Sergey Pulinets 1,2 1 Space Research Institute, RAS 2 Fiodorov Institute of Applied Geophysics, Roshydromet Russia.

Slides:



Advertisements
Similar presentations
EARTH’S ATMOSPHERE.
Advertisements

Seismology Forum Meeting 2014:
Chapter 23 Modern Earth Science
The atmospheric electric field (AEF) can be influenced by different factors such as cosmic radiation, radioactivity and aerosols [1]. Two innovative works.
The World of Weather. Introduction to the Earth’s Atmosphere The atmosphere: Acts as a radiation shield by reflecting heat and light Causes our weather.
Cosmic rays in solar system By: Tiva Sharifi. Cosmic ray The earth atmosphere is bombarded with the energetic particles originating from the outer space.
Weather Water in the Atmosphere May 14, Precipitation Precipitation is any form of water that falls from a cloud. Water vapor is the source of all.
Climate modeling Current state of climate knowledge – What does the historical data (temperature, CO 2, etc) tell us – What are trends in the current observational.
Weather.
EARTH’S ATMOSPHERE Chapter 14.1 Pages
Correlation Between Ionospheric Anomaly With Seismic Activities Sudipta Sasmal[1] & Sandip Kumar Chakrabarti[1,2] [1] Indian Centre for Space Physics,
RESEARCH RESULTS ON ATMOSPHERIC ELECTRIC FIELD AT OBSERVATORY PARATUNKA IN KAMCHATKA. V.V. Kuznetsov, N.V. Cherneva, G.I. Druzhin, I.Y. Babahanov. Institute.
VLF sub-ionospheric signals and Earthquake precursor signatures? Results from the studies of some recent Earthquakes Ajeet K Maurya, Rajesh Singh, B. Veenadhari.
V. M. Sorokin, V.M. Chmyrev, A. K. Yaschenko and M. Hayakawa Strong DC electric field formation in the ionosphere over typhoon and earthquake regions V.
The Atmosphere Chapter 22.
THE ATMOSPHERE OF THE EARTH
Sponge: List the six layers of the Earth.. Atmosphere A mixture of gases: N 2 78% O 2 21% Ar0.9% CO %
Model of the D-layer disturbances related to natural disasters. Alexey I. Laptukhov, Valery M. Sorokin, and Alexey K. Yaschenko PUSHKOV INSTITUTE OF TERRESTRIAL.
Review for Science Test Wednesday, November 12, 2014 Topics that will be on this test: Heat Transfer Wind Water Cycle Clouds.
How does the Sun drive the dynamics of Earth’s thermosphere and ionosphere Wenbin Wang, Alan Burns, Liying Qian and Stan Solomon High Altitude Observatory.
The Dynamic Earth Chapter 3. The Geosphere  Geosphere- the solid part of the earth –Rock –Soil –Sediment.
Electromagnetic and plasma disturbances caused by impact to the ionosphere Valery M. Sorokin Pushkov Institute of Terrestrial Magnetism, Ionosphere and.
Cosmic Rays, Global Warming and the Origin of life. Sir Arnold Wolfendale FRS, 14 th Astronomer Royal.
Geo-Space observation of atmospheric environmental effects associated with 2011 Fukushima nuclear accident Our approach of using multiple geo-space observation.
EARTH SCIENCE Prentice Hall EARTH SCIENCE Tarbuck Lutgens 
Composition of the Atmosphere. Carbon Dioxide Water Vapor 0-4% by volumn Variable Components of the atmosphere.
Layers of the Atmosphere 3/21/2012. Layers of the Atmosphere BrainPop! video.
Ch. 4 Atmosphere.
Energy in the Atmosphere Energy from the sun travels to Earth as electromagnetic waves – mostly visible light, infrared radiation (longer wavelengths)
Weather Factors Chapter 16. What does the movement of heat in the atmosphere cause?
Chapter 12 Atmosphere Review. What is the cause of wind? A.The greenhouse effect B.Unequal heating of Earth’s surface C.The release of latent heat was.
Layers of the Atmosphere. Atmospheric Layers The atmosphere can be divided into five layers with transitional regions between most. Each layer possesses.
THE ATMOSPHERE (chapter 24.1)
THE ATMOSPHERE. aTMOSPHERIC pRESSURE Air Pressure- the measure of the force with which the air molecules push on a surface. Air pressure changes throughout.
Response of the Earth’s environment to solar radiative forcing
1 Lesson 03: The Atmosphere Section 4.11 Page
Aim: How is our atmosphere structured?
Energy Transfer in the Atmosphere (51) Energy is reflected back into space by clouds, particles, and Earth's surface. Some is absorbed by the atmosphere.
Layers of the Atmosphere Check your JIGSAW! Do you have all of these facts?
The Dynamic EarthSection 2 Objective #9 Describe the layers of the Earth’s atmosphere.
Atmosphere-ocean interactions Exchange of energy between oceans & atmosphere affects character of each In oceans –Atmospheric processes alter salinity.
1.Composition of the present atmosphere and its evolution The first two major composition of the present atmosphere: ATOC 4720 class 42: Final review :
Aim: How is our atmosphere structured? Do Now: Watch the video.
Modeling Surface Energy Balance Using the MEP Method Jingfeng Wang 1 and Rafael L. Bras 1,2 1 University of California at Irvine 2 Georgia Institute of.
Section 3.2 The Atmosphere
Earth’s Atmosphere September 20, Composition Nitrogen: 78% Oxygen: 21% Trace Elements: 1%
The Earth’s Atmosphere. Atmosphere Thin layer of air that forms a protective covering around the Earth.
Meteorology n The study of the atmosphere.. The Atmosphere n The gases that surround the planet –Much different now than when earth formed. –Early atmosphere.
Sponge: List the six layers of the Earth.
Energies associated with the Sumatra Earthquakes of December 26, 2004 and March 28, 2005 Sergey Pulinets1,2, Menas Kafatos1, Dimitar Ouzounov1, Guido.
CEDAR Frontiers: Daytime Optical Aeronomy Duggirala Pallamraju and Supriya Chakrabarti Center for Space Physics, Boston University &
The Ionosphere and Thermosphere GEM 2013 Student Tutorial
Layers of the Atmosphere
Ionosphere, Magnetosphere and Thermosphere Anthea Coster
Planetary Discovery in the era of Spacecraft Exploration Xi Zhang
Atmosphere & Weather Review
Earth’s Spheres & Atmospheric layers
Earth and Space Science
The Atmosphere.
CHAPTER 5 Water and Seawater
Atmosphere.
Weather and Climate.
Weather dynamics Day 2 – Heat Science 10.
Science 7 Chapter 16 Review and Retake.
The Atmosphere BIG IDEAS: Earth’s atmosphere is a mixture of gases that moves heat and allows life to exist on Earth. Weather patterns are created.
Investigating the Influence of Meteorological Parameters on Atmospheric Electric Field (AEF) Variations for Islamabad and Balakot, Pakistan Dr. Samia.
Introduction to Meteorology
An Integrated Approach to Observations of Pre-earthquake Signals
Chapter 11 Atmosphere.
Weather Terms/ Tools Meteorology Meteorologist Forecast Mass
Presentation transcript:

