scholarly journals Russia’s Policy Transition to a Hydrogen Economy and the Implications of South Korea–Russia Cooperation

Energies ◽  
2021 ◽  
Vol 15 (1) ◽  
pp. 127
Author(s):  
Kim Youngok ◽  
Yi Eunkyung ◽  
Son Hyunik

Leading countries are developing clean energy to replace fossil fuels. In this context, Russia is changing its energy policy towards fostering new energy resources, such as hydrogen and helium. Hydrogen will not only contribute to Russia’s financial revenue by replacing natural gas, but will also provide a basis for it to maintain its dominance over the international energy market by pioneering new energy markets. Russia is aiming to produce more than two million tons of hydrogen fuel for export to Europe and Asia by 2035. However, it is facing many challenges, including developing hydrogen fuel storage systems, acquiring the technology required for exporting hydrogen, and building trust in the fuel market. Meanwhile, South Korea has a foundation for developing a hydrogen industry, as it has the highest capacity in the world to produce fuel cells and the ability to manufacture LNG: (liquefied natural gas) carriers. Therefore, South Korea and Russia have sufficient potential to create a new complementary and reciprocal cooperation model in the hydrogen fuel field. This study examines the present and future of Russia’s energy policy in this area as well as discusses South Korea and Russia’s cooperation plans in the hydrogen fuel sector and the related implications.

2019 ◽  
Vol 14 (2) ◽  
pp. 232-239
Author(s):  
Ana-Maria Iulia Şanta

Abstract The European Union develops a new energy policy as an answer to the challenges of climate change which is a global issue affecting all of us. The package “Clean Energy for All Europeans” adopted by the European Commission in 2016, contains instruments for a new energy policy at the level of the European Union, based on an Energy Union, on promoting energy efficiency and the use of Clean Energy. These are the first steps in creating an institutional and legal framework for a common energy market of the European Union. This way the Internal Market of the European Union would be completed by a common energy market and the result would be a consolidated European Union. This is the research hypothesis the present paper is dealing with. It analyzes as well the impact of the new energy policies on the business environment in terms of new innovative business models at European Union level. The research is based on an interdisciplinary approach considering aspects of European policy, European law, business and economics. Qualitative research methods, such as the analysis of European regulations and provisions representing the basis for a harmonized framework in the energy sector at European Union level and case studies from European Union Member States will be applied. Relevant indicators provided by the European Commission and by Eurostat statistics analyzed in the present paper will complete this assessment.


2011 ◽  
Vol 148-149 ◽  
pp. 97-100
Author(s):  
Xu Gang Wang ◽  
Guang Qi Cao ◽  
Zhi Guang Guan ◽  
Zu Yu Zhao

Wind power is an important direction of new energy, which has no pollution, no consuming fossil fuels, and no producing waste, which is widely used at this stage of clean energy. The small stand alone wind power has been paid more and more attention due to its low cost, flexible installation, strong adaptability. This paper introduces the mechanical and electrical structure, which are used in KW level stand alone mode wind turbine automatically track and yaw system. The motion rules and control strategies of the tracking and yaw system are discussed and then the control program flow is provided. The PIC16F873 chip is used as controller for this part in this system. It can fully meet the design requirements, which will reduce costs and increase the system's control ability. This system can automatically track and yaw, according to the wind direction and wind power.


Author(s):  
Kathleen Araújo

The discovery of oil in Pennsylvania in 1859 was a relatively inconspicuous precursor to what would become an epic shift into the modern age of energy. At the time, the search for “rock oil” was driven by a perception that lighting fuel was running out. Advances in petrochemical refining and internal combustion engines had yet to occur, and oil was more expensive than coal. In less than 100 years, oil gained worldwide prominence as an energy source and traded commodity. Along similar lines, electricity in the early 1900s powered less than 10% of the homes in the United States. Yet, in under a half a century, billions of homes around the world were equipped to utilize the refined form of energy. Estimates indicate that roughly 85% of the world’s population had access to electricity in 2014 (World Bank, n.d.b). For both petroleum and electricity, significant changes in energy use and associated technologies were closely linked to evolutions in infrastructure, institutions, investment, and practices. Today, countless decision-makers are focusing on transforming energy systems from fossil fuels to low carbon energy which is widely deemed to be a cleaner, more sustainable form of energy. As of 2016, 176 countries have renewable energy targets in place, compared to 43 in 2005 (Renewable Energy Policy Network for the 21st Century [REN21], 2017). Many jurisdictions are also setting increasingly ambitious targets for 100% renewable energy or electricity (Bloomberg New Energy Finance [BNEF], 2016). In 2015, the G7 and G20 committed to accelerate the provision of access to renewables and efficiency (REN21, 2016). In conjunction with all of the above priorities, clean energy investment surged in 2015 to a new record of $329 billion, despite low, fossil fuel prices. A significant “decoupling” of economic and carbon dioxide (CO2) growth was also evident, due in part to China’s increased use of renewable energy and efforts by member countries of the Organization for Economic Cooperation and Development (OECD) to foster greater use of renewables and efficiency (REN21, 2016).


