NASA Goldstone RADAR experiment from 1975.
A fully successful transmission of electricity (wireless) across several miles to a Rectenna. HAARP in Alaska is another example of a modern day Rectenna: http://rezn8d.net/2012/01/20/haarp-timeline-an-animated-history-of-ionospheric-destruction/
NEXRAD RADAR operates in the 2-3GHz spectrum @ 750,000watts
Uploaded on Jul 22, 2010
Japanese artist Isao Hashimoto has created a beautiful, undeniably scary time-lapse map of the 2053 nuclear explosions which have taken place between 1945 and 1998, beginning with the Manhattan Project's "Trinity" test near Los Alamos and concluding with Pakistan's nuclear tests in May of 1998. This leaves out North Korea's two alleged nuclear tests in this past decade (the legitimacy of both of which is not 100% clear).
Each nation gets a blip and a flashing dot on the map whenever they detonate a nuclear weapon, with a running tally kept on the top and bottom bars of the screen. Hashimoto, who began the project in 2003, says that he created it with the goal of showing"the fear and folly of nuclear weapons." It starts really slow — if you want to see real action, skip ahead to 1962 or so — but the buildup becomes overwhelming.
Each nation gets a blip and a flashing dot on the map whenever they detonate a nuclear weapon, with a running tally kept on the top and bottom bars of the screen. Hashimoto, who began the project in 2003, says that he created it with the goal of showing"the fear and folly of nuclear weapons." It starts really slow — if you want to see real action, skip ahead to 1962 or so — but the buildup becomes overwhelming.
HAARP Timeline – An Animated History of Ionospheric Destruction
THIS ARTICLE IS PART OF THE SERIES: THE RADIATION DATABASE: HAARP RESEARCH HQ
PLEASE READ THE BIRTH OF HAARP BEFORE PROCEEDING
I found this excellent article on the history and evolution of upper atmosphere research and weapons of mass destruction. The article is text only, with no links, so for your viewing pleasure, I will animate this history with pictures and links. Anything in a block quote or in italics was added Enjoy!
“Background on the HAARP Project“
BY ROSALIE BERTELL, PH.D., GNSH,
NOVEMBER 5, 1996
Table of Contents:
Project Argus (1958)
Project Starfish (1962)
SPS: Solar Power Satellite Project (1968)
Saturn V Rocket (1975)
SPS Military Implications (1978)
Orbit Maneuvering System (1981)
Innovative Shuttle Experiments (1985)
Mighty Oaks (1986)
Desert Storm (1991)
High Frequency Active Auroral Research
Program HAARP (1993)
Poker Flat Rocket Launch (1968 to Present)
Conclusions
Further References
Project Argus (1958)
Project Starfish (1962)
SPS: Solar Power Satellite Project (1968)
Saturn V Rocket (1975)
SPS Military Implications (1978)
Orbit Maneuvering System (1981)
Innovative Shuttle Experiments (1985)
Mighty Oaks (1986)
Desert Storm (1991)
High Frequency Active Auroral Research
Program HAARP (1993)
Poker Flat Rocket Launch (1968 to Present)
Conclusions
Further References
Military interest in space became intense during and after World War II
because of the introduction of rocket science, the companion to nuclear
technology. The early versions include the buzz bomb and guided missiles.
They were thought of as potential carriers of both nuclear and conventional
bombs.
because of the introduction of rocket science, the companion to nuclear
technology. The early versions include the buzz bomb and guided missiles.
They were thought of as potential carriers of both nuclear and conventional
bombs.
Rocket technology and nuclear weapon technology developed simultaneously
between 1945 and 1963. During this time of intensive atmospheric nuclear
testing, explosions at various levels above and below the surface of the
earth were tried. Some of the now familiar descriptions of the earth’s
protective atmosphere, such as the existence of the Van Allen belts, were
based on information gained through stratospheric and ionospheric
experimentation.
between 1945 and 1963. During this time of intensive atmospheric nuclear
testing, explosions at various levels above and below the surface of the
earth were tried. Some of the now familiar descriptions of the earth’s
protective atmosphere, such as the existence of the Van Allen belts, were
based on information gained through stratospheric and ionospheric
experimentation.
