Efficiency of Environmental Measures in Small Rivers' Catchment
Areas Is the Basis for Their Sustainable Development
N. P. Karpenko
1a
, I. V. Glazunova
1b
and M. A. Shiryaeva
2c
1
Federal State Budgetary Educational Institution of Higher Education “Russian State Agrarian University - Moscow
Agricultural Academy named after K.A. Timiryazev, Moscow, Russian Federation
2
Federal State Budgetary Scientific Institution "All-Russian Research Institute of Hydraulic Engineering and Reclamation
named after A.N. Kostyakov", Moscow, Russian Federation
Keywords: Anthropogenic Activity, Water and Land Resources, Pollution, Environmental Measures, Drainage Flow,
Detoxification.
Abstract: To solve this problem, a review of the sources and causes of pollution of land and water resources, as well as
modern methods of reducing pollution of the small catchment area of the Sheshma River in the Republic of
Tatarstan, was conducted. Based on the results of the research, the analysis of the causes of pollution of land
and water resources, as well as methods for preventing the pollution of water bodies with heavy metals and
pesticides, was carried out. The main directions of reducing the anthropogenic load of catchment areas of
small rivers and their sustainable development, namely: land and water resources, polluted with heavy metals
and pesticides, was developed. A review and analysis of the causes and methods of pollution of water
resources, as well as methods of prevention of pollution of water bodies with heavy metals and pesticides,
was carried out. Based on the research results, classifications were drawn up: according to the assessment of
the danger of the formation of diffused pollution for agricultural lands, according to measures of reducing the
pollution of water resources by diffused flows from agricultural territories and according to methods for
preventing water pollution by flows from reclaimed lands and rural areas. An expert assessment and statistical
processing of the results of expert assessments on the efficiency of environmental and water protection
measures were performed. An assessment of the efficiency of measures of preventing pollution of water
resources was performed on the basis of water balances for the Sheshma River in the Republic of Tatarstan.
1 INTRODUCTION
Territorial inequality, large intra-annual and long-
term variability of river flow become an obstacle to
providing the population with water resources and
developing the economy. This problem is solved by
regulating the river flow. In the basins of rivers of any
order, the bulk of the surface flow and its qualitative
composition are formed. Anthropogenic activity,
associated with any load within the catchment area
basin (agriculture, reclamation, plowing and slash of
the territory, etc.) leads to a significant change in the
conditions for the formation of river flow. The
problems of pollution are especially urgent in the
catchment areas of small rivers, which, due to their
natural vulnerability, primarily react to anthropogenic
a
https://orcid.org/ 0000-0001-6638-149X
b
https://orcid.org/ 0000-0003-4931-2008
c
https://orcid.org/ 0000-0001-8019-1203
activity. Small rivers have the lowest self-cleaning
ability and are the quickest are subject to pollution.
With significant volumes of industrial and domestic
wastewater discharge in rivers, the normal vital
processes of organisms are stopped, most of the
oxygen, dissolved in the water, is consumed and the
streams turn into a sewage collector. The calculation
of the water balance is carried out to assess the
satisfaction of water users with their needs for water
resources, assess the state of water bodies and
determine the limits of their use. Water balance (WB)
is a calculation of water use requirements in water
resources in comparison with water resources,
available for use, within the boundaries of river
basins, sub-basins, water-economic areas under
different water conditions (taking into account the
Karpenko, N., Glazunova, I. and Shiryaeva, M.
Efficiency of Environmental Measures in Small Rivers’ Catchment Areas Is the Basis for Their Sustainable Development.
DOI: 10.5220/0010585700330038
In Proceedings of the International Scientific and Practical Conference on Sustainable Development of Regional Infrastructure (ISSDRI 2021), pages 33-38
ISBN: 978-989-758-519-7
Copyright
c
2021 by SCITEPRESS – Science and Technology Publications, Lda. All rights reserved
33
uneven distribution of the surface) and regional
reconstruction of water flow (groundwater flow in
different periods of its distribution, restoration of
water resources of groundwater bodies). Water
balances are drawn up for the current level of use and
protection of water bodies of the river basin and the
levels of development of the water-economic
complex, corresponding to the stages of
implementation of the scheme of the complex use of
water resources. The ratios between the volumes of
surface and underground flows from the catchment
area change, the volumes of flows, and their
qualitative composition change, both in the intra-
annual context and throughout the year as a whole.
