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originally posted by: _BoneZ_
Maybe I wasn't clear enough. Electricity going through wires (or leads on a circuit board) is not as fast as light going through wires (fiber optics).
originally posted by: JimOberg
I ran through the notes for space-related material and found it a hodge-podge of garbled notes with no evidence of first-hand familiarity with the topic.
originally posted by: AboveBoard
Industry and invention/ R&D were not taken from zero to 100 by Roswell crash or other crash information, but instead were added into what was known and could be done, helping to advance the science a few more steps down the road faster than would otherwise have happened. "Artificial acceleration" of what we were already working on, in other words.
originally posted by: Blue Shift
originally posted by: AboveBoard
Industry and invention/ R&D were not taken from zero to 100 by Roswell crash or other crash information, but instead were added into what was known and could be done, helping to advance the science a few more steps down the road faster than would otherwise have happened. "Artificial acceleration" of what we were already working on, in other words.
The funny thing is, if we are living in an artificially accelerated timeline because of incursions from beings/craft from the future, our technology might already be in advance of the timeline we got it from -- except perhaps the time travel technology, which seems to involve some kind of "psychic" energy we don't know how to work with in our reality. We couldn't (and still can't) make sense of the technology, and don't have anything like it, so it was never seeded into existing research. This seems particularly true with the biological versus artificial developments. They somehow used modified humans to achieve time travel, while we're moving rapidly forward with non-human intelligence?
As a way of woodshedding a possible "explanation," maybe that's why Corso's stuff seems to worn out these days. Because it's from the "old future," and not the one we're building in this timeline. Intelligence -- and therefore technology -- moves sideways through time, and not necessarily in a straight line?
originally posted by: uncommitted
originally posted by: AboveBoard
a reply to: lostgirl
Thank you! I was very excited to see that this has only been in earliest development since the 1990's and higher applications are now possible because of it, such as the use of lasers with the fibers, quantum computing potential, etc.
I don't know, obviously, if this is PROOF of anything (in fact, technically speaking, its not) but it sure made my spidey sense tingle... Or maybe Batman is better? As in "Holy Fiber Optics, Batman!" lol!
- AB
Please take this in the spirit it's meant (friendly discussion), but don't you think you are at risk of reverse engineering something to make it meet the comments Corso made? HG Wells talked about a rocket to the moon at the turn of the last century and then only a mere 69 years later - we sent a rocket to the moon!!!! Was HG Wells aware of alien involvement, or did technical evolution inevitably lead to the developments that allowed this? I'm pretty firmly aligned to the latter.
originally posted by: KellyPrettyBear
a reply to: AboveBoard
I barely try to have good discussions on ATS anymore...have barely started a post in 2 years.
To discuss interesting subjects properly and to sustain it amidst all the generalities and assumptions...is difficult.
Even on my own blog.
I say that we are part of a larger symbiotic framework. And yes, sometimes little lives form in us and breakaway... It happened to me.
But "harvesting"? Not really. Loosh? Not really.
We are more like waves than particles. Waves interacting with other waves. Saying "I am this" or "I am that" is only minimally meaningful.
If this was 30 years ago, people might meet up and talk. I might feel a desire to spend a month explaining things...demonstrating...maybe watch a BTUFO together.
But on ATS we all ponder our thoughts for many hours until they are all crystallized like armor around us, And then we clash off of each other.
Doesn't seem collaborative or interesting.
Kev
upon examìnation it was found they were
not wires, but appeared to be glass or transparent plastic
tubes. They could not be broken or cut and thought to be a
quartz type composi tion *
They gave the appearance of earthly fibers, so a
descrìptive terms was applied "Optical Fibers"- In reality
they were optical tubes- Thìs evolved into what is now known
as "Fiber Optics" -
LINK
In the 1840s, Swiss physicist Daniel Collodon and French physicist Jacques Babinet showed that light could be guided along jets of water for fountain displays. British physicist John Tyndall popularized light guiding in a demonstration he first used in 1854, guiding light in a jet of water flowing from a tank. By the turn of the century, inventors realized that bent quartz rods could carry light, and patented them as dental illuminators. By the 1940s, many doctors used illuminated plexiglass tongue depressors...
Alexander Graham Bell patented an optical telephone system, which he called the Photophone, in 1880, but his earlier invention, the telephone, proved far more practical.
Optical fibers went a step further. They are essentially transparent rods of glass or plastic stretched so they are long and flexible. During the 1920s, John Logie Baird in England and Clarence W. Hansell in the United States patented the idea of using arrays of hollow pipes or transparent rods to transmit images for television or facsimile systems. However, the first person known to have demonstrated image transmission through a bundle of optical fibers was Heinrich Lamm, than a medical student in Munich. His goal was to look inside inaccessible parts of the body, and in a 1930 paper he reported transmitting the image of a light bulb filament through a short bundle.
LINK
Light travels down a fiber-optic cable by bouncing repeatedly off the walls. Each tiny photon (particle of light) bounces down the pipe like a bobsleigh going down an ice run. Now you might expect a beam of light, traveling in a clear glass pipe, simply to leak out of the edges. But if light hits glass at a really shallow angle (less than 42 degrees), it reflects back in again—as though the glass were really a mirror. This phenomenon is called total internal reflection. It's one of the things that keeps light inside the pipe.
The other thing that keeps light in the pipe is the structure of the cable, which is made up of two separate parts. The main part of the cable—in the middle—is called the core and that's the bit the light travels through. Wrapped around the outside of the core is another layer of glass called the cladding. The cladding's job is to keep the light signals inside the core. It can do this because it is made of a different type of glass to the core. (More technically, the cladding has a lower refractive index.)
The secret to hollow-core fiber is doing away with the cladding and replacing it with photonic crystals. The light shoots down the hollow core, and when it strikes the edge, the photonic crystals bounce the photons. By doing away with the plastic/glass, these hollow-core fibers have lower signal loss (allowing for longer distances between repeaters), and the increased speed of light (about 30% faster than plastic/glass) reduces latency. According to DARPA, the fact that each fiber is physically separated (single-spatial-mode) allows for higher bandwidth, and any polarization of the light is kept in tact (important for sensing, secure communications, and other interesting applications).
(This is from 2013, by the way...) LINK
As for how DARPA’s hollow-core fiber was actually created, we have very little in the way of actual details — probably because this is a military project and DARPA isn’t ready to spill the beans.
A team of DARPA-funded researchers led by Honeywell International Inc. developed the technology. The hollow-core fiber is the first to include three critical performance-enabling properties:
Single-spatial-mode: light can take only a single path, enabling higher bandwidth over longer distances;
Low-loss: light maintains intensity over longer distances;
Polarization control: the orientation of the light waves is fixed in the fiber, which is necessary for applications such as sensing, interferometry and secure communications.
Researchers from the Max Planck Institute for the Science of Light (MPL) in Erlangen/Germany and of the QUEST Institute, based at the Physikalisch-Technische Bundesanstalt (PTB), have tested a new type of optical fibre with a hollow core and have found out that this type of optical fibre was able to guide UV laser light without being damaged and with acceptable loss. Their investigations, which they have recently published in the journal Optics Express, are interesting for numerous applications: besides precision spectroscopy on atoms or ions and their use in optical atomic clocks or quantum computers, fluorescence microscopy in biology, the investigation of process plasmas, combustion studies on soot or the spectroscopy of greenhouse gases would be other possible fields of application.