The earth’s atmosphere consists of the troposphere, from sea level to about
16 km above the earth’s surface; the stratosphere (which contains the ozone
level) which extends from about the 16 to 48 km above the earth; and the
ionosphere which extends from 48 km to over 50,000 km above the surface of
the earth.
16 km above the earth’s surface; the stratosphere (which contains the ozone
level) which extends from about the 16 to 48 km above the earth; and the
ionosphere which extends from 48 km to over 50,000 km above the surface of
the earth.
The earth’s protective atmosphere or “skin” extends beyond 3,200 km above
sea level to the large magnetic fields, called the Van Allen Belts, which
can capture the charged particles sprayed through the cosmos by the solar
and galactic winds. These belts were discovered in 1958 during the first
weeks of the operation of America’s first satellite, Explorer I. They
appear to contain charged particles trapped in the earth’s gravity and
magnetic fields. Primary galactic cosmic rays enter the solar system from
interstellar space, and are made up of protons with energies above 100 MeV,
extending up to astronomically high energies. They make up about 10% of the
high energy rays. Solar rays are generally of lower energy, below 20 MeV
(which is still high energy in earth terms). These high energy particles
are affected by the earth’s magnetic field and by geomagnetic latitude
(distance above or below the geomagnetic equator). The flux density of low
energy protons at the top of the atmosphere is normally greater at the
poles than at the equator. The density also varies with solar activity, a
minimum when solar flares are at a maximum.
sea level to the large magnetic fields, called the Van Allen Belts, which
can capture the charged particles sprayed through the cosmos by the solar
and galactic winds. These belts were discovered in 1958 during the first
weeks of the operation of America’s first satellite, Explorer I. They
appear to contain charged particles trapped in the earth’s gravity and
magnetic fields. Primary galactic cosmic rays enter the solar system from
interstellar space, and are made up of protons with energies above 100 MeV,
extending up to astronomically high energies. They make up about 10% of the
high energy rays. Solar rays are generally of lower energy, below 20 MeV
(which is still high energy in earth terms). These high energy particles
are affected by the earth’s magnetic field and by geomagnetic latitude
(distance above or below the geomagnetic equator). The flux density of low
energy protons at the top of the atmosphere is normally greater at the
poles than at the equator. The density also varies with solar activity, a
minimum when solar flares are at a maximum.
The Van Allen belts capture charged particles (protons, electrons and alpha
particles) and these spiral along the magnetic force lines toward the polar
regions where the force lines converge. They are reflected back and forth
between the magnetic force lines near the poles. The lower Van Allen Belt
is about 7700 km above the earth’s surface, and the outer Van Allen Belt is
about 51,500 km above the surface. According to the Encyclopaedia
Britannica, the Van Allen belts are most intense along the equator, and
effectively absent over the poles. They dip to 400 km over the South
Atlantic Ocean, and are about 1,000 km high over the Central Pacific Ocean.
In the lower Van Allen Belt, the proton intensity is about 20,000 particles
with energy above 30 MeV per second per square centimetre. Electrons reach
a maximum energy of 1 MeV, and their intensity has a maximum of 100 million
per second per square centimetre. In the outer Belt, proton energy averages
only 1 MeV. For comparison, most charged particles discharged in a nuclear
explosion are range between 0.3 and 3 MeV, while diagnostic medical X-ray
has peak voltage around 0.5 MeV.
particles) and these spiral along the magnetic force lines toward the polar
regions where the force lines converge. They are reflected back and forth
between the magnetic force lines near the poles. The lower Van Allen Belt
is about 7700 km above the earth’s surface, and the outer Van Allen Belt is
about 51,500 km above the surface. According to the Encyclopaedia
Britannica, the Van Allen belts are most intense along the equator, and
effectively absent over the poles. They dip to 400 km over the South
Atlantic Ocean, and are about 1,000 km high over the Central Pacific Ocean.
In the lower Van Allen Belt, the proton intensity is about 20,000 particles
with energy above 30 MeV per second per square centimetre. Electrons reach
a maximum energy of 1 MeV, and their intensity has a maximum of 100 million
per second per square centimetre. In the outer Belt, proton energy averages
only 1 MeV. For comparison, most charged particles discharged in a nuclear
explosion are range between 0.3 and 3 MeV, while diagnostic medical X-ray
has peak voltage around 0.5 MeV.
read more at HAARP
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