Sergey Pulinets 1,2 1 Space Research Institute, RAS 2 Fiodorov Institute of Applied Geophysics, Roshydromet Russia

* What experimental data and physical hypothesis stimulated research * Natural phenomena and anthropogenic effects – main contributors to the conception * LAIC model as a whole * Coupling with seismology * Multiparameter synergy – is the main precursor * What we lack and what we expect from future

Hoppel et al., 1986

King et al., 1993 Spivak, 2009

1998 S.A. Pulinets, V.V. Khegai, K.A. Boyarchuk, A.M. Lomonosov, Atmospheric Electric field as a Source of Ionospheric Variability, Physics-Uspekhi, 41, 1998, No 5, pp Pulinets S. A., K.A.Boyarchuk, V.V.Hegai, V.P.Kim and A.M.Lomonosov, Quasielectrostatic Model of Atmosphere- Thermosphere-Ionosphere Coupling, Adv. Space Res., 2000, 26, No 8, pp

Eresmaa, 2006 Mareev, 2010

Kirkby, 2008

Osprey et al., 2009

Hoppel et al., 1986 Fastrup et al., 2000

Fastrup et al., CLOUD proposal, 2000

Faults activation – permeability changes Gas discharges including radon emanation emanation Air ionization by  -particles – product of radon decay Ion-Induced Nucleation Humidity drop Latent heat release Air temperature growth Air conductivity change Atmospheric electric field growth Electric field effects within the ionosphere Earthquake clouds formation Convective ions uplift, charge separation, drift in anomalous EF OLR anomalies Air pressure drop Jet-streams Field-aligned irregularities in magnetosphere in magnetosphere VLF noises trapping, VLF noises trapping, cyclotron interaction Particle precipitation

Thermal anomalies Ionospheric anomalies Latent heat release Boundary layer conductivity modification Ion induced nucleation

Кобе, Япония 10 янв Копала, Мексика 14 сент Typical radon variations Turkey L'Aquila, Italy April 6, 2009

Jan 18, 2001 Jan 19, 2001Jan 20, 2001Jan 21, 2001 Jan 22, 2001 Jan 17, 2001 Gujarat Earthquake (India); Date-Time :40:30 UTC, Location 23.40N 70.32E; Depth Km; Magnitude 7.7 (USGS NEIC) Ouzounov and Freund, 2004

Anomalous latent heat Dynamics around the time of M8.8 Southern Sumatra Earthquake Sept

