Atomic Icebreakers
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Northern Sea Route Cargo Flows and Infrastructure- Present State And
Northern Sea Route Cargo Flows and Infrastructure – Present State and Future Potential By Claes Lykke Ragner FNI Report 13/2000 FRIDTJOF NANSENS INSTITUTT THE FRIDTJOF NANSEN INSTITUTE Tittel/Title Sider/Pages Northern Sea Route Cargo Flows and Infrastructure – Present 124 State and Future Potential Publikasjonstype/Publication Type Nummer/Number FNI Report 13/2000 Forfatter(e)/Author(s) ISBN Claes Lykke Ragner 82-7613-400-9 Program/Programme ISSN 0801-2431 Prosjekt/Project Sammendrag/Abstract The report assesses the Northern Sea Route’s commercial potential and economic importance, both as a transit route between Europe and Asia, and as an export route for oil, gas and other natural resources in the Russian Arctic. First, it conducts a survey of past and present Northern Sea Route (NSR) cargo flows. Then follow discussions of the route’s commercial potential as a transit route, as well as of its economic importance and relevance for each of the Russian Arctic regions. These discussions are summarized by estimates of what types and volumes of NSR cargoes that can realistically be expected in the period 2000-2015. This is then followed by a survey of the status quo of the NSR infrastructure (above all the ice-breakers, ice-class cargo vessels and ports), with estimates of its future capacity. Based on the estimated future NSR cargo potential, future NSR infrastructure requirements are calculated and compared with the estimated capacity in order to identify the main, future infrastructure bottlenecks for NSR operations. The information presented in the report is mainly compiled from data and research results that were published through the International Northern Sea Route Programme (INSROP) 1993-99, but considerable updates have been made using recent information, statistics and analyses from various sources. -
North Pole: the Ultimate Arctic Adventure
NORTH POLE: THE ULTIMATE ARCTIC ADVENTURE Imagine standing at the top of the Earth, glass of champagne in hand – and everywhere you look is south. That is the essence of the 14-day North Pole: The Ultimate Arctic Adventure aboard 50 Years of Victory, the most powerful nuclear icebreaker in the world. Crush through multiyear ice on the Arctic Ocean, sightsee by helicopter on the lookout for walruses, seals, whales, and polar bears, or take a tethered hot-air balloon ride at 90º N, weather permitting. Possible stops at the island of Franz Josef Land will have you in awe of the flora and fauna as you visit seabird colonies and retrace the footsteps of early explorers. 2019 MANDATORY TRANSFER PACKAGE INCLUDES One night’s pre- and post-expedition hotel accommodation in Helsinki with breakfast Round-trip flights from Helsinki to Murmansk Transfer to and from the ship Transfers between the airport and hotel in Helsinki 2020 MANDATORY TRANSFER PACKAGE INCLUDES: One night’s pre-expedition hotel accommodation in Helsinki Group transfer from hotel to charter flight in Helsinki on Day 2 Charter flight from Helsinki to Murmansk 01432 507 280 (within UK) [email protected] | small-cruise-ships.com Transfers to and from the ship From Helsinki, your charter flight will take you to Murmansk, Charter flight from Murmansk to Helsinki Russia, where you’ll embark on your voyage to the North Pole Group transfer from charter flight to hotel in Helsinki on and get acquainted with 50 Years of Victory, the world’s largest disembarkation day and most powerful icebreaker. -
Powered Icebreaker
IOP Conference Series: Earth and Environmental Science PAPER • OPEN ACCESS Conceptual design and technical requirements analysis of nuclear- powered icebreaker To cite this article: Hu Yang et al 2021 IOP Conf. Ser.: Earth Environ. Sci. 781 042067 View the article online for updates and enhancements. This content was downloaded from IP address 170.106.33.22 on 24/09/2021 at 20:02 5th International Symposium on Resource Exploration and Environmental Science IOP Publishing IOP Conf. Series: Earth and Environmental Science 781 (2021) 042067 doi:10.1088/1755-1315/781/4/042067 Conceptual design and technical requirements analysis of nuclear-powered icebreaker Hu Yang 