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1. Radio Astronomy in School
2. Electromagnetic spectrum
3. Atmospheric electromagnetic opacity
5. is a non-profit scientific, educational corporation, founded in 1989 by a team of NASA employees
investigation of very low frequency (VLF = 0 Hz to over 100 kHz) radio signals in the earth's magnetosphere
These signals are both manmade and naturally occurring (most of which originate from lightning) Interactive NASA Space Physics Ionosphere Radio Experiments"
6. INSPIRE VLF3 receiver kit Field observation setup:
INSPIRE VLF3 receiver with stereo cable
Portable cassette tape recorder with headphones
Whip antenna
Ground stake
7. Links INSPIRE project home page
http://theinspireproject.org/
Listening to Northern Lights Video
http://www.youtube.com/watch?v=eHvdZdsIZxg
Live VLF Natural Radio Streaming
http://abelian.org/vlf
8. Radio Meteor Observation meteoroids disintegrate at an altitude of 80 to 130 km
the trails they leave behind are full of ionized gases that reflect radio waves
distant VHF(30MHz-300MHz) radio signals can bounce off the meteor trail (forward scattering method)
can monitor meteor activity regardless the weather conditions and at daytime
9. Radio detection of meteors
10. Radio Meteor Observation Experimental setup
13. Links International Meteor Organization http://www.imo.net/radio
The G7IZU Radio Reflection Detection Page
http://www.tvcomm.co.uk/radio/
Meteormania Video BBC 4 TV
http://www.tvcomm.co.uk/radio/video/meteormania.wmv
Radio Meteor Observatory's On Line
http://www.rmob.org/index.php
14. is an education project to build and distribute inexpensive ionospheric monitors to students around the world
the monitors detect solar flares and other ionospheric disturbances
Earth's ionosphere reacts strongly to the intense x-ray and ultraviolet radiation released by the Sun during a solar event
the signal strength from a distant VLF transmitter, reflected by ionosphere, will follow this changes
15. Super SID Receiver - simple and low-cost wire-loop antenna
16. Links Stanford Space Weather Monitor program http://solar-center.stanford.edu/sid.html
Society of Amateur Radio Astronomers
http://www.radio-astronomy.org/node/142
Tennessee SkyNet Observatory
http://www.tnskynet.com/SID-VLF.php
17. NASA Radio Jove Project was conceived in 1997 by a team headed by Jim Thieman at Goddard Space Flight Center
sold its first receiver kit 1999 (10th anniversary almost 1400 kits sold)
observe and analyze natural radio emissions of Jupiter (bursts), the Sun (Solar flares), and our galaxy (transit)
18. Frequency of operation 20.1 MHz
Receiver type: direct conversion
(a hamradio transceiver can be used expensive)
Antenna: dipol ?/2 or phased dipol or multi-element
20. Radio Jove at ATLANTYKRON Summer Academy 200550th anniversary of the discovery of Jupiter's natural radio emissions
21. Links NASA Radio Jove Project
http://radiojove.gsfc.nasa.gov/
The Internet Jupiter Radio Observatory Kochi JP
http://jupiter.kochi-ct.jp/
Radio bursts from Jupiter video - CFARO
http://www.youtube.com/watch?v=H6wkt_8a-6A
Radio burst from the Sun CFARO
http://www.youtube.com/watch?v=smuHQzDy3i0
23. Detect microwaves emitted by the Sun and approximate the temperature at 11GHz (chromosphere)
26. The Internet Solar Radio Observatory Imai Laboratory, Kochi National College of Technology, Japan
27. Links MIT Very Small Radio Telescope (VSRT)
http://www.haystack.mit.edu/edu/undergrad/VSRT/index.html
RadioAstronomyon11GHzat ISU
http://astro.u-strasbg.fr/~koppen/10GHz/index.html
The Internet Solar Radio Observatory
http://sun.kochi-ct.jp/e/observatory.html