and soils characterizing would be defined.

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Working out of the basic network for monitoring of natural and climatic processes in Siberia M.V. Kabanov, V.V. Zuev, V.А. Krutikov Institute of Monitoring of Climatic and Ecological Systems SB RAS, Tomsk, Russia

Major factors of a state of natural and climatic systems The state of natural and climatic systems are defined by set of dynamic meteorological and hydrological characteristics. It is necessary to spend a complex of measurements of parameters on the points of supervision distributed in space in which parameters atmospheres, hydrospheres and soils characterizing would be defined. At complex realization of measurements of atmospheric parameters really to receive indexes which would reflect all factors influencing development of natural and climatic processes.

Monitoring of natural and climatic processes Creation of a basic network of tool monitoring of a dynamic status of atmosphere, hydrospheres, soils and vegetation. Creation of the distributed network of off-line and field independent information-measuring systems of monitoring for maintenance of the landscape analysis of processes. Development of physical, geochemical, hydrological and bioindicator methods of the landscape analysis of natural and climatic processes in the present and the past. Creation of information-modelling system for monitoring, the analysis, modelling and the forecast of natural and climatic processes.

The basic network Typical station for the network of monitoring of natural-climatic processes Platform for remote sounding of atmosphere Pole mast with sensors for gradient measurements Platform for standard meteorological measurements Pavilion for placing of systems of registration, communication and technical maintenance Platform for aerosol & radiation measurements Platform for ecosystem supervision

The basic network Typical station for the network of monitoring of natural-climatic processes Standard meteorological station (the international certificate, Vaisala, Finland) for the control of meteorological conditions in a ground layer of atmosphere and а binding to network meteorological supervision as a part of a world network. 30-metre pole mast with sensors for gradient measurements (sensors AWS, the departmental certificate, t IMCES, Russia) for gradient measurements of wind speed, temperature, pressure, humidity and calculations of vertical transfer of heat and moisture in a ground layer of atmosphere.

The basic network Typical station for the network of monitoring of natural-climatic processes Platform for remote sounding of atmosphere: aerosol lidar (IAO & IMCES) for the control of transfrontier transport of an aerosol; minisodar (IMCES) for the control of turbulent characteristics in an atmosphere boundary layer; station of aerologic radio sounding (the international certificate, Vaisala, Finland) for the control of profiles of a wind, temperature and humidity to heights about 30 km. Addition: the automated laser measuring instrument of characteristics of overcast.

The basic network Typical station for the network of monitoring of natural-climatic processes Platform for aerozolno-radiating radiating measurements: UV-radiometers (the international certificate, NILU Products, Norway); aerosol spectrometers (the international certificate, Grimm Aerosol Technik, Germany) - for the control of photochemical and photosynthetic processes; solar spectrophotometer (IAO) - for the control of the maintenance atmospheric aerosol in all thickness of atmosphere.

The basic network Typical station for the network of monitoring of natural-climatic processes Reference platform for ecosystems supervision: gas analyzers greenhouse and others significant gases for the control of photosynthetic and soil processes; measuring instruments t for a precipitations, it ti a soil moisture and a snow cover for the control of soil processes.

The basic network Factors of natural processes ХХХХХ The climatic factor ХХХХХ The atmospheric block The soil block Wind Soil moisture Humidity Temperature Temperature Radiation Aerosol Bioindication Clouds

Wind Ultrasonic anemometer Sounding balloon Doppler lidar Ozone lidar Microwave radar Pole mast Н ~ 30 м Н ~ 25000 м Н ~ 7000 м Н ~ 10000 м Н ~ 300 м First stage Second stage Long-range goal The basic network

Wind WindTraser System

Wind Yankee Environmental Systems

Wind The control of vertical transfer of ozone lidar

Humidity Radiometer Hygrometer Sounding balloon Raman lidar DIAL lidar Integral criterion Pole mast Н ~ 30 м Н ~ 25000 м Н ~ 2000 м Н ~ 6000 м First stage Second stage Long-range goal The basic network

