I came across this transcript of Hal Puthoff's presentation a year ago to SSE IRVA and found it extremely interesting!
https://paradigmresearchgroup.org/2018/0...june-2018/
Also, here is Puthoff's published paper: ADVANCED SPACE PROPULSION BASED ON VACUUM (SPACETIME METRIC) ENGINEERING
https://arxiv.org/ftp/arxiv/papers/1204/1204.2184.pdf
... I could cut out more excerpts, but just go read the whole thing! All great stuff!
(This post was last modified: 2019-06-26, 09:52 PM by Hurmanetar.)
https://paradigmresearchgroup.org/2018/0...june-2018/
Also, here is Puthoff's published paper: ADVANCED SPACE PROPULSION BASED ON VACUUM (SPACETIME METRIC) ENGINEERING
https://arxiv.org/ftp/arxiv/papers/1204/1204.2184.pdf
Quote:Okay, what did I address as a subcontractor? One of the critical issues there’s so much high-level security and compartmentalization in this subject area, and there’s a lot of it, it’s difficult for contractors to obtain expert opinions on advanced technologies because they would expose why they are interested. So, I acted as a surrogate. I was contracted to commission mostly unclassified whitepapers from experts around the globe about where their particular subject areas would be in (the year) 2050 as like a general survey of aerospace futures. I decided this would be the best way to get the best knowledge we had across many technologies without actually exposing why we wanted to know.
So, I let out 38 contracts over a two-year period. I’ll show you what the studies were on. You can read them there: positron aerospace propulsion, IEC fusion as a compact energy source, warp drive, dark energy, extra dimensions, metallic glasses for aerospace use. Really cutting edge kinds of things.
Here are some more of the papers that I commissioned: negative mass propulsion, antigravity for aerospace applications, programmable matter, invisibility cloaking – these are just the kind of things that we needed to have maximum technical input from the best people around the globe. And so, that’s what we did, that’s what I did.
Quote:So let me give you an example of, how this stuff helps people who are chasing these really difficult problems. I’m choosing one here: metamaterials for aerospace use. I’d love to talk about really fancy materials, but they’re classified. However, there’s a lot of materials that have been picked up or provided even in the public domain. I’m going to give an example because it shows exactly what the structure is for how to deal with this. This is an open source sample. It was sent anonymously to talk show host Art Bell. The fellow claimed to be in the military. He said that this sample was picked up in a crash retrieval, and so he sent it by email. So what does that mean? Chain of custody non-existent. Provenance questionable. Could be a hoax. Could be some slag off of some foundry floor or whatever. However, it was an unusual sample, so we decided to take a look at it.
Quote:It was a multilayered bismuth and magnesium sample. Bismuth layers less than a human hair. Magnesium samples about ten-times the size of a human hair. Supposedly picked up in the crash retrieval of an Advanced Aerospace Vehicle. It looks like it’s been in a crash. The white lines are the bismuth; the darker areas are the magnesium separations. So the question was what about this material, so naturally we looked in all the national labs, we talked to metallurgists, we combed the entire structure of published papers. Nowhere could we find any evidence that anybody ever made one of these.
Secondly, some attempts were made to try to reproduce this material, but they couldn’t get the bismuth and magnesium layers to bond.
Thirdly, when we talked to people in the materials field who should know, they said we don’t know why anybody would want to make anything like this. It’s not obvious that it has any function.
Well, years later, decades later actually, finally our own science moves along. We move into an area called metamaterials, and it turns out exactly this combination of materials at exactly those dimensions turn out to be an excellent microscopic waveguide for very high frequency electromagnetic radiation terahertz frequencies. So, the wavelength is 60 microns, which is a pretty small size. But it turns out because of the metamaterial aspect of this material, those bismuth layers that act as waveguides can be one twentieth the size of the wavelength, and usually when you make a waveguide it’s gotta be about the size of the wavelength. So, in fact this turned out to be a material that would propagate sub-wavelength waveguide effects. Why somebody wants to do that we still don’t know the answer to that.
... I could cut out more excerpts, but just go read the whole thing! All great stuff!