Linda Moulton Howe joins Art Bell to examine 1947 Roswell UFO artifacts—silver gifts and "pure extract aluminum" fragments—claimed since the 1940s, with a grandfather’s 1974 acquisition. A Midwestern university scientist tested 10 pieces (6mm squares, ellipticals, circles), all weighing 160mg despite pure aluminum’s expected 97mg mass, revealing embedded silicon and manganese-iron-aluminum alloys. Sandia Labs metallurgists speculate a denser internal metal; Bell awaits late-May test results by Memorial Day, while Howe cautions against assuming extraterrestrial origins, noting discrepancies with Jesse Marcel Jr.’s 1947 descriptions of fuchsia symbols and balsa-like beams. The episode underscores lingering questions about Roswell’s true nature amid conflicting evidence. [Automatically generated summary]
And we know, Art, that there have been these stories since the 40s of silver gifts with non-human beings being found in New Mexico and other places.
And you got that, you've now had one correspondence that you have put out.
You've gotten another.
I don't know if you are going to distribute that publicly, but it comes down to the fact that somebody says that they have had pieces of artifacts from a crash.
It is very difficult, Art, because you now are experiencing what for the last 15 years, trying to find anybody with very credible professional credentials who would be willing to look at physical tissue and samples in the unusual animal deaths was difficult.
And now having to deal with artifacts that may have come from a craft from someplace else is also difficult.
And we are still experiencing the same syndrome that these professionals ask for and must remain anonymous in order to protect their positions in their work.
And they exactly weigh 160 milligrams each, and they are machined.
The edges of each one of those little squares, when he looked at, and this comes to your question, he used a scanning electron microscope, which is used with, the scanning electron microscope is used with the energy dispersive spectroscopy.
Now, what this all means, these big words, is that they have the ability now with scanning electron microscope to take something, let's say this is six millimeters wide, which is just a little bit over a quarter of an inch, and they can go down to the surface and they can keep going down and down and get down to one to two microns.
And to show you how small that is, if you could take and isolate a single blood cell out of your bloodstream, it would be about seven microns in diameter, a blood cell.
They're going down to one to two microns, which is about a third the size of a blood cell.
To take a look at things on these artifacts that you sent, and when they get to a place that they're interested in or various places, they then can a ratchet change into a particular kind of switch, which is the energy dispersive constant.
And when you find out what you want to measure, when you're on a spot, this will determine exactly what elements are there.
When they did this, on the five little squares, on the two ellipticals, which also were six millimeters wide.
There were two elliptical that were six millimeters by eight millimeters.
And the circle was six millimeters in diameter.
So six millimeter seemed to be a constant, at least in some of these dimensions.
Now, on the we call it the very thin blade, it measured exactly 10 inches by 1.5 inches, which the scientist thought was unusual that anything would end up in even inches, which is a terrestrial measurement.
That could be that it was caught off from something that's unknown.
He thought that was strange that it should measure so exactly.
And the last piece is the approximately 2 and 3 eighths inches by 1 and 15 sixteenths inches, not square, almost square.
We'll call it the vent.
It is a small, very, very thin object with very thin slips throughout it.
Now, I'm going to have some other detailed remarks to make about the, we'll call it the blade and the vent.
But first, I want to go to a sentence that is from the second communication that you now have out on the computer.
And this is from the source who says, granddad stated their own analysis.
He's talking back in that he came in possession of these in 1974 from his grandfather who got them from, I guess, the 1947 crash, is what she's alleging.
Granddad stated their own analysis of the samples indicated it as pure extract aluminum as a conductor for the electromagnetic fields created in the propulsion system, unquote.
And we'll stop there for a second.
That sentence certainly seemed to hold up when they took the electron dispersive spectroscopy to every single one of the 10 pieces on several parts of them.
Now what they're doing in the EDS, you bombard with electrons and it knocks out electrons, kind of punches out the electrons.
And those electrons have a very characteristic wavelength.
They put out an x-ray when they fly out, and that x-ray has a very characteristic wavelength.
And then you can tell exactly what the element is.
So over and over and over again in every one of these, it was, and this is the phrase that is correct to use, greater than 99% aluminum and could not detect any other element.
Because scientists are reluctant to say that anything is 100% anything.
Because even putting your fingerprint or brushing it on soil can add something that might be picked up at one hundredth of a percent, if you understand what I mean.
Usually when we're building with aluminum in something, we are putting, adding manganese or other alloys to strengthen.
And tomorrow or Tuesday, this scientist is going to be meeting with a metallurgical professional to discuss exactly these issues of aluminum alloys and 100% alloy.
And I hope that next Sunday I can have a further update on that.
But I want to say that there's something else interesting that showed up in the scanning electron microscope, which gets into this question of whether or not there's anything that can be structural.
It's really not an alloy.
But what they found in one of the five little squares were silicon granules.
They were one to two microns, and they seemed to be embedded in the surface of the aluminum.
And on the square, there were striations across it, as if the little square had itself been either scratched or abraded by something.
And it raised the speculation, which ranges from, could these pieces have had impact to something that was sandy or dusty, or is there a processing mechanism in the manufacturing of these little pieces that somehow brought a silicon polishing dust to them?
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We're going to learn a little bit more about that for the metallurgist.
And when you come to a, we'll call it the very thin blade, it was less than a millimeter, just extremely thin and light, 10 inches long and 1.5 inches wide.
On that and on what we're calling the little vents were granules that were different.
These turned out to be 10% manganese, 10% iron, and 80% aluminum.
I'm talking now only in little granules that seem to somehow be attached or also embedded.
