Issues |
Driving forces |
Pressure |
State |
Impact |
Response |
Air pollutions |
Basic polluting sources (by main economic activities) Emission dynamics of polluting substances from stationary sour
ces by main
sectors of economic activities:
Table 3.3 - polluting substances, Table 3.4 - particulate matters, Table 3.5 - sulphur dioxide, Table 3.6 -
nitrogen oxides, Table 3.7 - hydrocarbons and
volatile organic compounds, Table 3.8 - carbon monoxide |
Emission
dynamics of polluting substances from stationary sources Emission dynamics of polluting substances from mobile
sources
Table 3.1 Cities where emissions of polluting substances
from stationary sources have increased
Table 3.2 Cities with the highest
quantity of emissions of polluting substances from stationary sources
Map7 Emission from stationary sources into atmospheric
air
Fig. 3.17 Towns with maximum pollutant emissions
Fig. 3.18 Emission dynamics of polluting substances from
stationary sources by main sectors of economic activities |
Dynamics
of emissions and levels of atmospheric air pollution by main pollutants in cities of
Ukraine Average daily concentrations of :
Table 3.9 -dust, Table 3.10 -nitrogen, Table
3.11-sulphur dioxide, Table 3.12-carbon monoxide
Table 4.1 Content of main pollutants in atmospheric air
Table 4.2 List of substances whose
content in the atmospheric air of cities has caused the highest pollution
Fig.4.1 Annual average content of benzapyrene in
atmospheric air of Ukraine cities in 1998 multiple to maximum permissible concentration
Fig.4.2 Weighted average content of separate ions (%) in
total mineralization of atmospheric precipitations |
Diseases
and pollution of the environment Impact
of urbanization on the environment |
|
Water |
Water abstraction and use Table 3.17 Dynamics of water use by main branches of the economy
Table 3.19 Dynamics of wastewater discharges into
water bodies by main branches of the economy |
Discharge
of wastewaters into water bodies of Ukraine Discharge of pollutants into water bodies
Map8 Discharge of polluted sewage into surface water
bodies in the region
Table 3.13 Dynamics of surface and ground water
abstraction
Table 3.14 Use of water
Table 3.15 Indices of water abstraction and use
from rivers and seas
Table 3.17 Dynamics of water use by main branches of the
economy
Table 3.18 Dynamics of water losses during transportation
in regions
Table 3.19 Dynamics of wastewater discharges into
water bodies by main branches of the economy
Table 3.20 Dynamics of discharge of polluting
substances into water bodies by regions
Table 3.21 Dynamics of discharge of polluting
substances into the rivers and seas
Table 3.22 Discharge of returning waters into
rivers
Table 3.23 Capacity of water treatment plants
Table 4.3 Chemical pollution
of surface waters versus river basins and reservoirs
Fig.3.1 Dynamics of water abstraction from surface and
ground water systems
Fig.3.2 Consumption of water from water bodies
Fig.3.3 Dynamics of contaminant substances discharge into
Ukrainian rivers and seas |
Pollution
of surface waters Table 4.3 Chemical pollution of surface waters versus river basins and reservoirs
Table 4.4 State of hydrobiocenoses
of surface waters versus river basins |
Diseases
and pollution of the environment Impact
of urbanization on the environment |
Table 3.16 Water
use in the systems of recirculation and reuse water supply Table 3.23 Capacity of water treatment plants |
Seawater |
|
Pollution of sea
waters Map20 Main sources and degrees of
pollution in Azov-Black Seas basin
Table 4.5 Pollution of the sea
waters
Fig.5.1 Volumes of waste water discharge into the Black
Sea
Fig.5.2 Pollutants discharge into the Black Sea |
Fig.5.3 Petroleum product
content (mg/l) in sea water samples from the major regions of the Black Sea |
|
|
Wildlife |
|
Hunting Fig.3.7 Dynamics of number and catching of main species of hunting
animals
Fig. 3.8 The dynamic of fish catch in Dnieper cascade
reservoirs |
Preservation,
rehabilitation and use of wild animals |
|
|
Ecological safety |
|
Table 7.1 The dynamics of
emergencies Table 7.2 The
distribution of emergencies according to their classification |
The ecological safety as
a part of national security of Ukraine Technogenical emergencies&natural emergencies.
