scholarly journals Water Consumption on the Catchments of the Arctic Rivers and into the Arctic Zone of Russia: Parameters, Structure, and Many-year Dynamics

Author(s):  

Water consumption into the Arctic zone of Russia and at the catchments of the Arctic seas of Russia is relatively small. In 2006-2017 on the watershed of the Arctic seas an average of 21.3 km3 of natural waters were being taken annually, and within the Arctic zone of Russia was 2.6 km3/year, or, respectively, of 28.8 and 3.5% of the national volume. Whereas these regions occupy about 71% and 18% of the country’s area. This is an objective consequence of the very small population and economic development of these territories. The volume of discharge of salvaged waters on the catchments of the Arctic seas is comparable to the volume of water intake and is equal to 15.2 km3/year, or 71%. The difference between water withdrawal and discharges of salvaged water within the Arctic zone of Russia is even less. Therefore, there is no statistically significant impact of water consumption on the water resources of the Arctic rivers, as well as shortage of water resources in the region. In addition, current water consumption is characterized, firstly, by its absence in many territories. Secondly, it is 30-50% less than it was in the 1980s. Thirdly, the water consumption value, on the contrary, has increased in the districts of development of oil and gas production. Fourthly, the water supply of industrial enterprises, heat power and public utilities exclusively dominates in the sectoral structure of water consumption. Fifthly, river waters make up main part of the water use. The study also had several important additional results. The first result is the creation of a unique map illustrating the values and features of spatial changes in water management characteristics in the Arctic zone of Russia. The second is conclusions regarding the reliability and completeness of data of various origin, including from alternative sources of information. The third is the successful implementation of the water management review approach with a transition from a macro-scale level to specific areas, localities and water consumers.

2020 ◽  
Vol 13 (2) ◽  
pp. 25-34
Author(s):  
Dmitriy V. Magritsky ◽  
Natalia L. Frolova ◽  
Olga M. Pakhomova

Water consumption has been evaluated for the basins of the rivers flowing into the Arctic seas of the Russian Federation and, separately, for the Arctic zone of Russia (AZR). Long-term dynamics of the major characteristics of water consumption are given for the period from the 1980s to 2017 along with data on its structure. The possible effect of the total water withdrawal and consumptive water use on river water inflow into the Arctic seas has been evaluated for the 1980s (a period of maximal anthropogenic load), for 2006–2017 and up to 2030. The volumes of water consumption in limits of AZR are relatively low. Moreover, the water withdrawal has dropped considerably compared with the situation in the 1980s, in particular, by about 30% in the Pechora, Lena river basins, and from the rivers of Murmansk oblast, and by 50% in the Northern Dvina, Yenisei, and Kolyma river basins. It has increased in the Nenets and Yamalo-Nenets AO because of the intense development of the local oil-and-gas complex. Nowadays, according to the authors’ estimates, 21.28 km3/year is being withdrawn in the drainage basins of RF Arctic seas and 2.58 km3/year, within the AZR, or 28.8 and 3.5% of the total volume in Russia. The largest contribution to this value is due to the water-management complexes in the basins of the Ob (14.7 km3/year), Yenisei (2.77), Northern Dvina (0.64), and Murmansk oblast (1.72 km3/year). The volumes of water discharges back into water bodies at the drainage basins of Russian Arctic seas are comparable with the volumes of freshwater withdrawal -71% of water intake. Even lesser is the difference within AZR. The major water users are the industry (with a high proportion of mining plants), thermal power engineering, and municipal economy. But considerable and diverse hydrological restrictions exist at the municipal level and for some water users in AZR. These local hydrological restrictions have been formulated and analyzed in detail, for the first time. They form three large groups. Original maps are given to illustrate the specific features and regularities in the present-day distribution of water-management characteristics over AZR.


2021 ◽  
Vol 11 (9) ◽  
pp. 4081
Author(s):  
Adrian Czajkowski ◽  
Leszek Remiorz ◽  
Sebastian Pawlak ◽  
Eryk Remiorz ◽  
Jakub Szyguła ◽  
...  