Now, what they are or what they mean or whether they are something that was picked up over time, the source said that he's had these since 1974 and they were tarnished and they may have been exposed to other things.
That part's hard to know.
Well, a question still hanging is, even if they are all aluminum on the outside, could there be any structural detail on the inside?
Well, tonight, just before we went on the air, the scientist called me.
He was in the lab.
He had, with your permission, Art, he had cut into one of the little five squares that we talked about.
And he said it was pure silver shiny, appeared to have no other structural details.
And at this point, it appears that that at least is just aluminum.
Aluminum, aluminum, aluminum.
And he said to me, in this universe, where as far as we look, when we look at all of the elements and we look at the stars and the galaxies, we keep seeing the same spectrum of the same elements.
So if it is aluminum and aluminum and aluminum over and over and over again, what we do not know is function.
We know we have aluminum on this planet.
There must be aluminum throughout the universe and other places.
But what are the functions of these?
And to this date, there is nothing about any of this that to the scientist or even some of the people he has worked with and they have discussed, there is nothing that even imitates any kind of function from these treatments at this point.
And the other question comes back to Ms. Porson's strange sentence about used as a conductor for the electromagnetic field created in the propulsion system.
Well, aluminum might conduct some electricity, but what would the relationship be specifically to an electromagnetic field?
We're also Going to talk with the metallurgists and some other people about that.
So by next weekend, we may have a little bit more, at least professional information about some of these questions.
But at this point, Art, there is nothing that we can say that would confirm or deny that they are, in fact, extraterrestrial, other dimensional, time travel, or anything.
It's aluminum, aluminum, aluminum in shape that appear to have definitely been machined.
Could they have been machined on the Earth?
I am assuming definitely in this day and age they could have been in 1947.
Could that be a source?
We do not know.
And all we've got to go by at this point are this man's two letters.
Well, it's speculation about the silicon granules in one of the five little squares.
It could also be a manufacturing process.
And these are the kinds of things that are very difficult for us to know beyond the fact that we've got these two letters from this man claiming that these are artifacts from a crash.
Now, I think it's also important to point out that Jesse Marcel Jr., who saw some of this material at his father's, what his father brought home for the kitchen in 1947, July, described completely different types of material.
And he told me in that interview that he never personally crinkled them up.
His father told him that.
He never did it himself, but he said that he did handle the material.
He saw for himself those fuchsia colored symbols in these little 3 eighths of an inch wide little beams that were so light and have been compared in other research to balsa wood, looking like sort of a silvery, coppery color being compared to balsa wood.
Again, all of that is quite different from this aluminum, aluminum, aluminum.
Okay, so round two.
One of the factors that I received was from Mr. Edward Stork of Denver, Pennsylvania, who has studied on his own a lot about metallurgy.
And he called me to say that a piece of 99% pure aluminum, exactly 6 millimeters by 6 millimeters by 1 millimeter, would have to weigh 97 milligrams, not the 150 milligrams that the university scientists found for each of the five little squares.
Now they did spectrophyle, they did the electron scanning microscope and all the rest on the little piece on the outside of it and found nothing as you said, aluminum, aluminum, aluminum.
Yeah, and I went back to the scientist and I said, here's the situation.
And he went back to the lab, he checked the calibration on his scale, and he remeasured each of the little squares, and the answers were the same.
And he also did a calculation and said, yes, that it was true.
If the little squares are 99% pure aluminum at 6.6 by 1 millimeters, they really should weigh 97 milligrams, not 150 milligrams.
So now we have a weight discrepancy to solve.
Well, another factor said that he had worked in an aluminum die task plant and proposed that all the pieces are sample molds used to determine material content.
He said that the grooves in the round piece that resembles a phonograph record are created by the metal wave used to smooth the surface to be tested.
This is a quote from his staff.
The squares og long and round fragments are punch-outs that are material that is removed from the castings to make openings for mechanical connections, unquote, and therefore they are scrap material and thrown away.
I spent a lot of time the past few days talking with metallurgists, including two who worked with aluminum almost exclusively at Sandia Labs in Albuquerque from the early 1950s until they retired a few years ago.
Both suggested that if so far the scientific analysis of the electronic dispersive spectroscopy showed only aluminum atoms on the surface of the object, because remember, Art, at first, you wanted to keep them all intact, but the first round of testing was really only on the surface of the object when he punched through a little bit on one Sunday just before the program, that was not with the EDS testing.
Well, the logical conclusion is, according to these men, that there is a coating of aluminum around another different metal on the inside, which can be a way to manufacture aluminum alloys because aluminum is non-corrosive and might be used as a coating.
Now, this is what the retired Sandia laboratory metallurgist, Charlie Mack, had to say about why the EDS might have picked up only aluminum and whether or not the pieces could be scrap punch outs.
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Mm-hmm.
Unless the aluminum was fairly thick with aluminum on the outside.
Right, I think it would burn through that and hit the inside as well.
Right, like an M and M. Like a coated M and M candy.
Would it make sense to you from all of your experience that there was five punch outs that were scraped material from alloy production that would each weigh exactly 150 milligrams?
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Um, yes, they, uh, for teens, I wish it was brunch.
The tooling would have to be...
It would have been cooled up to the same volume as material punched out, which of course is kind of unusual.
So it is not normal for scrap aluminum punch out material that's thrown away to end up looking identical, being exactly the same size, and weighing exactly the same time.
Well, it would almost be a physical impossibility as I understand the physics of the universe at this point, because if it weighs 160 milligrams, there has to be more there.
There has to be something else they're adding that weight.