Therefore, research on the sustainable development
of individual catchment area basins, the preservation
of the ecological state of their water resources, and
the development of modern and effective methods for
the restoration of water resources in river catchment
areas is a relevant research (Karpenko, 2020;
Karpenko, 2015).
Material and research methods. The research was
carried out within the Sheshma River basin, which
flows through the territory of Tatarstan and the
Samara region and is the left feeder of the Kama. The
river heads in the Bugulma-Belebey Upland and
flows into the Kama Bay of the Kuibyshev water
reservoir. The river flows through an undulating
plain, dissected by a dense network of river valleys,
ravines, and gullies. The width ranges from 100-300
m in the upper reaches, up to 2 km at the mouth. 69
feeders flow into the river, the main of which are:
Lesnaya Sheshma, Kuvak, Talkish, Sekines, Kichuy,
Tolkishka. The river is of average water content,
alimentation is mainly snow (63%), as well as
underground and rain, the average turbidity is 230
g/cm3, the flow velocity is 0.1-0.8 m/s (Karpenko and
Glazunova, 2019).
Hydrological characteristics of the Sheshma
River: the length of the river is 259 km, the coefficient
of variation is Cv = 0.35; asymmetry coefficient Cs =
2; Cv = 0.7; the flow rate at the final cross-section is
724 million m3; the average slope of the river is 0.8
‰.
Attributive characteristics of the Sheshma River
catchment area basin: catchment area is 6040 km2;
mark on the catchment area at the mouth is 53.1 m;
the forested area is 20.3%; the area of lakes on the
territory is 6.4%; the drainage density coefficient is
0.14 km/km2; the river tortuosity coefficient is 1.56;
the branching coefficient is 0.2; the coefficient of
development variation of the river network is 0.7
(Galyamina et al., 2016; Kireicheva et al., 2014).
The main characteristics of water use (volumes of
water consumption and return water) were calculated
for rural and urban households, industrial enterprises,
livestock complexes, irrigated farming (Markin et al.,
2016; Ratkovich et al., 2013).
The generalized characteristics of water use in the
territory of the Sheshma River basin are shown in
Figure 1.
Figure 1: Volumes of water consumption in the Sheshma River basin.
The structure of the anthropogenic load, leading
to the pollution of the water resources of the Sheshma
River is shown in Figure 2.
ISSDRI 2021 - International Scientific and Practical Conference on Sustainable Development of Regional Infrastructure
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Figure 2: Structure of the polluting load on the Sheshma
River.
According to the structure of the polluting load on
the Sheshma River, the greatest influence is exerted
by diffused flows from irrigated lands, and the
smallest - by livestock business. Water withdrawal
for irrigation from rivers contributes to the occurrence
of irreplaceable losses and the formation of return
water in improved areas. The research of diffused
pollution of any water body inevitably covers a set of
processes of interaction between surface and ground
waters in the catchment area with the regime of
anthropogenic influence. When drawing up the
diagram, it was taken into account, that the treatment
facilities of settlements have sufficient efficiency,
they treat wastewater until the LOC of pollutants in
the control cross-section is reached, and industrial
enterprises have a technological cycle with a
complete recycling water supply system. To restore
the ecological situation and stabilize it, a complex of
environmental measures was developed and
proposed, taking into account their weight
coefficients for land resources (
Table 1) and water
resources (
Table 2).
Table 1: A set of measures to reduce pollution of land resources in the catchment area of the Sheshma River.
Table 2: Results of statistical processing of expert assessments of measures of reducing pollution of water resources.
