The High-frequency Active Auroral Research Program (HAARP) will develop noticeable artificial airglow during a multi-university research project concentrated on ionospheric studies. The airglow might be observed up to 300 miles from the HAARP site in Alaska, with the best viewing opportunities when looking a little to the side of the glow. (Artists idea).
Alaskans and visitors might have the opportunity to observe an artificial airglow in the sky, generated by the High-frequency Active Auroral Research Program (HAARP), during a research project starting on Saturday (November 11th).
Scientists from the University of Alaska Fairbanks, Cornell University, University of Colorado Denver, University of Florida and Georgia Institute of Technology will conduct a range of experiments at the UAF-operated research study website.
Exploring the Ionosphere.
The experiments will concentrate on the ionosphere, the region of the atmosphere in between about 30 and 350 miles above the Earths surface.
HAARPs Ionospheric Research Instrument is a phased range of 180 high-frequency antennas spread throughout 33 acres. Credit: UAF/GI picture by JR Ancheta.
Researchers will investigate ionosphere mechanisms that trigger optical emissions. Theyll also try to comprehend whether particular plasma waves– gas so hot that electrons get knocked off atoms– magnify other extremely low-frequency waves. And theyll investigate how satellites can use plasma waves in the ionosphere for accident detection and avoidance.
Observing the Airglow.
Each day, the airglow might be visible approximately 300 hundred miles from the HAARP facility in Gakona. The site lies about 200 miles northeast of Anchorage and 230 miles southeast of Fairbanks, or about 300 to 350 kilometers.
HAARP develops airglow by exciting electrons in Earths ionosphere, similar to how solar power creates natural aurora, with on and off pulses of high-frequency radio transmissions. HAARPs Ionospheric Research Instrument, a phased variety of 180 high-frequency antennas spread throughout 33 acres, can radiate 3.6 megawatts into the upper atmosphere and ionosphere..
Visibility and Transmission Details.
The airglow, if noticeable, will appear as a faint red or potentially green patch. Since of the method the human eye operates, the airglow might be simpler to see when looking just to the side.
HAARP will produce an airglow at a particular point in the sky. The angle of visibility for anybody desiring to search for it will depend on an individuals distance from HAARP.
This chart reveals the approximate elevation angle per distance from HAARP a person will need to be at to observe the airglow. Credit: Image courtesy HAARP.
HAARP transmission frequencies will vary but will occur in between 2.8 and 10 megahertz. Actual transmit days and times are highly variable based on real-time ionospheric and/or geomagnetic conditions..
Additional information about the research study campaign will be offered on the HAARP site.
The National Science Foundation in 2021 granted the UAF Geophysical Institute a five-year, $9.3 million grant to establish the Subauroral Geophysical Observatory at HAARP. The observatory checks out Earths upper atmosphere and geospace environment.
The grant has supported a number of HAARP research campaigns, including this one. It likewise assisted fund the go back to HAARP of the Polar Aeronomy and Radio Science Summer School, which hosted more than 50 scientists in August.
The Air Force initially established and owned HAARP however moved the research study instruments to UAF in August 2015. UAF operates the site under an arrangement with the Air Force.
Pilots flying in the Gulkana area are asked to contact the Federal Aviation Administration for short-term flight constraint details.
The High-frequency Active Auroral Research Program (HAARP) will produce noticeable synthetic airglow throughout a multi-university research study campaign focused on ionospheric studies. The airglow could be observed up to 300 miles from the HAARP website in Alaska, with the best viewing opportunities when looking a little to the side of the radiance. Scientists will examine ionosphere systems that trigger optical emissions. Theyll also attempt to understand whether certain plasma waves– gas so hot that electrons get knocked off atoms– magnify other very low-frequency waves. And theyll investigate how satellites can use plasma waves in the ionosphere for collision detection and avoidance.
