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What is HAARP? Part 2

­by Marvin Ramíre­z­

­­Marvin  J. Ramírez­Ma­rv­in­ R­­­a­­m­­­­í­r­­­ez­­­­­

FROM THE EDITOR: Given the latest tsunamis, earthquakes and hurricanes that have stricken several nations in the world, leaving many deaths and destruction, there are beliefs – based on scientific analysis – that those events might have been manmade. El Reportero found the following article, which due to its length, it will be published in six parts. In order to better read and follow up the whole story, we suggest you read part one. You may access older editions at: https://elreporterosf.com/editions/?q=epublish/1.

What is HAARP? – Part two of six

Ionospheric disturbances at high latitudes also can act to induce large currents in electric power grids: these are thought to cause power outages. Understanding of these and other phenomena is important to maintain reliable communication and power services. Other civilian applications from the program’s research could lead to improved local and world-wide communication such as satellite communication.

Furthermore, and possibly more significant, is the potential for new technology that could be developed from a better understanding of ionospheric processes. DoD Involvement Potential applications of the HAARP research include for detecting cruise missiles and aircraft and for communicating with submarines. Although HAARP is being managed by the Air Force and Navy, it is purely a scientific research facility which represents no threat to potential adversaries and would therefore have no value as a military target.

HAARP Transmissions

HAARP would transmit HF radiowaves in a narrow beam, pointed upward to interact with the ionosphere. The beam would be several degrees wide, depending on frequency, and thus would influence a region several miles in diameter in the lower ionosphere, expanding to several tens of miles in the upper ionosphere. The transmissions would be accomplished through the design and construction of a world-class ionospheric research instrument (IRI).

Ionospheric changes produced experimentally by the IRI would be similar to phenomena which occur under natural conditions. However, nature operates on a much larger scale, and for a much longer duration, than would the IRI. The effect of the IRI would be temporary only; the ionosphere would return to its original state within a matter of seconds and there would be no lasting changes.

Because most of the energy of the high power radio beam would be emitted upward rather than toward the horizon, potentially hazardous values of radio field strength would not be present at ground level except possibly very close to the IRI. To prevent human and large mammal exposure to these near-in fields, an exclusion fence would be constructed. The upward-directed IRI main beam could be suffi ciently strong potentially to interfere with electronic equipment in aircraft fl ying nearby.

To preclude this possibility, an aircraftperdetection radar would be interfaced with the operations center of the IRI, to automatically turn-off the high power transmissions should aircraft be detected flying on a route to pass through the radiowave beam.

The IRI would be constrained to operate within the 2.8 – 10 megahertz (MHz) band on a clearchannel, non-interference basis. Theoretical calculations indicate that interference with television, AM and FM radio, ham radios, cellular phones and/or satellite dishes possibly may be anticipated, in addition to the possibility of interference with HAARP’s own radio equipment. The Air Force and Navy are committed to a mitigation program that includes acquisition of equipment to minimize

out-of-band transmissions; properly orienting the IRI array to reduce signals emitted toward local population centers; adoption of operating procedures, including beam steering, to reduce the percentage of time large signal levels would be transmitted toward large cities; employing special techniques such as null placement; and working with complainants to reach a mutually satisfactory solution. A smaller, less powerful, IRI will be constructed as a demonstration prototype to ensure mitigation techniques will alleviate possible interference.

HAARP Facilities

The major components of the main HAARP research facility would include the IRI, the combined Operations Center & Diesel Power Building, and a number of scientific instruments used for data- gathering, termed “diagnostics”, placed at various locations on the HAARP site. The IRI would consist of an antenna array and associated transmitters, operated from a control room within the Operations Center. The diagnostics would be used to observe the natural parameters of the ionosphere as well as the experimental results with the lRI operating.

The antenna would occupy a rectangular area roughly 1000 ft x 1200 ft and would consist of a 12 x 15 array of antenna masts, each supporting two horizontal crossed dipole antennas, stacked one above the other. The masts would reach a maximum height of 72 ft and would be constrained by guy wires. It is anticipated that the masts would sit on individual piles; gravel fill between the rows and columns of masts would permit access by maintenance vehicles. While some of the diagnostic instruments would be collocated with the IRI at the research facility, others, due to data collection requirements, must be located off-site at some distance from the IRI. One of the primary on-site diagnostics would be an incoherent

scatter radar (ISR) ­which would transmit radiowave signals in the 430 – 450 MHz band. The ISR would be a 120 ft diameter radar dish supported by a 25 ft diameter pedestal. The combined power demands of the IRI and ISR would be roughly 12 megawatts (MW). The method of power supply has not been finalized; however, the use of diesel generators is under consideration. IT WILL CONTINUE ON NEXT WEEK’S EDITION.

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