EU Can solve for ice-breakers – new funding in places like Finland prove
YLE 14, YLE, 1/25/15, YLE is a very large Finnish news network and broadcasting service, “EU emissions directive opens way for Finnish icebreakers,” http://yle.fi/uutiset/eu_emissions_directive_opens_way_for_finnish_icebreakers/7052183, NN
A new directive aimed at curbing shipping industry sulphur emissions could open up new opportunities for Finnish icebreakers. The directive, which comes into force in 2015, will reduce the power of freight vessels, making it more difficult for them to move through ice-packed waters. The shipping industry was the most ardent critic of the European Union directive aimed at restricting the sulphur content used in shipping industry fuels. It pointed out that the measure would require vessels to be fitted with costly “scrubbers” to remove sulphur from emissions before they enter the atmosphere. However the state-owned icebreaker company Arctia Shipping is planning new fleet acquisitions in anticipation of greater demand for its icebreaking services. “At the moment our fleet comprises seven icebreakers, but in the future this could reach the double-digits, purely based on the needs of the Baltic,” said Arctia Shipping chief executive Tero Vauraste. Greater need in the Baltic The Baltic Sea is classified as a Sulphur Emission Control Area under the directive, which means stricter limits than for waters in southern Europe. The new limit for the Baltic Sea, set at a tenth of current levels, will come into force in 2015. In EU waters outside the Sulphur Emission Control Areas, a limit of 0.5 percent will apply from 2020. Vauraste could not yet say with any certainty when new vessels would be acquired, but believes they will be needed. “In the future freight vessels will have lower engine power than today, and because of this more icebreaking equipment will be required as the need for assistance grows,” he added. The icebreaker CEO noted that Arctia Shipping is debt free and has the funds needed to invest in new fleet purchases.
The EU is substantially increasing its ice-breaker fleet – that solves – Russia proves
AMSA 09, AMSA, nearest date given is 2009, AMSA is a scientific organization that studies exploration in the arctic and the effect of infrastructure on ecosystems, “Arctic Icebreakers,” http://www.arctis-search.com/Arctic+Icebreakers, NN
Government and private icebreakers are a key resource in the development of the Arctic. Generally, icebreakers are able to carry out the following roles: maintenance of shipping tracks in ice-covered waters, close escort of shipping in ice, provision of ice information, sovereignty support/representation, search and rescue, environmental response, command platform for emergency response, medical evacuation in remote areas, harbor breakout, electrical power supply, science platform, constabulary function (maritime security), transporting cargo (northern re-supply and logistic support) and fisheries conservation and protection. There are some 50 icebreakers in the world fleet. The Russian fleet is by far the largest and most powerful, counting icebreakers powered by nuclear power plants, with five of 75,000 shaft horsepower (shp). The Russian Federation recently announced the allocation of some 15 billion rubles to build another 75,000 shp icebreaker. The next largest fleet of Arctic-class icebreakers is that of the Canadian Coast Guard. The Canadian Government recently announced an investment of $C720 million to provide an Arctic-class replacement for the CCGS Louis S. St-Laurent. Most other countries that operate icebreakers own one or two, other countries such as Denmark and Norway have small fleets of ice-strengthened vessels generally intended for fisheries patrol and interdiction. The world’s icebreaker fleets are aging and will require significant investment during the coming years to maintain their effectiveness and capability. For instance, Canadian icebreakers are on the average 30-plus years old, while those of the U.S. are 30 years old, with the exception of the USCGC Healy, which was built in 2000. Of note is the recently issued report, Polar Icebreakers in a Changing World, which is a needs analysis of U.S. icebreaking requirements in the coming years. In addition, it is also known that a number of other countries are either building or planning construction of new icebreakers primarily intended for science research, namely the European Union and South Korea. Icebreaker construction is very specialized and very expensive. Steel is thicker and stronger than that required for normal cargo ship construction. In addition, there are other necessary specific features, such as horizontal and vertical construction members that are deeper and stronger, reinforced icebelts and redundant features. These details are specified in a number of national regulations governing construction of ice-class ships, namely those of the Russian Federation, Canada, Finland and Sweden; as well as classification societies such as the American Bureau of Shipping, Det Norske Veritas, Germanischer Lloyd and Lloyd’s Register. Recently, the International Association of Classification Societies approved their Polar Class construction standard as one of a number of “Unified Requirements.” Classification societies have one year to enter the new requirement in their respective rules. Classification societies have the new requirements in their respective rules, and some are expected to keep their existing rules.