1, Jianbo Rao 1 and Chenghua Zhu 2, * 1 Wuhan Institute of Shipbuilding Technology, Wuhan 430000, China 2 Wuhan Second Ship Design and Research Institute, Wuhan 430000, China *Corresponding author e-mail: [email protected] Abstract. As the Arctic’s strategic position has become increasingly prominent, China’s existing icebreaker fleet has been unable to meet the growing demand for polar affairs such as polar scientific research, Arctic shipping, and polar emergency. From the perspective of route planning, the marine environmental conditions faced by nuclear- powered icebreakers have been sorted out. The research status of domestic nuclear power plant, the selection and design of nuclear power propulsion plant and the main technical requirements were put forward. Finally, the overall plan design was carried out from the aspects of general layout, main dimensions, shaft power, -
Russian Museums Visit More Than 80 Million Visitors, 1/3 of Who Are Visitors Under 18
Moscow 4 There are more than 3000 museums (and about 72 000 museum workers) in Russian Moscow region 92 Federation, not including school and company museums. Every year Russian museums visit more than 80 million visitors, 1/3 of who are visitors under 18 There are about 650 individual and institutional members in ICOM Russia. During two last St. Petersburg 117 years ICOM Russia membership was rapidly increasing more than 20% (or about 100 new members) a year Northwestern region 160 You will find the information aboutICOM Russia members in this book. All members (individual and institutional) are divided in two big groups – Museums which are institutional members of ICOM or are represented by individual members and Organizations. All the museums in this book are distributed by regional principle. Organizations are structured in profile groups Central region 192 Volga river region 224 Many thanks to all the museums who offered their help and assistance in the making of this collection South of Russia 258 Special thanks to Urals 270 Museum creation and consulting Culture heritage security in Russia with 3M(tm)Novec(tm)1230 Siberia and Far East 284 © ICOM Russia, 2012 Organizations 322 © K. Novokhatko, A. Gnedovsky, N. Kazantseva, O. Guzewska – compiling, translation, editing, 2012 [email protected] www.icom.org.ru © Leo Tolstoy museum-estate “Yasnaya Polyana”, design, 2012 Moscow MOSCOW A. N. SCRiAbiN MEMORiAl Capital of Russia. Major political, economic, cultural, scientific, religious, financial, educational, and transportation center of Russia and the continent MUSEUM Highlights: First reference to Moscow dates from 1147 when Moscow was already a pretty big town. -
Russia's Nuclear Icebreaker Fleet
Science and Global Security, 14:25–31, 2006 Copyright C Taylor & Francis Group, LLC ISSN: 0892-9882 print / 1547-7800 online DOI: 10.1080/08929880600620559 Russia’s Nuclear Icebreaker Fleet Oleg Bukharin Garrett Park, MD, USA Nuclear icebreakers remain important for the economic survival of Russia’s Arctic re- gions and are a central element of the Northern Sea Route development strategy.Reactor life extension activities are critical to sustaining the nuclear fleet, as several of the cur- rently operated nuclear icebreakers are reaching the end of design service life. Russia is also finishing a new icebreaker and is planning to build additional nuclear ships within the next 10–15 years. Nuclear icebreaker reactors are fueled with highly-enriched ura- nium (HEU), which has to be reliably protected against theft and diversion. NORTHERN SEA ROUTE Soviet nuclear icebreaker technology was a spinoff of the nuclear submarine program. It was a useful demonstration of the civilian benefits of nuclear propul- sion. It also was seen as an important element of the national strategy to develop Russia’s Arctic regions, a vast stretch of land rich in natural resources. Historically, the development of the Russian Arctic has been closely linked to the development of the Northern Sea Route (in Russian, Severny Morskoi Put’ or Sevmorput’), which was established by the Soviet Union in the 1930s. The route connects Russia’s Atlantic and Pacific ports and has been in regular use since World War II. It is open for navigation from June to November and relies on extensive infrastructure, including the fleet of icebreakers and ice- class cargo ships, aerial reconnaissance, meteorological stations, navigational aids, and port facilities. -