The present paper describes the problem and effects of water scarcity and the possibility of rational use of this resource in the idea of a Circular Economy (CE) and sustainable development. Rational water management requires innovation, due to the growing demand for this raw material. It seems that water is widely available, e.g., in Poland, there is no problem with drought. Unfortunately, Polish water resources are shrinking and modern solutions, as well as the construction of new and modernisation of old infrastructure, are some of the few solutions that can protect against a shortage of potable water. Water is also an essential resource for economic development. It is used in every sector of the economy. Limited water resources lead to an inevitable energy transformation because, in its present state, the Polish energy industry consumes huge amounts of water. Due to the above statements, the authors propose a solution in the form of an interactive shower panel that contributes to more rational water management (e.g., in households or hotels) based on the latest technological achievements. This device enables the creation of water consumption statistics based on accurate liquid flow measurements and the transfer of data to the user’s mobile device. This innovation aims to make the user aware of the amount of water used, which in turn can contribute to lower water consumption.


Resources ◽  
2019 ◽  
Vol 8 (1) ◽  
pp. 20 ◽  
Author(s):  
Evgenii Konnikov ◽  
Olga Konnikova ◽  
Dmitriy Rodionov

Today the process of transition to a new technological order has become evident to everyone, especially in developed countries. One of the most urgent areas for ensuring the long-term competitiveness of industrial enterprises is the development of the Arctic zone. This region has many economic and logistical difficulties, the solution of which may lie in the use of advanced technologies of the new technological order, for example, 3D-printing technologies. The aim of the article is to study the transformation of the cost structure of industrial products as a result of integration of 3D-printing technologies into the production process of industrial enterprise operating in the Arctic zone. It was found that the structure of the main cost elements varies greatly, due to the ambiguity of replacing computer numerical control (CNC) (or other classical shaping technologies) with 3D-printing technologies, as well as the specifics of supply chains, which is quite urgent for the Arctic region. The results of empirical study necessitate the development of tools for predicting the economic viability of integrating 3D-printing technologies into the technological processes of industrial enterprises operating in the Arctic zone. Within the article, the authors substantiated and developed a fuzzy-multiple model for assessing the level of investment attractiveness of integration of 3D-printing technologies into the production process of an industrial enterprise operating the Arctic zone. One of the aims of this model is to answer the question of whether an enterprise should invest in a technological transition to 3D-printing technologies.


2018 ◽  
Vol 19 (2) ◽  
pp. 536-544 ◽  
Author(s):  
Jens Hilbig ◽  
Karl-Ulrich Rudolph

Abstract The deterioration of water quality, stressed water resources and increasing water demand are among the most serious concerns in Africa and worldwide. At the same time, there is a lack of efficient and sustainable water management. This is a major challenge for future water governance policies and processes. Economic aspects play a key role for the successful implementation of integrated water resources management (IWRM) measures. Financing mechanisms are of great influence regarding how water and wastewater facilities are designed, built and operated and how these facilities contribute to an efficient long-term management of scarce water resources. Research projects in Southern Africa have shown the need of water management efficiency and the essential role of sustainable water finance for an economically, socially and environmentally sustainable management of these resources.


2018 ◽  
Vol 64 (1) ◽  
pp. 84-100 ◽  
Author(s):  
V. A. Rumyantsev ◽  
A. V. Izmailova ◽  
L. N. Kryukov

Regions of the Russian Federation classified among Arctic zone estimated to 22% of Russian territory. Arctic is characterized by the richest reserves of natural resources, and its phased, balanced development is the most important strategic task of Russia’s socioeconomic development. Production and household activities of the population of Russia living and working in the far North is associated with difficult climatic and geographical conditions. In this case, the constant cold and consumption of contaminated water can lead to aggravation of various human disease. The Arctic zone of the Russian Federation is characterized by the richness of water resources as rapidly renewable (river runoff and its underground component), and static one to which are assigned the waters of lakes, underground waters, waters (ice) of mountain and polar glaciers. A characteristic feature of water consumption in the Arctic regions is the active use of lake water, which in a number of settlements is the main source of drinking water supply. In this regard, the assessment of the lake’s fund of Arctic zone and its ecological status is extremely topical.According to the assessments, more than 2.5 million water bodies, that is a ~2/3 of all water bodies of the country, are decoded in the Arctic zone of the Russian Federation on satellite images. Mainly, these are small water bodies, only about 975 thousand of them exceed 1 ha. The total area of the water surface of Arctic lakes is ~160 thousand km2 (slightly less than a half of the total water surface of all natural water bodies of the Russian Federation), and the total volume of water enclosed in them is ~760 km3.Even in the middle of the 20th century, the lakes of the Russian Arctic, with rare exceptions, were characterized by the highest quality of their waters, but by now the ecological status of many water bodies has deteriorated significantly. The vulnerability of Arctic lakes to pollution is enhanced both by virtue of the peculiarities of their orometry and by the simplicity of the biological communities of northern ecosystems characterized by a low degree of stability. The poor knowledge of Arctic water bodies does not allow taking the necessary preventive measures for their protection and rational use. In this connection, attention to the expansion of works on the integrated study of limnology of water bodies included in the lake fund of the Arctic zone should be paid.An estimation of water resources of lakes of the Arctic zone of Russia, their ecological status and the questions of etiology of diseases on the territories of the Far North are given in this article. The morbidity of the population of the Arctic regions of Russia today is much higher than the national average. Further development of the territory and the observed warming of the climate will lead to increasing pollution of freshwater resources with toxic substances, pathogenic microorganisms and viruses. This will exacerbate the issue of ensuring environmental safety and meeting the needs of the population in quality drinking water. The situation is further aggravated by the fact that the most affordable technologies for water treatment and wastewater treatment in conditions of low temperatures and high content of humic substances in the initial water cannot ensure the proper level of disinfection. In this regard, one of the topical issues is the creation of innovative technologies for water purification that are more adequate to the conditions of the Arctic zone of Russia.


