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originally posted by: Ophiuchus 13
Consider spherical highly reflective objects are built & placed in orbit around Moon or Planet to absorb Solar energy?
Then connect them between the planets surface on land and sea with other reflective disc like panels, that are interacting with even yet another array of reflective mobilized technology maybe blimp drones or some other aviation based reflective disc array reflecting in a constant cycle of Solar energy. From space reflective spheres raying onto atmospheric based reflective technologies and them raying energy down to planet surface non stop. As the reflective spherical space based technologies would be orbiting the planet or moon constantly beaming the atmospheric based technologies with condensed solar energy feeding the designated planets surface technology...
NAMASTE*******
originally posted by: Ophiuchus 13
a reply to: pteridine
Your input for other energy forms is appreciated...
Also this idea was not borrowed?
It's understood if there is doubt in 1z intelligence to produce this original idea but it is not borrowed. Could be channeled however.
The idea is to use the space based spherical objects with say convex and concave lensing components on the exterior and interior of them.
Use the lens technology to basically magnify the solar energy entering the spherical object and then focus the magnified energy rays to intercept reflective atmospheric based floating, flying & or gliding blimp drone/dish like/wing like equipment that is geo coordinated with the space technology.
Once rays enter the atmospheric mobil technologies from space based technology they are again amplified with more lens magnifying reflective technology and directed to planet surface receiver technology.
And instead of wasting any energy keep cycling it from space to atmospheric to surface and back up, recharging all components indefinitely...
It would make global warming worse. We already have too much heat gain not offset by enough heat loss, so if more sunlight is beamed to the planet from space, it will only accelerate global warming.
originally posted by: pteridine
We already have a planet sized collector of solar energy. Why would a few aluminized bubbles make much of a difference?
originally posted by: Ophiuchus 13
a reply to: pteridine
The locations of the space spherical objects to reiterate would be assigned per continent. One or more depending on the power requirements of said continent.
The sizes could vary depending on power requirements. But the specifications could be engineered with existing EA*RTH based scientific groups, especially if allowed to work together no matter nation they represent. Thus increasing the building intelligence from minds across the globe. It is a potential power system for future generations on this planet and on other planets or moons...
Extra sunlight again the same engineering teams would be doing civil engineering and so can problem solve these issues before building. Sort of like building box like structures beneath nuclear power plants before the planet is assembled. Protecting the environment incase there was melt down or damage and having a pre-designed lid structure already built that can mechanically or manually cover said melt down site...
So again the specifications data would be generated from groups of engineers from around the world working together to build them and the system.
originally posted by: Ophiuchus 13
a reply to: pteridine
All details have been provided. As stated it will take a global team of engineers to work out the specifications, but feel free to debate
Aluminium oxynitride or AlON is a ceramic composed of aluminium, oxygen and nitrogen. It is marketed under the name ALON by Surmet Corporation.[3] AlON is optically transparent (≥80%) in the near-ultraviolet, visible and midwave-infrared regions of the electromagnetic spectrum. It is 4 times harder than fused silica glass, 85% as hard as sapphire, and nearly 15% harder than magnesium aluminate spinel. Since it has a cubic spinel structure, it can be fabricated to transparent windows, plates, domes, rods, tubes and other forms using conventional ceramic powder processing techniques. AlON is the hardest polycrystalline transparent ceramic available commercially.[2] Combination of optical and mechanical properties makes this material a leading candidate for lightweight high-performance transparent armor applications such as bulletproof and blast-resistant windows and for many military infrared optics. AlON-based armor has been shown to stop multiple armor-piercing projectiles of up to 50 cal.[4] It is commercially available in sizes as big as 18x35-inch monolithic