Energies ◽  
2019 ◽  
Vol 12 (5) ◽  
pp. 791 ◽  
Author(s):  
Michail Tsangas ◽  
Mejdi Jeguirim ◽  
Lionel Limousy ◽  
Antonis Zorpas

Natural gas reserves have been recently found offshore of Cyprus. Hence, a new energy sector is under development, creating potential for raised welfare for the small insular EU member. Several social and economic benefits could be achieved from the resources’ exploitation. However, natural gas is a non-renewable energy source, connected with the major environmental issues of fossil fuels. The research goal of this work was to evaluate the sustainability of the new hydrocarbons sector. This was attained using a set of indicators, developed from the combination of PESTEL (Political, Economic, Technical, Social, Environmental, Legal) and SWOT (Strengths, Weaknesses, Opportunities, Threats) analyses. These were quantified using the Analytical Hierarchy Process (AHP) weighting method. They were pairwise compared and evaluated, resulting to a size for each one. The judgements of four evaluators, representing diverse interested parties, were used. The strengths and opportunities of the sector were found to be more than the weaknesses and threats. The relevant indicators quantification demonstrates also that the value of the positives is higher than the negatives. Therefore, if the first are enhanced and the latter are mitigated, there is sustainability potential. The sectors environmental issues are evaluated as the most important, followed by the economic. The other takes lower but comparatively significant values, and must be handled accordingly. These results lead to useful conclusions and could be exploited for decision-making and policies formulation.


2012 ◽  
Vol 616-618 ◽  
pp. 1128-1132
Author(s):  
Yong Cun Guo ◽  
Gang Cheng ◽  
Kun Hu ◽  
Peng Yu Wang

As human overexploitation of non-renewable fossil fuels such as mining resources, the global environment has been severely polluted and damaged, which also poses a threat to human's health. So it is full of demands for renewable and clean energy sources. At present R & D of new energy is also increasing emphasised around the world. HDR as a renewable clean geothermal resources, with large reserves, widely distributed, heat, environmentally friendly development, through the heat exchange technology for power generation, which has a strong potential value.To actively develop new energy and promote the application of HDR power generation technology,we start from the basic characteristics of the HDR, and explore the basic principles of HDR power generation, the key technologies and the development of economic conditions. Meanwhile combined with the geographical characteristics of the environment in China, from the perspective of integration of subject resources,finally we constructively put forward a three-stage strategy for HDR power generation development plan.


Energies ◽  
2022 ◽  
Vol 15 (1) ◽  
pp. 311
Author(s):  
Charles Bronzo Barbosa Farias ◽  
Robson Carmelo Santos Barreiros ◽  
Milena Fernandes da da Silva ◽  
Alessandro Alberto Casazza ◽  
Attilio Converti ◽  
...  

The unbridled use of fossil fuels is a serious problem that has become increasingly evident over the years. As such fuels contribute considerably to environmental pollution, there is a need to find new, sustainable sources of energy with low emissions of greenhouse gases. Climate change poses a substantial challenge for the scientific community. Thus, the use of renewable energy through technologies that offer maximum efficiency with minimal pollution and carbon emissions has become a major goal. Technology related to the use of hydrogen as a fuel is one of the most promising solutions for future systems of clean energy. The aim of the present review was to provide an overview of elements related to the potential use of hydrogen as an alternative energy source, considering its specific chemical and physical characteristics as well as prospects for an increase in the participation of hydrogen fuel in the world energy matrix.