Joint Barents Transport Plan Proposals for Development of Transport Corridors for Further Studies
Joint Barents Transport Plan Proposals for development of transport corridors for further studies September 2013 Front page photos: Kjetil Iversen, Rune N. Larsen and Sindre Skrede/NRK Table of Contents Table Summary 7 1 Introduction 12 1.1 Background 12 1.2 Objectives and members of the Expert Group 13 1.3 Mandate and tasks 14 1.4 Scope 14 1.5 Methodology 2 Transport objectives 15 2.1 National objectives 15 2.2 Expert Group’s objective 16 3 Key studies, work and projects of strategic importance 17 3.1 Multilateral agreements and forums for cooperation 17 3.2 Multilateral projects 18 3.4 National plans and studies 21 4 Barents Region – demography, climate and main industries 23 4.1 Area and population 23 4.2 Climate and environment 24 4.3 Overview of resources and key industries 25 4.4 Ores and minerals 25 4.5 Metal industry 27 4.6 Seafood industry 28 4.7 Forest industry 30 4.8 Petroleum industry 32 4.9 Tourism industry 35 4.10 Overall transport flows 37 4.11 Transport hubs 38 5 Main border-crossing corridors in the Barents Region 40 5.1 Corridor: “The Bothnian Corridor”: Oulu – Haparanda/Tornio - Umeå 44 5.2 Corridor: Luleå – Narvik 49 5.3 Corridor: Vorkuta – Syktyvkar – Kotlas – Arkhangelsk - Vartius – Oulu 54 5.4 Corridor: “The Northern Maritime Corridor”: Arkhangelsk – Murmansk – The European Cont. 57 5.5 Corridor: “The Motorway of the Baltic Sea”: Luleå/Kemi/Oulu – The European Continent 65 5.6 Corridor: Petrozavodsk – Murmansk – Kirkenes 68 5.7 Corridor: Kemi – Salla – Kandalaksha 72 5.8 Corridor: Kemi – Rovaniemi – Kirkenes 76 -
Atomic Icebreakers of “Taimyr” Type: Propulsion Capacity – 32 MW; Propulsion Capacity – 35 MW; Water Displacement – 19240 T
ROSATOMFLOT 2010 Summer-Autumn Transit Voyages Russian Atomic Fleet First Atomic Icebreaker “Lenin” - 03.12.1959 Atomic Icebreakers of “Taimyr” type: Propulsion Capacity – 32 MW; Propulsion Capacity – 35 MW; Water displacement – 19240 t. Water displacement 21000 t; i/b “Taimyr” – 30.06.1989 i/b “Yaygach” – 25.07.1990 Atomic icebreakers of “Arktika” type: Propulsion Capacity – 54 MW; Water displacement – 23000 t; Atomic container carrier i/b “Arktika” – 25.04.1975 “Sevmorput” – 30.12.1988 i/b “Sibir” – 28.12.1978 Propulsion Capacity – 32,5 MW; i/b “Rossia” – 21.12.1985 Water displacement – 61000 t; i/b “Sovetsky Soyuz” – 29.12.1989 Deadweight – 33900 t. i/b “Yamal” – 28.10.1992 i/b “50 Let Pobedy” – 23.03.2007 ROSATOMFLOT The Fleet On-shore Infrastructure 1308 employees 714 employees Atomic Fleet Special Vessels 4 special 6 atomic Decommissioned vessels Decommissioned icebreakers Atomic Container Carrier Sevmorput 4 i/b of Arktika mv Lepse type i/b Lenin mv Volodarsky i/b Sibir 2 i/b of Taimyr type i/b Arktika On-shore works: • base for the atomic icebreaking fleet; Atomic fleet has 16 vessels: • full complex of ship repair; Nuclear powered vessels - 10 • nuclear fuel handling; Atomic icebreakers - 9 • radioactive wastes handling. Atomic container carrier - 1 Special vessels - 6 The summer-autumn period of 2010 was marked by a number shipping operations which involved atomic icebreakers under operation of Rosatomflot. For the first time in the history of shipping a tanker of a 100 000 tons deadweight was piloted along the Northern Sea Route. Tanker SCF-Baltica (Aframax) under the flag of Liberia of 117 000 t deadweight and ice-class Arc 5 loaded 70 thousand tons of gas condensate and left the port of Murmansk (Russia) on 14 August. -
Northern Sea Route: Development Prospects and Uncertainties
