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EARTHQUAKES AND GEOMAGNETIC STORMS
Departing sunspot AR1384, currently located just behind the sun's western limb, erupted today around 14:45 UT. NASA's Solar Dynamics Observatory photographed the debris flying over the edge of the solar disk:The eruption appears to be connected to magnetic filaments snaking over the horizon to the Earthside of the sun. Will this event affect our planet? Probably not. It is located too far from disk center. Stay tuned, however, to see what kind of CME the blast produced. 2 January 2012
MAG 7.3 EARTHQUAKE IN TURKEY
The United States has three ionospheric heating facilities: the HAARP, the HIPAS, near Fairbanks, Alaska, and (currently offline for modifications) one at the Arecibo Observatory in Puerto Rico. The European Incoherent Scatter Scientific Association (EISCAT) operates an ionospheric heating facility, capable of transmitting over 1 GW (1,000,000,000 watts) effective radiated power (ERP), near Tromsø in Norway. Russia has the Sura ionospheric heating facility, in Vasilsursk near Nizhniy Novgorod, capable of transmitting 190 MW ERP. A Multi-Parameter Approach to Earthquake Forecasting MAG 7.6 EARTHQUAKE IN KERMADEC ISLANDS !
HERE THE TEC MAP
SOUTH EAST ASIA AGAIN IN DANGER EARTHQUAKE IN RUSSIA ! not South East of Asıa or Chına.. But close ! 14 October 20.15
11 October 17.40 London time CHİNA AND SOUTH EAST ASIA IN DANGER ! see the map 8 October 14.25 London time MAG 6.0 in TONGA ! More Earthquakes are expected in S.America and around Fiji.. Here the map 1 and map 2 8 October London time 09.40 EXPECTİNG MAG 6.0 + AGAIN Please click here 7 October London tıme 11.40
HERE THE LINK 6 October 2011
MAG 6.2 SOUTH AMERICA EARTHQUAKE AND TEC ! (Total Electron Content) perturbation in ionosphere ! The TEC still is showing an active spot over South America latest TEC is @ 0005UT (0805wst) 5th October, 2011
So far we have had several M4.7 to M5 events there. This could be interesting.
More EQ coming there.
Phil EARTHQUAKES WILL CONTINU ! FULL REPORT PLEASE CLICK BELOW 29 September 17.53 British time A CME hit Earth's magnetic field on Sept. 26th, sparking one of the strongest magnetic storms in years. At the peak of the Kp=8 disturbance, auroras were sighted around both poles and more than half a dozen US states. Magnetic reverberations continued for more than 48 hours. Here is the view from forests of Skibotn, Norway, two days after the CME impact
EARTHQUAKE STORM IN CRETE ! 27 September 15.12 British tıme
GFZ Potsdam - Earthquake Bulletin
AURORA IN NEW ZEALAND click here and here 27 September
A strong-to-severe geomagnetic storm is in progress following the impact of a coronal mass ejection (CME) at approximately 12:15 UT on Sept. 26th. The Goddard Space Weather Lab reports a "strong compression of Earth's magnetosphere. Simulations indicate that solar wind plasma [has penetrated] close to geosynchronous orbit starting at 13:00UT." Geosynchronous satellites could therefore be directly exposed to solar wind plasma and magnetic fields. High-latitude sky watchers should be alert for Northern and Southern Lights after nightfall. 11 September 2011 GEOMAGNETIC STORMS IN PROGRESS AROUND BOTH POLES !
This is an ongoing 'live' project (started on 02/03/2011, prompted by the N. Zealand eartquake) to establish if there is a link between the geomagnetic activity (magnetic storms) and acceleration of the earthquake's occurrence. It is not claimed that geomagnetic storm is a primary cause of any earthquake. However if conditions for an earthquake are 'ripe' i.e. tectonic fault 'gone critical', then solar storm could be a trigger (not the cause) for it, and bring it forward for few hours or days. The Earth's lithosphere and mantle respond to Space Weather through time-varying, depth-dependent induced magnetic and electric fields. A time-varying magnetic field of a geomagnetic storm induces electric currents in the conducting ground. These currents create a secondary (internal) magnetic field. As a consequence of Faraday's law of induction, an electric field is induced in the Earth's lithosphere associated with time variations of the magnetic field. The induced electric field causes geomagnetically induced electric currents. There is strong evidence of electromagnetic processes responsible for earthquake triggering, that we study extensively. We will focus here on one correlation between power in solar wind compressional fluctuations and power in magnetospheric pulsations and ground H component fluctuations. The variation of the horizontal component H of the geomagnetic field is the crucial parameter in the Magneto-Seismic Effect MSE to be discussed in a companion paper. The connection of earthquake activity to possible solar or solar wind drivers is not well understood; many authors have attempted correlations in the past with mixed results. Geophysical Research Abstracts,Vol.8,01705, 2006;Lab for Solar and Space Physics, NASA Goddard Space Flight Center,Greenbelt,MD http://www.cosis.net/abstracts/EGU06/01705/EGU06-J-01705.pdf Scientists have been tracking and studying substorms for more than a century, yet these phenomena remained mostly unknown until THEMIS went into action. Even more impressive was the substorm's power. Angelopoulos estimates the total energy of the two-hour event at five hundred thousand billion ( 5 x 10^14 ) Joules. That's approximately equivalent to the energy of a magnitude 5.5 earthquake http://science.nasa.gov/science-news/science-at-nasa/2007/11dec_themis/ Geomagnetic storm of 10-11 March coinciding with the Japan's mega-quake lasted nearly 24 hours.
