Bleedsblue&white
Well-known member
Yeah, they said that because this was a new system they didn't know for sure, just that it had the potential to be great.
Too bad.
Too bad.
I have a couple very close family members who have been/are addicted to prescription drugs. They destroy lives.
Good luck man.
I'm thankful that I've never had to take a Tylenol or aspirin ever.
On Jan. 12, 2010, a magnitude-7 earthquake rocked Haiti’s capital, Port-au-Prince, destroying much of the city and killing more than 200,000 people. Satellite records of atmospheric electron activity high above the island reveal an unusual pattern of behavior in the ionosphere in the months leading up to the quake — information that could be used in the future to forewarn of major earthquakes.
Scientists have long known that some minerals — quartz, for example — can produce electricity when deformed under pressure, an effect called piezoelectricity. This phenomenon has been replicated in the lab by applying stress to a slab of granite and measuring the ensuing electrical current.
“At a certain amount of stress, you start seeing a flow of electrons,” says Pierre-Richard Cornely, an electrical engineer at Eastern Nazarene College in Quincy, Mass., who presented new research on the phenomenon last December at the annual meeting of the American Geophysical Union in San Francisco, Calif. “In theory, this amount of stress can be likened to the stress inflicted on rocks leading up to an earthquake.”
New research shows that electron activity in the ionosphere in the months prior to major earthquakes could potentially be used to forewarn of an earthquake. Credit: Kathleen Cantner, AGI
In the days, weeks and months before earthquakes, intense stresses on rocks along faults can create piezoelectric effects that produce free positive ions. When released into the atmosphere, these ions rise upward under the influence of Earth’s global electromagnetic field.
“Positive ions can travel upward at speeds of 20 to 30 meters per second,” says Friedemann Freund, a physicist at NASA at Moffett Field, Calif., who was not involved with the new study. The ions travel until they reach the ionosphere, an upper layer of the atmosphere between 85 and 600 kilometers above Earth’s surface.
Influxes of ions into the ionosphere have been well studied due to their influence on radio communications, which are impacted by ion concentrations in the ionosphere. Fluxes of solar radiation in Earth’s magnetic field can cause electrical turbulence and disrupt radio waves. Cornely’s research suggests that the same effect can also be generated by earthquakes.