Humidity Remote control of water vapor profiles by Raman and DIAL lidars Water vapor vertical Ratio of integrated t Time height ht cross section profiles, measured by radiosonde (dotted), Raman lidar (dashed), DIAL Ti:Sa-0.72 μ (solid) water vapor measured by Raman lidar and DIAL for five 12-hours periods during Intercomparison of the water vapor density. Temporal resolution is 10 s, vertical resolution is 60 m. campaign

Temperature Ultrasonic anemometer Sounding balloon Microwave radiometer Raman lidar Pole mast Н ~ 30 м Н ~ 25000 м Н ~ 300 м Н ~ 2000 м First stage Second stage Long-range goal The basic network

Temperature Tem mperature e, o C Raman lidar Radiosonde Altitude, m Aeros sol lidar s re esponse, nu umber of ph hotons Profiles of temperature of the atmosphere received by means of Raman lidar and radiosonde

Radiation IR-radiometer Radiation balance UV-radiometer Ozonometer gauge First stage Second stage Long-range goal The basic network

Aerosol Counter Pole mast Н ~ 30 м Spectrophotometer p Aerosol depth Lidar Н ~ 10000 м First stage Second stage Long-range goal The basic network

Clouds Panoramic photometer Extent & speed of the clouds Lidar Clouds height 2 wave weather radar Liquid water content in clouds First stage Second stage Long-range goal The basic network

Off-line and field monitoring of natural and climatic processes Field information-measuring measuring systems for monitoring of atmosphere Portable automatic weather station Measurable Measurement Accuracy parameter range Horizontal wind speed 0.1 30 m/s < 0.37 m/s Vertical wind speed -15 to +15 m/s <037m/s 0.37 Horizontal wind direction 0 360 2 Air temperature -50 to +55 C < 0.37 С Relative air humidity 15 100 % 2.5% at Т > 0 C; 5% at Т 0 C Atmospheric pressure 520 800 mm Hg 1mmHg

Off-line and field monitoring of natural and climatic processes Off-line information-measuring measuring systems for monitoring Independent measuring instrument of a profile of temperature Parameter Value Range of measured temperature, C -55 65 Absolute error measurement of temperature, C 0.1 Source voltage, V 3.0-3.6 Maximum quantity of sensors in a measuring instrument, units 16 Volume of non-volatile memory, Mb 2 Consumption current in a radio exchange mode, ма 5 10 Consumption current in a mode of interrogation of gauges and radio reception, ма 1 2 Consumption current in a dream mode, ма 0,02 Average time of off-line operation with a regular battery supply, months 12

Monitoring of processes of desertification Information-measuring measuring systems for monitoring of a status of soil Soil Moisture Sensors: TRIME-PICO64 sensor with internal TDR-electronics TRIME (Time domain Reflectometry t with Intelligent MicroElements) is based on the TDRtechnique (Time- Domain-Reflectometry), and was developed to measure the dielectric constant of a material.

Bioindication Taxonomical analysis of fossil pollen and diatoms

Bioindication and landscape modelling of processes in the past 3200 BP 5300 BP 8000 BP 10000 BP

Bioindication and landscape modelling of processes in the future Contemporary climate 2020 2050 2080

Bioindication

Monitoring of natural and climatic processes Instrumental provision of monitoring stations (on the basis of SB RAS stations) located in characteristic climatic zones to monitor glacial processes in mountains and desertification processes in southern latitudes, for monitor processes in forest-bog ecosystems in middle latitudes and cryosphere processes in the north of Siberia. Provision of new ground monitoring stations with modern information technologies for monitoring, modeling and management of natural and climatic systems in stationary, mobile and remote observations (ac. Yu. Shokin). Methodical provision of unified set of measuring devices, regulations and formats for the main measured parameters which will be applied at monitoring stations network. This network will have status of spatially distributed Center of Corporate Use (leading organization: IMCES SB RAS).

Thanks for your attention! Web: http://www.imces.ru e-mail: krutikov@imces.ru