Northern Sea Route: Development Prospects and Uncertainties January 2020 Northern Sea Route: Development Prospects and Uncertainties In 2018, the Northern Sea Route development project was added to Russia’s “2019-2024 Comprehensive Long-Haul Infrastructure Modernization and Expansion Plan” with a budget of over RUB 580 billion (USD 9.25 billion). Rosatom, the Russian state nuclear agency, has announced plans to establish a commercial shipping company and compete with the largest companies in the container shipping business. On the global market, the idea of developing the Northern Sea Route has generated controversial discussions on ecology, climate change and strong competition in the market. The largest shippers and manufacturers, including CMA CGM, MSC and Nike, have stated they will not ship goods through the Arctic Ocean due to the high impact on the regional ecology. PwC has recently completed a comprehensive analysis of the opportunities and threats related to developing the Northern Sea Route. Below, we summarize the major issues and challenges covered in our research. Who needs the Northern Sea Route? Although the Northern Sea Route was opened for The development of the Northern Sea Route took a international navigation back in 1991, step traffic new step forward when Yamal LNG facilities were dynamics was recorded only after 2012. The commissioned in 2017, followed by the inclusion of increase was driven by amendments to Federal Law the Northern Sea Route project in the “2019-2024 No. 155 “On Internal Waters, Territorial Sea and Comprehensive Long-Haul Infrastructure Contiguous Zone”, which legally defined the Modernization and Expansion Plan” with a total boundaries of the Northern Sea Route and budget of over RUB 580 billion for the next five established the Northern Sea Route Administration years. -
MARITIME ACTIVITY in the HIGH NORTH – CURRENT and ESTIMATED LEVEL up to 2025 MARPART Project Report 1
MARITIME ACTIVITY IN THE HIGH NORTH – CURRENT AND ESTIMATED LEVEL UP TO 2025 MARPART Project Report 1 Authors: Odd Jarl Borch, Natalia Andreassen, Nataly Marchenko, Valur Ingimundarson, Halla Gunnarsdóttir, Iurii Iudin, Sergey Petrov, Uffe Jacobsen and Birita í Dali List of authors Odd Jarl Borch Project Leader, Nord University, Norway Natalia Andreassen Nord University, Norway Nataly Marchenko The University Centre in Svalbard, Norway Valur Ingimundarson University of Iceland Halla Gunnarsdóttir University of Iceland Iurii Iudin Murmansk State Technical University, Russia Sergey Petrov Murmansk State Technical University, Russia Uffe Jakobsen University of Copenhagen, Denmark Birita í Dali University of Greenland 1 Partners MARPART Work Package 1 “Maritime Activity and Risk” 2 THE MARPART RESEARCH CONSORTIUM The management, organization and governance of cross-border collaboration within maritime safety and security operations in the High North The key purpose of this research consortium is to assess the risk of the increased maritime activity in the High North and the challenges this increase may represent for the preparedness institutions in this region. We focus on cross-institutional and cross-country partnerships between preparedness institutions and companies. We elaborate on the operational crisis management of joint emergency operations including several parts of the preparedness system and resources from several countries. The project goals are: • To increase understanding of the future demands for preparedness systems in the High North including both search and rescue, oil spill recovery, fire fighting and salvage, as well as capacities fighting terror or other forms of destructive action. • To study partnerships and coordination challenges related to cross-border, multi-task emergency cooperation • To contribute with organizational tools for crisis management Project characteristics: Financial support: -Norwegian Ministry of Foreign Affairs, -the Nordland county Administration -University partners. -
Argus Nefte Transport
Argus Nefte Transport Oil transportation logistics in the former Soviet Union Volume XVI, 5, May 2017 Primorsk loads first 100,000t diesel cargo Russia’s main outlet for 10ppm diesel exports, the Baltic port of Primorsk, shipped a 100,000t cargo for the first time this month. The diesel was loaded on 4 May on the 113,300t Dong-A Thetis, owned by the South Korean shipping company Dong-A Tanker. The 100,000t cargo of Rosneft product was sold to trading company Vitol for delivery to the Amsterdam-Rotter- dam-Antwerp region, a market participant says. The Dong-A Thetis was loaded at Russian pipeline crude exports berth 3 or 4 — which can handle crude and diesel following a recent upgrade, and mn b/d can accommodate 90,000-150,000t vessels with 15.5m draught. 