Name of the environmental measure Dispersion
of
assessments
σ
i
2
Variation
β
i
Weight
coefficients
λ
i
Instalation of local draina
g
e flow treatment facilities 3.64 0.74 0.222
Application of bioengineering facilities (BIF) for treatment and additional
treatment of drainage and wastewater of irrigation systems, livestock and
household wastewate
r
3.64 0.74 0.19
Methods and technologies for desalting and demineralization of drainage
water and wastewater based on ion-exchange resins and sorption
2.86 0.58 0.23
Additional treatment of surface flow 2.17 0.44 0.09
S
p
ecial tanks for the accumulation of draina
g
e flow and rainwate
r
3.59 0.73 0.15
Methods to im
p
rove the self-cleanin
g
abilit
y
of the rive
r
2.84 0.579 0.118
Σ
1
In terms of the ecological state of water resources,
it can be noted, that the following types of
environmental measures have the highest weight
coefficients in the expert assessment of measures of
reducing pollution of river water resources:
methods and technologies for desalting and
demineralization of drainage water and
wastewater based on ion-exchange resins and
sorption;
instalation of local drainage flow treatment
facilities;
Name of the environmental measure Dispersion
of assessments
σ
i
2
Variation
i
Weight
coefficients λ
i
The use of sorption materials for the immobilization of heavy
metals
3.74
3.35
0.205
Vegetative reclamation. Use of tolerant plants 3.75
3.98
0.173
Establishment of the general phytotoxicity of the soil due to the
action of various heavy metals
5.56
5.19
0.18
Agrochemical methods of immobilization of heavy metals in soil 5.5
5.13
0.22
Use of high-barrier plants to make environmentally friendly
p
roducts
3.59
3.81
0196
Σ
1
Efficiency of Environmental Measures in Small Rivers’ Catchment Areas Is the Basis for Their Sustainable Development
35
application of bioengineering facilities for
treatment and additional treatment of drainage
and wastewater of irrigation systems, livestock
and household wastewater.
According to the results of expert assessments, all
the considered methods were divided into five
groups, according to their efficiency and range of
application. The first group included methods of
increasing the efficiency of treatment and additional
treatment of drainage flow and wastewater from rural
settlements and livestock farms with an efficiency of
up to 90%. The second group, according to the above
criteria, included engineering methods for increasing
the treatment of diffused flows from agricultural
lands, using local facilities with an efficiency of 80%.
The third group includes methods of agrotechnical
and agrochemical orientation with an efficiency of
70%. The fourth group includes methods,
contributing to improving the self-cleaning ability of
the river with an efficiency of 60%. The fifth group
included vegetative reclamation methods with an
efficiency of 50%.
2 RESEARCH RESULTS AND
THEIR DISCUSSION
Using the cognitive approach of expert assessment of
the efficiency of environmental measures for land and
water resource management to reduce pollution of
small rivers, the efficiency of detoxification methods
of water and land resources was assessed using the
example of the Sheshma River in the Republic of
Tatarstan. For this purpose, forecasts of the
development of the economy were made, the
parameters of water use were calculated and water
balances were drawn up.
Calculations of water balances were performed
according to standard formulas for years 75% -
medium-low-water year and 95% - hyperarid year
according to the river flow (Ratkovich, 2016; Musaev
et al., 2018). When linking up the water balance (WB)
in the items of the polluting load on the river, for the
convenience of calculations and analysis, all methods
were divided into groups of environmental measures
to prevent pollution of land resources in the
catchment area of the Sheshma River in accordance
with the above expert assessments:
methods of agrotechnical and agrochemical
orientation;
methods of vegetative reclamation orientation.
Methods to prevent pollution of water resources
within the river basin of the Sheshma River are
divided into groups:
methods of increasing the efficiency of
treatment and additional treatment of drainage
flow and wastewater from rural settlements and
livestock farms;
methods for increasing the treatment of
diffused flows from agricultural (reclaimed)
lands;
methods to improve the self-cleaning ability of
the river.
According to experts, the most effective methods,
that have a wider range of application, are methods of
increasing the efficiency of treatment and additional
treatment of drainage flow and wastewater from rural
settlements and livestock farms, therefore, when
linking up WB, the efficiency of these methods was
taken into account in the first instance and amounted
to 90% according to expert assessments. The next
group of methods in terms of the selected criteria are
methods of increasing the treatment of diffused flows
from agricultural (reclaimed) lands using engineering
structures, the efficiency of these methods is 80% and
is taken into account in the second item of linking up
the water balance. The third group of methods in
terms of efficiency and range of applicability are
methods of agrotechnical and agrochemical
orientation with an efficiency of 70%. The fourth
group in terms of the selected criteria are methods of
improving the self-cleaning ability of the river with
an efficiency of 60%. The fifth group included
vegetative reclamation methods with an efficiency of
50%.
Calculations of water and water-economic
balances allow to assess both the volume of water
resources in the catchment areas and the possibility of
their quantitative withdrawal for water-economic
purposes and needs.
The water balance equation was composed for
years of estimated frequency from known formulas.
The efficiency of methods of detoxification of water
and land resources was assessed by calculating the
coefficients of limit pollution, which is an analog of
the water pollution index for rivers according to the 5
selected groups of methods for deoxidization of land
and water resources, by the formula:
𝐾
пз р
∑
𝑊
пз
𝑊
вв
ВХБ  𝑊
поп.