Author(s):  
ALGIRDAS MANIUSHIS ◽  

The long-term success of Russia and its competitiveness in global markets depend crucially on the implementation of the Strategy for the Development of the Arctic Zone of the Russian Federation. And the successful implementation of large-scale projects and programs involved in the Strategy requires appropriate managerial personnel. The article deals with the formation of a modern system of training, retraining and advanced training of managerial personnel in the interests of sustainable development of the Arctic zone of the Russian Federation.


2018 ◽  
Vol 82 (3) ◽  
pp. 6-14
Author(s):  
А. М. Yerina ◽  
M. P. Ukrainets

Water is a core component of the nature environment. The problem of good quality water supply to the humans has been aggravating because the available resources of fresh water in some regions of the planet proved to be insufficient for satisfying all the consumer needs. Lack of fresh water has been a structural factor affecting the global economic development, with drinking water acquiring the characteristics of a strategic commodity. These circumstances raise the importance of solutions on saving fresh water resources and ways of their rational use from the local level to the global one. The article contains a description of the current situation with water supply and water consumption in Ukraine. As regards water supply, Ukraine, according to the hydrological classification, is undergoing water stress, in parallel with extra water consumption and high water intensity in the domestic production sector. The subject of the study is water intensity of the gross domestic product, its main factors and ways of reduction. The object of the study is seven Ukrainian regions across which the river Dnieper flows, and the city of Kyiv. A significant variation of water intensity is observed in administrative and territorial units located in the Dnieper basin, which is caused by the varying industrial capacities, varying systems of technical water supply at industrial enterprises, and varying scopes of fresh water use in water supply for agricultural and utility needs, lack of advanced systems for water supply in some of the regions, which causes large losses of water and high water intensity in some production facilities. The impact from the above mentioned factors on the regional water intensity is assessed by the regression model on panel data. The specific conditions of the business operation in some regions of the Dnieper basin are represented in the model by dummy variables. By the model of water intensity of GDP, the largest one is the impact from industrial specialization of a region (especially Dnipropetrovsk, Zaporizhzhia, Kyiv and Kherson regions), the existence of water recycling systems at industrial enterprises, scopes of water drainage and capacities of sewage treatment plants. Effective use, rehabilitation and protection of water resources, improvement of water quality, and reduction of water intensity in the production facilities through taking technological and economic measures in water consumption are considered as important factors of the national security. 


2014 ◽  
Vol 34 (1) ◽  
pp. 171-178 ◽  
Author(s):  
Ana C. Barana ◽  
Viviani M. B. Botelho ◽  
Giovana K. Wiecheteck ◽  
Maria M. R. Doll ◽  
Deise R. S. Simões

Agroindustries are major consumers of water. However, to adapt to environmental trends and be competitive in the market, they have sought rational use of water through water management in their activities. Cleaner Production can result in economic, environmental and social benefits, and in actions that promote reduction in water consumption. This case study was conducted in a slaughterhouse and poultry cold storage processing plant and aimed to identify points of excessive water consumption, and to propose alternatives for managing water resources by reducing consumption. Consumption data are presented in relation to the processing stages with alternatives proposed for the rational use of water, such as closure of mains water during shift changes. Following the implementation of recommendations, a reduction in water consumption of approximately 11,137 m³ per month was obtained, which equates to a savings of US$ 99,672 per year. From this study, it was concluded that the company under review could develop various improvement actions and make an important contribution to the preservation of water resources in the region where it operates.


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