Hal Puthoff

So to make a long story short, he eventually, Joe McMoneagle, got a National Merit Award for over $200,000. Great viewings he did for CIA, National Security Council, FBI. I mean, you name it. So anyway, they grew into a whole industry.

Is that a fair assessment? That's a fair assessment. I mean, when we, as physicists, we hate to say, oh, don't have a clue. So, well, we now know there's so-called quantum entanglement, which is that things seem to be connected at a quantum level across great distances. And so the easy answer is, well, it must be quantum entanglement. But, you know, that's just words.

Is that a fair assessment? That's a fair assessment. I mean, when we, as physicists, we hate to say, oh, don't have a clue. So, well, we now know there's so-called quantum entanglement, which is that things seem to be connected at a quantum level across great distances. And so the easy answer is, well, it must be quantum entanglement. But, you know, that's just words.

Is that a fair assessment? That's a fair assessment. I mean, when we, as physicists, we hate to say, oh, don't have a clue. So, well, we now know there's so-called quantum entanglement, which is that things seem to be connected at a quantum level across great distances. And so the easy answer is, well, it must be quantum entanglement. But, you know, that's just words.

It doesn't really tell us how it works. But to give you an example, we wondered how far you could go. So he did an experiment, again, with Ingo Swann, who was such a really top-level remote viewer, to view Jupiter, planet Jupiter, before the flyby. before the NASA flyby. And so he did. And he described Jupiter the way anybody might, you know, red spot and all that kind of stuff.

It doesn't really tell us how it works. But to give you an example, we wondered how far you could go. So he did an experiment, again, with Ingo Swann, who was such a really top-level remote viewer, to view Jupiter, planet Jupiter, before the flyby. before the NASA flyby. And so he did. And he described Jupiter the way anybody might, you know, red spot and all that kind of stuff.

It doesn't really tell us how it works. But to give you an example, we wondered how far you could go. So he did an experiment, again, with Ingo Swann, who was such a really top-level remote viewer, to view Jupiter, planet Jupiter, before the flyby. before the NASA flyby. And so he did. And he described Jupiter the way anybody might, you know, red spot and all that kind of stuff.

But he said, but there's a thin ring around Jupiter. I wonder if I went to Saturn by mistake, but I really see a ring around Jupiter. And nobody knew about any ring around Jupiter. Carl Sagan happened to come by in the lab and said, oh, what do you think of this? We got this result. He said, ring around Jupiter, that's nonsense. There's no...

But he said, but there's a thin ring around Jupiter. I wonder if I went to Saturn by mistake, but I really see a ring around Jupiter. And nobody knew about any ring around Jupiter. Carl Sagan happened to come by in the lab and said, oh, what do you think of this? We got this result. He said, ring around Jupiter, that's nonsense. There's no...

But he said, but there's a thin ring around Jupiter. I wonder if I went to Saturn by mistake, but I really see a ring around Jupiter. And nobody knew about any ring around Jupiter. Carl Sagan happened to come by in the lab and said, oh, what do you think of this? We got this result. He said, ring around Jupiter, that's nonsense. There's no...

But when the NASA flyby finally got there, it turned out there was a ring, a small ring around Jupiter. And so we got that in publication in a book we wrote about all this stuff before it was known in the scientific community. So that's what we find out, that apparently even distances is not a big deal. The other thing we wondered, I can tell you what it isn't. We thought maybe it was brainwaves.

But when the NASA flyby finally got there, it turned out there was a ring, a small ring around Jupiter. And so we got that in publication in a book we wrote about all this stuff before it was known in the scientific community. So that's what we find out, that apparently even distances is not a big deal. The other thing we wondered, I can tell you what it isn't. We thought maybe it was brainwaves.

But when the NASA flyby finally got there, it turned out there was a ring, a small ring around Jupiter. And so we got that in publication in a book we wrote about all this stuff before it was known in the scientific community. So that's what we find out, that apparently even distances is not a big deal. The other thing we wondered, I can tell you what it isn't. We thought maybe it was brainwaves.

The Russians came up with an idea. Well, brainwaves, low frequency, long wavelength, they can seemingly get through some aspects of the environment.

The Russians came up with an idea. Well, brainwaves, low frequency, long wavelength, they can seemingly get through some aspects of the environment.

The Russians came up with an idea. Well, brainwaves, low frequency, long wavelength, they can seemingly get through some aspects of the environment.

So we came up with a series of experiments, and one of them was, okay, let's put our remote viewers on submarines, take them into the depths of the ocean, because it turns out seawater is highly conductive, and so even at low frequencies, even at brainwave frequencies, it would be a complete shield for that.

So we came up with a series of experiments, and one of them was, okay, let's put our remote viewers on submarines, take them into the depths of the ocean, because it turns out seawater is highly conductive, and so even at low frequencies, even at brainwave frequencies, it would be a complete shield for that.

So we came up with a series of experiments, and one of them was, okay, let's put our remote viewers on submarines, take them into the depths of the ocean, because it turns out seawater is highly conductive, and so even at low frequencies, even at brainwave frequencies, it would be a complete shield for that.

So we piggybacked on somebody else's experiments, Stephen Schwartz's experiments using remover to go find archaeological wrecks and shipwrecks and so on, which turned out to eventually be a successful experiment. But anyway, we got to do two experiments. We got pristine results, even with them under there, under the ocean water. So we know it's not ordinary electromagnetic functioning.