2012 ◽  
Vol 52 (1) ◽  
pp. 195
Author(s):  
Doug Young

The Clean Energy Act (CEA) and its related legislation received royal assent on 18 November 2011, ushering in a new era for the Australian industry, and for those who deal with it. Building on the 2007 National Greenhouse and Energy Reporting Scheme (NGERS), which mandates the measurement and reporting of greenhouse gas emissions and electricity production and consumption, the CEA imposes direct obligations on: individual industrial operations (facilities) that emit more than 25,000 tonnes of carbon dioxide, or its other equivalent greenhouse gases, from particular sources, in a year; suppliers of natural gas (at the point of last supply before the gas is burnt or otherwise used), for the emissions that will be generated when the gas is burnt; and, operators of land-fill facilities, such as local councils. While the primary emissions targeted by the scheme are produced by burning fossil fuels, they also include emissions such as the methane released when coal is mined. The obligations include the option of surrendering carbon units for each tonne of emissions, however, if this optional step is not performed, the mandatory payment of a tax, which far exceeds the cost of a unit, is enforced. The Australian Government will sell carbon units at a fixed price for the first three years, starting at $23, after which units will be auctioned for between $15 and the expected international unit price, plus $20. The supply of domestic units will be unlimited for the three fixed price years, but will be subject to a reducing cap in following years, consistent with the Government policy of reducing Australia’s emissions. The Government has created a monopoly for the supply of units for the first three years by prohibiting the use of overseas-sourced carbon units, and by only allowing 5% of the unit surrender requirements to be comprised of Australian generated carbon credits. Thereafter, for the first five of the flexible-charge years, only half the units can be sourced from overseas, with any apparent saving likely to be offset by the various taxes and charges applicable to the use of those units. Certain fuels will also be separately taxed. Entities, however, which acquire, manufacture or import fuels and would otherwise be entitled to a fuel tax credit, may be able to assume direct liability thus enabling them to acquire or manufacture fuel, free of the carbon tax component. Where the imposts will cause competitive disadvantage to industries that compete with entities from other countries that do not have similar imposts, some assistance is provided in the form of allocated units provided at no charge. Assistance is also available to coal-fired electricity generators, producers of liquefied natural gas, operators of gassy coal mines, and the steel industry (not discussed in this paper). This paper also explains, in detail, how liability is created, how to determine which entities are liable, the means of assigning liability to other entities, and the assistance available to various industries to help deal with the financial impact of the scheme on their operations. It also outlines the key concepts that underpin the scheme.


Author(s):  
R. K. Bhargava

The three fossil fuels, coal, oil and natural gas, are the major and depletable energy resources of the world. By end of the twentieth century, approximately 85% of the total primary energy consumed globally came from the three fossil fuels. In the last two years or so oil prices have almost doubled, whereas, price of natural gas has also increased at a faster rate. Indications and predictions are that these prices will stay for years to come because of imbalance in supply and demand and political instability in the Middle East and Africa regions. In such a dynamic energy market, companies dealing with energy resources, energy related equipment suppliers and service providers will face a stiffer competition. This paper provides a comprehensive overview of the global energy market emphasizing the following key issues: the status of proven fossil fuels reserves which are recoverable with the today’s technology; trends of production and consumption of major fuels; trends of electric power generation and industrial gas turbine market for power generation; and emissions related issues. A brief discussion on gas monetization and IGCC (Integrated Gasification and Combined Cycle) technology is also included. In addition to presenting an in-depth analysis of the energy related data for the last 2–3 decades, projections are provided for the next two decades (until 2025). The presented data will be useful in identifying world’s areas and countries where potentials for energy related businesses are expected to grow in the coming years. The presented study is a timely topic of discussion in presence of a highly volatile energy market and companion to the theme of the Turbo Expo 2006 “The Global Market and Cooperative Ventures”.


2011 ◽  
Vol 63 (2) ◽  
pp. 260-275
Author(s):  
Miroslav Antevski ◽  
Dobrica Vesic ◽  
Ljiljana Kontic

Energy security may be defined, generally, as the availability of clean energy sources at affordable prices. If a country or region does not have its own sources of energy in the necessary extent, their energy security is in a long-term threat. To this point, countries seek to achieve diversification of energy sources and transport routes. This is one of the reasons for launching new energy projects in Europe and Asia; the other is an attempt by Russia to consolidate its dominant position on the part of the international energy market; the third factor is the oil transnational corporations. Russia is the dominant natural trading partner and Europe?s energy supplier. Problems with the transit of natural gas and oil from Russia to Europe, which directly threaten its energy security, were the reason to launch the new energy projects.


Author(s):  
M. A. Ancona ◽  
M. Bianchi ◽  
L. Branchini ◽  
F. Catena ◽  
A. De Pascale ◽  
...  

Abstract In the last years, the increased demand of the energy market has led to the increasing penetration of renewable energies, in order to achieve the primary energy supply. Simultaneously, natural gas is predicted to play a vital and strategic role in the energy market, on account of its lower environmental impact than other fossil fuels, both as gaseous fuel for stationary energy generation and as liquefied fuel. In particular, the Liquefied Natural Gas (LNG) is becoming interesting in transports as an alternative to diesel fuel, allowing a decrease in pollutant emissions and a reduction in fuel’s costs for the users. As a consequence, in this context, the LNG production process can be seen as an electrical storage system by the integration with renewables, becoming an interesting solution to avoid the issues related to intermittency and unpredictability of renewables. The aim of the paper is the development of a calculation code and the evaluation of the off-design operation of a LNG production plant coupled with wind renewable energy sources. With this purpose, on the basis of mathematical models from literature, a dedicated calculation code has been developed, able to thermodynamically analyze both design and off-design operation of the integrated process. In addition, in this study the proposed model is employed to investigate the correct integration between renewables and LNG generation, in order to define the optimal choice of the wind size for a given LNG production plant. With this purpose, the LNG plant size of a real prototype has been considered and an economic analysis has been carried out, accounting for the revenue of the LNG sale, the costs for NG purchase, for operation and maintenance and for the initial investment costs, but also with the aim to minimize the electricity introduction into the grid, considered in this study as a penalty.


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