Earthquake in Japan caused by magnetic stormRUSSIAN SCIENTISTS: Increasing Solar activity will continue to INCREASE Earthly disasters clıck here ALSO DIFFERENT ARTICLES..... For years scientists have been studying the impact of different geophysical fields on the earthquakes occurrence. It has been assumed that the fields, generated due to the solar activity, earth flows fluctuations, the Earth`s speed of rotation and even the launch of magnetohydrodynamic generators affect the strained state of the earth`s crust, these fields `pumping` additional energy into the crust. Normally the aroused earthquakes are recorded several days after the provoking key event. ********************************************** Universality in solar flares, magnetic storms, earthquakes and pre-seismic electromagnetic emissions by means of nonextensivityEftaxias, K. A.; Balasis, G.; Papadimitriou, C.; Mandea, M. American Geophysical Union, Fall Meeting 2009, abstract #NG43A-1197
The field of study of complex systems holds that the dynamics of complex systems are founded on universal principles that may used to describe disparate problems ranging from particle physics to economies of societies. A corollary is that transferring ideas and results from investigators in hitherto disparate areas will cross-fertilize and lead to important new results. In this contribution we investigate a universal behavior, if any, in solar flares, magnetic storms, earthquakes and pre-seismic electromagnetic (EM) emissions. A common characteristic in the dynamics of the above-mentioned four phenomena is that the energy release is basically fragmentary, the events being composed of elementary building blocks. By analogy with earthquakes, magnitude of the magnetic storms, solar flares and pre-seismic electromagnetic emissions can be appropriately defined. The key-question we can ask in the frame of complexity is whether the magnitude distribution of earthquakes, magnetic storms, solar flares and pre-fracture EM emissions obeys to the same law. A central property of the magnetic storm, solar flare, and earthquake preparation process is the possible occurrence of coherent large-scale collective with a very rich structure resulting from the repeated nonlinear interactions among its constituents. Consequently, the non-extensive statistical mechanics is an appropriate arena to investigate universality, if any, in magnetic storm, solar flare, earthquake and pre-failure electromagnetic emission occurrence. A model for earthquake dynamics consisting of two rough profiles interacting via fragments filling the gap has been recently introduced by Solotongo-Costa and Posadas [2004]. An energy distribution function, which gives the Gutenberg-Richter law as a particular case, is analytically deduced. Therefore, the primary question we can ask in the frame of complexity is whether the aforementioned equation not only successfully describes the magnitude distribution of earthquakes in various seismic regions but magnetic storms, solar flares and pre-seismic EM emissions rooted in activation of a single fault, as well. A subsequent question is whether this equation successfully describes the magnitude distribution in all the cases under study with similar nonextensive entropic parameter q. We show that both two key-questions accept positive answer. It is worth mentioning that the estimated for the q-nonextensive parameters is in full agreement with the upper limit q < 2 obtained from several independent studies involving the Tsallis nonextensive framework.
Solar Earthquake Evidence click here ************************************************** No-one can tell with any great accuracy exactly when and where the next earthquake will strike this planet, but Russian scientists believe magnetic storms are a good place to start looking.
The earth's surface seems rock solid, but it is in fact a dynamic grid of slowly shifting 'tectonic' plates. Although incredibly slow, this motion causes stress to build up in the crust which, beyond a critical threshold, causes a portion of the crust to give way, shifting suddenly and violently - what we feel as earthquakes. Research into this potentially devastating natural phenomenon has focused on a number of geophysical areas such as the earth's rotation, solar activity and now magnetic hydrodynamic causes.
Scientists at the Russian Academy of Sciences have investigated the connection between magnetic storms and earthquakes in the seismically active Central Asian region, which also takes in northern Afghanistan - the site of recent quakes measuring over 6 on the Richter scale, causing untold damage and thousands of deaths.
The trigger effect
Since 1975, researchers have compared some 14 000 earth tremors in Kazakhstan and Kyrgyzstan with around 350 sudden magnetic storms occurring over the same period in the region - concluding with some confidence the propensity for earthquakes increases after a magnetic storm takes place. The relationship is complicated but it is centred on the way magnetic storms, interacting with high-speed plasma streams, cause noticeable vibrations as they hit the earth's magnetosphere. The electromagnetic energy in the storm is converted into mechanical energy through a series of conversions in the rocks, such as the 'piezoelectric effect', which are believed to trigger earthquakes. The researchers hope to better understand the physical nature of this 'trigger effect' in the course of future fieldwork and laboratory experiments.
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