Table 7.1 The dynamics of emergencies
Table 7.2 The distribution of
emergencies according to their classification
Table 7.3 Allocation of emergencies by regions
Fig. 7.1 Dynamics of anthropogenic and natural
emergencies
Fig. 7.2 The distribution of considerable state and
national emergencies |
|
|
Power energy |
|
|
Nuclear energy condition Table 7.4 Ukrainian NPSs' energy blocks
characterictic
Table 7.5 Ratio of Annual
Collective Stuff Irradiation Doze to Number of NPSs’ Operating Energetic Blocks
Fig. 7.4 Electricity generation in Ukraine in 1998
Fig. 7.5 Ratio of Annual Collective
Stuff Irradiation Doze to Number of NPSs’ Operating Energetic Blocks |
|
|
Health |
|
|
State of morbidity for
infectious diseases and pollution of the environment Table 6.1 Medical-demographic indices in the
regions
Table 6.2 Some indices of activity
of obstetrical service
Table 6.3 Allocation of diseases
per 100,000 of population in different medical-demographic regions
Table 6.4 Stationary aid to
population
Fig. 6.1 Birth rate, death rate and population growth
coefficients |
|
|
Ozon layer |
|
|
State of ozone layer Fig. 4.3 Deviation from climatic norm of the total content of ozone |
|
|
Reserv Land |
|
|
TERRITORIES AND
OBJECTS SUBJECT TO SPECIAL PROTECTION AND PRESERVATION Fig.3.11 Structure of natural reserves |
|
Fig.3.10 Changes in the area
of the Nature Reserve Lands |
Fish |
|
Dynamics of
fish catch Fig. 3.9 Dynamics of harvesting of
fish and sea products |
The condition
of fishery |
|
|
Forest |
|
Table 3.31 Forest areas damaged by insects and diseases Table 3.32 Forest Fires |
Forest resources
State of forests
Table 3.31 Forest
areas damaged by insects and diseases |
Technogenic and
anthropogenic impact on forests Table 3.32 Forest fires |
Table 3.30
Reforestation activities Table 3.31 Forest areas damaged by insects and diseases |
Deposits |
|
Exploitation
of the deposits Table 3.28 Rate of exploitation of major mineral resources |
State,
protection and utilization of mineral resources |
Table 3.29 Comparative characteristics of regional influence on the
geological environment by the exploitation of different types of the mineral resources |
|
Soil /land |
|
Map9 Degradation of soil |
Current
radioactive ecological situation of agricultural lands Soil contamination
Map9 Degradation of soil
Map10 Surface contamination of Cz137(kBq/m2)
Table 3.27 Dynamics of major types
of vegetable contamination with nitrates in the period 1986- 1998
Fig.3.4 Structure of land resources of Ukraine |
Erosion of soils Map9 Degradation of soil
Map10 Surface contamination of Cz137(kBq/m2)
Fig 3.5 Average contamination of agricultural crops by
region (1998) |
Fig. 3.6 Dynamics of
counter-measures implemented on contaminated agricultural lands |
Biodiversity |
|
|
Preservation,
rehabilitation and use of wild animals Map16
Endangered relict species of flora
Map17 Rare and endangered species of mammals
Map18 Seasonal migrations of birds
Map19 Rare and endangered species of birds |
|
|
Waste |
|
Waste materials
storage and disposa Map11 Pressure by solid
wastes
Table 3.33 Dynamics of toxic
wastes accumulation in Ukraine
Table 3.34 Dynamics of toxic
wastes accumulation in Ukraine
Table 3.35 Dynamics of toxic
wastes generation by Ukrainian enterprises
Table 3.36 Toxic wastes generation, usage and
extermination in Ukraine in 1998 according to danger levels.
Table 3.37 Allocation of the toxic
wastes generation in regions according to danger level
Fig.3.15 Dynamics of toxic waste accumulation in Ukraine
(thousand tn) and allocation of toxic waste accumulation in regions |
The structure
of waste generation and utilization Table 3.33 Dynamics of toxic wastes accumulation in Ukraine
Table 3.34 Dynamics of toxic
wastes accumulation in Ukraine
Table 3.36 Toxic wastes generation, usage and
extermination in Ukraine in 1998 according to danger levels.
Table 3.37 Allocation of the toxic
wastes generation in regions according to danger level
Fig.3.12 Allocation of ashes and ash-slag waste
formation in regions
Fig.3.13 Allocation of coal mining and coal
concentrating waste formation in regions
Fig.3.14 Allocation of metallurgical slags formation in
regions
Fig.3.15 Dynamics of toxic waste accumulation in Ukraine
(thousand tn) and allocation of toxic waste accumulation in regions
Fig.3.16 Allocation of 1st-4th danger level toxic waste
accumulation in regions |
|
Strategy of
waste management Programmes
and projects
Table 3.36 Toxic wastes generation, usage and
extermination in Ukraine in 1998 according to danger levels. |