6.0 Transit crude Russian crude It remains unclear whether larger loadings at Primorsk will become a regular 5.0 occurrence. “Smaller 50,000-60,000t cargoes are more popular and the terminal 4.0 does not always have the opportunity to stockpile larger quantities of diesel for 3.0 export,” a source familiar with operations at the outlet says. But the loading is significant considering the planned 10mn t/yr capacity 2.0 addition to the 15mn t/yr Sever diesel pipeline by 2018. Expansion to 25mn t/yr 1.0 will enable Transneft to divert more diesel to its pipeline system from ports in 0.0 Apr Jul Oct Jan Apr the Baltic states, in particular from the pipeline to the Latvian port of Ventspils. -
EURASIA States Continue to Invest in Russian Energy
EURASIA States Continue to Invest in Russian Energy OE Watch Commentary: The Arctic LNG 2 project is located on the eastern side of the Gulf of Ob-an extension of the Arctic Kara Sea. It is opposite Novatek’s “Under the terms of the deal, Total buys original Arctic LNG project designed to exploit the vast LNG fields of the Yamal 10% in Arctic LNG 2 and has an option to (Gydan) Peninsula as the accompanying excerpted article from Interfax reports. Total is a major energy giant based in France, while Mitsubishi of Japan, Kogas increase its stake to 15% if Novatek reduces of South Korea, Nuovo of Italy and Saudi Arabia have also been in talks with its participation interest below 60%.” Novatek. End OE Watch Commentary (Grau) Source: “Novatek closes sale of 10% stake in Arctic LNG 2 to Total,” Interfax, 7 March 2019. https://www.interfax.com The Arctic LNG 2 project involves building three LNG trains at 6.6 million tons per annum each, using gravity-based structure (GBS) platforms. [An “LNG train” is a liquefied natural gas plant’s liquefaction and purification facility. In order to transport LNG from one country to another, its volume has to be dramatically reduced. To do this, the gas must be liquefied by refrigeration to less than -161 °C. This refrigeration process is conducted in multiple units arranged sequentially-like a train.] The project is based on the hydrocarbon resources of the Utrennoye field on the Gydan Peninsula. The final investment decision on the project is expected to be made in the second half of 2019, and production at the first train of the plant is scheduled to start in 2023. -
Russian Arctic Nuclear Development
Russia’s plans for Arctic development depend on marine nuclear power Peter Lobner 30 October 2019 1 Rational for marine nuclear power in the Arctic Vessel propulsion was the first Arctic application of marine nuclear power, offering the following useful attributes: Very powerful propulsion plants enable expanded mission capabilities. Without the need for a propulsion air supply, under ice operations became practical. Operations are not restricted by a need to refuel frequently. Long-duration missions can be conducted without support. Non-propulsion applications of marine nuclear power include delivery of electric power, process heat and/or desalinated water to towns, facilities and systems in remote Arctic coastal regions and to off- shore facilities and systems sited on above-water platforms or on the seabed. A large power source is needed to support remote towns and development and operation of large-scale industrial and military facilities and systems. Can minimize the amount of on-shore development needed before power delivery can start from a transportable power plant. Can meet high power demands in the hostile marine environments of Arctic off-shore platforms and the Arctic seabed. Can meet Arctic Council requirements for low carbon emissions in the Arctic. 2 Orientation to the Arctic region 3 Arctic boundary As defined by the US Arctic Research and Policy Act US Arctic Research Commission map, rotated 180 degrees, based on the US Arctic Research and Policy Act of 1984 (Amended 1990). Source: https://www.arctic.gov/maps.html 4 Arctic boundary As defined by the Arctic Council On 11 May 2017, the eight member states of the Arctic Council approved a legally binding agreement entitled, “Agreement on Enhancing International Arctic Scientific Cooperation,” which is intended to ease the movement of scientists, scientific equipment and data sharing across the North.