Latent heat constant is 2400 J/g At the same time to increase the temperature of 1 m 3 of air by 1 C is necessary only 200 J. It means that condensation can significantly to increase the air temperature. Ionization + hydration effectiveness depends on the number of water molecules which 10 8 are attached to one ion. For the particle of 3 μ size the relationship of thermal energy released to energy necessary to ionize the air gas molecule (15-20 eV) is near 10 8 Basing on 3 different sources: Segovia et al, 2005; Inan et al., 2008, and Spivak, 2008 the mean radon activity can be estimated as 2000 Bq/m 3. Each  -particle emitted by 222 Rn with the average energy of E  =5.46 MeV can produce ~ 3  10 5 electron-ion pairs what gives the ions production rate ~6  10 8 m -3 s -1. ~ 8 W/m 2

ParamMagnitudeComments EQEQ 4.3 x J x J M ~ 9.3 earthquake, and 8.7, respectively E LH 3.1 x x J Latent heat anomalies of ~ 80 Wm -2 persisting for 5 days, over six, 200 km x 200 km grids; and ~ 100 Wm -2 persisting for 10 days, over nine, 200 km x 200 km grids, respectively for the 8.7 and 9.3 associated anomalies, respectively E TS <1.5 x x J KE of tsunami for km 3 displaced water (probably an upper limit) EMEM < 5 x J From yield strength & molecular binding forces involved in rupture of land ERER 6x J From change of rotational energy of the Earth

M7.6, Oct (a)Relative humidity drop; (b)Surface temperature by the MODIS data, AQUA satellite; (c)Anomalous latent heat flux; (d)OLR anomaly one week before the seismic shock; (e)GPS/TEC anomaly Bondur,2006 Kashmir earthquake October 8, 2005

L’Aquila, Italy,

Tertyshnikov et al. 2009

Geophysical ParameterSensorSensor nameSpatialTemporalAdvantages - Days Surface temperature (land and sea) SatPolar orbit: AVHRR, EOS MODIS, ASTER 90 m-5km1-2dayslong historic record, high spatial resolution 5-10 Meteorological informationGeosynchronous: GOES, METEOSAT 1-4km20min-1hhigh temporal resolution 4-7 Long Wave RadiationSatNOAA AVHRR 14,14,15,17,18 1 degreeTwice per day Global pre seismic indicator for major events 30-5 Surface Latent Heat Flux (SLHF) SatNCEP2 degreeOnce per day coastal strong earthquakes 15-4 Ionospheric perturbations EM waves (VLF) and plasma parameters SatDEMETER--1 dayLow atmospheric disturbances 6-2 Space weatherSatNOAA--Kp Dst EQ catalog, Deformation mapsGrdUSGS-EQ catalog stress maps Aerosol contentsGrdAERONETVaryHourlyHigh temporal resolution 7-4 GPS/ Total Electron ContentGrdGPSVaryHourly5-3 Radon concentrationsGrdTurkey, IsraelVaryHourly14-3 Air Temperate/ Relative Humidity GrdMeteorological networkVaryHourly14-3 Atmospheric & Ground E fieldGrdTaiwan, CA, MexicoVaryHourly5-2 Magnetic filedGrdCA, Israel, TaiwanVaryHourly4-2 Courtesy of Anagnastopulos, 2011

OLR anomaly GPS TEC anomaly

a = M – km Dobrovolsky et al., 1989  = M km Dobrovolsky et al., 1979 l(M 0 ) = exp(M 0 – c) + 2  Keilis-Borok and Kossobokov, 1990  = 10 A E 1/2 Bowman et al., 1998 Magnitude Earthquake preparation zone radius  (km)

M Oct, 2008; M6.3 – 22 Oct, October October 2008

MRan d1 Ran d2 > 4.8> 5.> 5.5> 6. All21.3 (15498) 23.8 (5954) 24.2 (6026) 24.7 (3502) 25.2 (943) 25.7 (279) Sea23.9 (4114) 25.4 (2666) 30.5 (1797) 30.4 (1097) 30.9 (301) 31.4 (76) Land18.7 (4956) 21.5 (2551) 20.0 (2001) 20.5 (1157) 21.6 (314) 22.7 (98) Ratio between the number of perturbations with T > 2 and the total number of cases for the 15 days before an EQ

Scholz et al., Science, 1973

PhenomenologyPhenomenology Physical model Specific features Precursor mask Statistic validation Practical application

NCEP surface temperature temperature Latent heat OLR Anomaly Ionospheric anomaly

Epicenter position Time of earthquake determination M=[log(900)]/0.43 = 6.9 Irpinia, Italy, 23 Nov. 1980, M6.9 Magnitude estimation  = M km Dobrovolsky et al., 1979

* Atmospheric and ionospheric effects are intrinsic factors of earthquake preparation process together with activation of tectonic processes * LAIC can be used as a foundation for the complex multiparameter technique for the short-term earthquake warning * Special service should be organized for the global multiparameter monitoring