.com/images/member/bcebab4338ee.jpg[/atsimg]
Knowing that you are too intellectually lazy to actually perform any of the experiments that were suggested to you, and unable or unwilling to consider the numerous explanations or diagrams, I decided to arrange a demonstration. In order to illustrate how a reflecting surface can rotate the image of a photographer, I enlisted the help of this highly eflective surface:
[atsimg]http://files.abovetopsecret.com/images/member/18a2fe169d36.jpg[/atsimg]
By positioning myself at a 45 degree angle to the, er, structure, I was able to take the following photograph:
What is this pic meant to prove.??
Did you take that DJW.??
How is this the same as the Apollo photograph?
Are you relatively the same distance away as the Astronaut was?
Is the structure the subject of your photograph?
You have one astronaut taking a picture of another astronaut.
Your set-up does not fit that scenario.
What you are trying to prove is that you can aim away from a reflective surface and still be in the reflection.
Fine, nobody says you cant do that. I am saying, if you are aiming at the reflective surface you should see yourself doing so.
That simple.
In every other photograph of Apollo, we see that the astronaut is pointing his camera toward the other astronaut:
Even if the photographer was aiming at his hand, at something next to him, we should see clearly that the photographer would be aiming at his direction.
Originally posted by DJW001
In the real world, the image of a camera's reflection will point not towards the viewer, but towards the center of the photograph:
I like to source my evidence from an anonymous and unrelated third party. In this image, also of Cloud Gate, Chicago, you can quite clearly see the person on the mobility vehicle aiming off centre, and yet ... the lens is pointing at the camera in the reflection.
Originally posted by DJW001
when I provided positive proof that Jarrah lied when he claimed Kovalev's research contradicted NASA's
You see, this is where you are wrong, and also guilty of misleading people.
I have already shown that Jarrah did not lie. Which you have conveniently brushed under the carpet.
www.abovetopsecret.com...
Why do you continue this pursuit, pretending that you caught him out, when if fact it's you who have been caught out.
DJW, you were caught out with about 20 pages of posts accusing JW of being a liar, and now you've been caught out with your 'photo.' Enough is enough.
Why do they call what radiation shielding? Why do they call a window shade a shade, when anything opaque can block sunlight?
I would say that, like air, a net would make a very poor shield against shotgun shot. That doesn't mean you can't make a stack of nets several meters thick that might be able to stop a shotgun blast.
Simple point is, everything provides some amount of shielding from radiation.
To everyone saying Jarrah lied about not mentioning that the figures he presented were based on no shielding, may I direct you to Part 8 of his Radioactive Anomaly II series.
Here he clearly states at 1.16 in ...
"According to Russia's E. E. Kovalev, WITH NO SHIELDING the radiation could be anywhere from 11,666 rad per hour to 312.5 rad per hour."
He states, NO SHIELDING and also shows the table of figures in question at the same time.
I think some apologies might be in order.