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AeroSolSys

Programme for Research-Development-Innovation
for Space Technology and Advanced Research - STAR


84/ 2013


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Phase 1 - 2013

Phase 2 - 2014

Phase 3 - 2015

Phase 4 - 2016


General Description
Selection:

      1.
Station Structure
      2.
Monitoring Network
      3.
Seismic Energy
      4.
Multidisciplinary Analysis
      5.
Real Time Information
      6.
Vrancea Seismicity
      7.
Disemination
      8.
References
      9.
Copyright



      Multidisciplanary complex system for  monitoring clouds, aerosols and solar  radiation in corelation with Vrancea seismic activity


Phase 3 - 2015



  Phase 3 tests the infrastructure and validates the data. The actual monitoring stations are presented in the next figure.

Vrancea faults
                    
            The stations:


MLR Muntele Rosu,  updated
COVR Covasna Voinesti, new
PLOR7 Plostina 7, new
PLOR4 Plostina 4, updated
VRI
Vrancioaia, updated
LOPR Lopatari, updated
NEHR Nehoiu, updated
ODBI Odobesti , updated
                    
     were updated with new equipment.

Names
Locations
Sensors
BISR

Bisoca

Acceleration and speed seismic sensors, air and ground acoustic, radio ULF, magnetic field, inlinometer, radon, temperature, humidity, air pressure.

LOPR

Lopătari

Acoustic, radon, inlinometer, temperature, humidity, air pressure.

NEHR

Nehoiu

Acceleration and speed seismic sensors, acoustic, inlinometer, radon, temperature, humidity, air pressure, air ionisation, meteo station, CO2.

MLR

Muntele Roșu

Acceleration and speed seismic sensors, inlinometer, radon, temperature, humidity magnetic field X, Y, Z, acoustic, radio ULF.

COVR

Covasna

Acceleration and speed seismic sensors, radio ULF.

PLOR4

Ploștina

Acceleration and speed seismic sensors, acoustic, infrasound, air and boring temperature, meteo station, air ionisation, telluric field, air electrostatic field, inlinometer.

PLOR7 Ploștina

Acceleration and speed seismic sensors, infrasound, air temperature, air ionisation, radio ULF, video camera for clouds and sky monitoring, radiometer for solar radiation (incoming from sun and outgoing from ground).

VRI

Vrâncioaia

Acceleration and speed seismic sensors, ground - air acoustic for V and H directions, air and ground infrasound, air and ground temperature, meteo station, air ionisation, telluric field, electric scalar field, magnetic scalar field, inlinometer, radon, air pressure, humidity, radio ULF,  air ionisation, solar radiation (piranometru), video camera for clouds and sky monitoring.

ODBI

Odobești

Acceleration and speed seismic sensors, acoustic, meteo station, radon, temperature, umiditate, inlinometer.


        The first tests of network was a meteor explosion over Vrancea area. The seismic stations recorded the sock waves:


meteor explosion over Vrancea zone

  There was a main explosion and other secondary two. Next figure shows the recods made by seismic sensors.

meteor explosion, seismic waves
 
  The corelation between seismic records and our multidisciplinary network reaction is presented in next figure:

meteor explosion, acoustic, electric field, ULF reactions

    The waves propagation is affected by atmospheric conditions. Meteorological stations give us information about wind (speed, direction), humidity, atmospheric pressure and precipitations. We had variations on ULF receiver, air ionisation, air electric field and telluric field.

meteor explosion, meteorological conditions

   An example of air ionization in Nehoiu after explosion is in next figure:

meteor explosion, air ionisation

   The bright light created by meteor explosion was recorded by two video cameras that continuously monitor clouds and sky:

meteor explosion light

  The explosion created acoustic waves that were recorded in Odobesti, Vrancioaia and Bisoca. Example for BISR (air and ground):


                     sound meteor explosion

       An example of radon monitoring is in the next figure. The equipment measures the air pressure, humidity, temperature and includes an inclinometer, too.

radon ODBI