1
where: Wwd - the volume of water disposal; Wlp - the
amount of limit pollution of wastewater; WB - water
imbalance, Waug. - augmentations.
ISSDRI 2021 - International Scientific and Practical Conference on Sustainable Development of Regional Infrastructure
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In order to improve the water quality in the
Sheshma River, water-economic calculations take
into account the efficiency of methods of reducing
pollution of water and land resources of the river
catchment area. When drawing up water balances, it
is revealed, that there is no water shortage at the
object under consideration, but the water quality in
the river without the application of land and water
resources detoxification methods is classified as
“dirty”. Taking into account the efficiency of the
recommended groups of methods of detoxification of
land and water resources, the water quality in the river
goes into the class "clean", which confirms the
sufficient efficiency of the recommended measures
(Fig. 3).
Figure 3: Diagram of the efficiency of detoxification methods of water and land resources according to the water pollution
index, based on the drawing up water balances (blue - hyperarid year; red - low-water year).
As the diagram shows, drawn up based on the
results of calculations of the coefficients of the limit
pollution for the Sheshma River, and according to the
data of water balances, the water quality in the river
without the use of detoxification methods of water
and land resources is classified as “dirty” and “very
dirty”. With the consistent application of all 5 groups
of methods in accordance with the obtained expert
assessments on the weight values of the methods and
their efficiency, it turned out, that the compilation of
the methods into 5 groups and their sequence of
application has sufficient efficiency in detoxification
of land and water resources since the water in the river
began to be classified as “clean” in low-water years
and “moderately polluted” in a hyperarid year, which
is acceptable since it corresponds to the mesotrophic
stage of river development.
3 CONCLUSIONS
To solve the problem posed in order to reduce
pollution of the river basin under consideration, a
cognitive method of expert assessment was proposed,
using the gradation of the efficiency of environmental
measures for managing land and water resources to
reduce pollution of small rivers.
To estimate the efficiency of methods of the
restoration and detoxification of water resources and
the range of their applicability, an expert survey was
conducted, based on the results of which, generalized
tables of expert assessments of the efficiency of the
methods and the recommended conditions for their
use were drawn up. According to the results of expert
assessments, statistical processing of the results of
expert assessments was carried out in accordance
with the available methods. A large group of land
Efficiency of Environmental Measures in Small Rivers’ Catchment Areas Is the Basis for Their Sustainable Development
37
detoxification methods and methods of detoxification
of water resources, polluted with heavy metals and
pesticides, were considered. A ranked series of the
efficiency of taking environmental measures was
drawn up, which showed the following.
The most effective methods, which have a wide
range of applications, are methods of increasing the
efficiency of treatment and additional treatment of
drainage flow and wastewater from rural settlements
and livestock farms. The efficiency of these methods
was 90%.
The next group of methods in terms of the selected
criteria are methods of increasing the treatment of
diffused flows from agricultural (reclaimed) lands
using engineering structures, the efficiency of these
methods is 80%.
The third group of methods in terms of efficiency
and range of applicability included methods of
agrotechnical and agrochemical orientation with an
efficiency of 70%.
The fourth group in terms of the selected criteria
are methods of improving the self-cleaning ability of
the river with an efficiency of 60%.
Methods of vegetative reclamation orientation
had an efficiency of about 50%.
Particular attention was paid to assessing the
efficiency of measures to prevent water pollution,
based on the drawing up water balances for the
Sheshma River in the Republic of Tatarstan. Based on
the results of drawing up water balances, water
shortage in the Sheshma River was not established.
The quality of water without detoxification methods
of land and water resources corresponds to the level
of "dirty".
Calculations of water balances were made from
the standard formulas for years 75% - medium-low-
water year and 95% - hyperarid year by river flow.
When linking up the water balance in the items of the
polluting load on the river, for the convenience of
calculations and analysis, all methods were divided
into groups of environmental measures to prevent
pollution of land resources in the catchment area of
the Sheshma River in accordance with the above
expert assessments.
A complex of the most effective environmental
measures was proposed, such as treatment and
additional treatment of drainage flow and wastewater
from rural settlements and animal farms, treatment of
diffused flows from agricultural (reclaimed) lands
using engineering structures, agrotechnical and
agrochemical methods, as well as vegetative
reclamation methods, the use of which will allow to
improve the quality of water in the Sheshma River to
the level of "clean".
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