IOOS The European Union is the leading force in Ocean Observation satellites – US interference will just get in the way
ESA 14, ESA, 4/3/14, ESA is a European science research network, “Europe lofts first Copernicus environmental satellite,” http://www.esa.int/Our_Activities/Observing_the_Earth/Copernicus/Sentinel-1/Europe_lofts_first_Copernicus_environmental_satellite, NN
The ability of European citizens, policymakers and service providers to access key environmental data on a routine basis will take a major step forward following the launch today of ESA’s Sentinel-1A satellite. The 2.3 tonne satellite lifted off on a Soyuz rocket from Europe’s Spaceport in Kourou, French Guiana at 21:02 GMT (23:02 CEST). The first stage separated 118 sec later, followed by the fairing (209 sec), stage 2 (287 sec) and the upper assembly (526 sec). After a 617 sec burn, the Fregat upper stage delivered Sentinel into a Sun-synchronous orbit at 693 km altitude. The satellite separated from the upper stage 23 min 24 sec after liftoff. “Sentinel-1A opens a new page in the implementation of Copernicus, the second EU flagship space initiative, after the Galileo positioning system,” said Jean-Jacques Dordain, Director General of ESA. “The Copernicus programme will provide European citizens with the most ambitious space-based services in the world for environmental and security applications. “The cooperation between the EU and ESA Member States in the funding of the space infrastructure, the combination of competences and expertise between the European Commission and ESA, and the capabilities of European industry, are putting Europe at the forefront of utilisation of space to benefit citizens, policymakers and the economy.” Sentinel-1 launch on a Soyuz Access the video The mission is the first of six families of dedicated missions that will make up the core of Europe’s Copernicus environmental monitoring network. Copernicus will provide operational information on the world’s land surfaces, oceans and atmosphere to support environmental and security policymaking and the needs of individual citizens and service providers. Designed as a two-satellite constellation – Sentinel-1A and -1B – the C‑band radar mission will provide all-weather day-and-night imagery of land and ocean surfaces of Europe, Canada and the polar regions in near‑real time. Equipped with a powerful ‘synthetic aperture radar’, it will ensure continuity with the European Envisat satellite, which stopped working in 2012 after 10 years of service. The technology is based on a long heritage of radar satellites, starting with ERS-1 23 years ago. “The launch of the first Sentinel-1 satellite marks a change in philosophy for our Earth observation programmes,” said Volker Liebig, ESA’s Director of Earth Observation Programmes. “In meteorology, satellites have been providing reliable data for weather forecasts for over 35 years. “With the Copernicus programme, we will now have a similar information source for environmental services as well as for applications in the security and disaster management domain.” In addition to transmitting data to a number of ground stations around the world for rapid dissemination, Sentinel-1 is also equipped with a laser terminal to transmit data via European Data Relay System satellites in geostationary orbit for continual data delivery. Radar vision The satellite’s solar panels and antenna are now being deployed in a complex sequence expected to take around 11 hours. The completion of deployment will be announced at www.esa.int/sentinel-1 and via Twitter @ESA_EO After the initial ‘launch and early orbit phase’, the satellite will go into the commissioning phase, when all instruments will be checked and calibrated. The mission is expected to begin operations within three months. Thales Alenia Space Italy is the prime contractor and Airbus DS Germany is responsible for the C‑band radar. Airbus DS UK supplied the central radar electronics subsystem. Data from the Sentinel satellites will be provided on a free and open basis. Raw data will be analysed and processed by public and private sector service providers.
The EU is leading the way in Ocean Observation technology – just needs the final push to implement them
Al Jazeera 14, Al Jazeera, 4/4/14, Al Jazeera is a large international news network known for being incredibly un-biased, “Europe launches environment satellite,” http://www.aljazeera.com/news/europe/2014/04/europe-launches-environment-satellite-2014444541424523.html, NN
Europe has launched the first in a constellation of hi-tech satellites designed to monitor Earth for climate change and environmental damage and help disaster relief operations. Sentinel-1A, a satellite designed to scan the Earth with cloud-penetrating radar, lifted off on Thursday evening aboard a Soyuz rocket from Kourou, French Guiana, the European Space Agency (ESA) said. The satellite is the first of half a dozen orbital monitors that will be built and launched under the $5bn Copernicus project, a joint undertaking of the ESA and the European Union. It will be followed by a partner, Sentinel-1B, due to be launched towards the end of next year, according to the AFP news agency. Operating 180 degrees apart, at an altitude of about 700km, between them the pair will be able to take a radar picture of anywhere on Earth within six days. Radar scanning has a range of uses, from spotting icebergs and oil slicks to detecting rogue logging and ground subsidence. The data will be widely accessible to the public and is likely to have uses that go beyond the environment, such as in construction and transport. Environmental disasters By mapping areas stricken by flood or earthquake, the monitors will also be able to help emergency teams identify the worst-hit areas and locate roads, railway lines and bridges that are still passable, the ESA says. The others in the series are Sentinel-2, which will deliver high-resolution optical images of forests and land use; Sentinel-3, providing ocean and land data, and Sentinels 4 and 5, which will monitor Earth's atmospheric composition the basic component in fine-tuning understanding about greenhouse gases. The goldmine of data expected to be thrown up by the satellite constellation will be more accessible to the public than any previous Earth-monitoring programme. The potential applications go beyond stewardship of the environment. They could help shipping firms, farmers and construction companies, too. "Copernicus is the most ambitious Earth observation programme to date," ESA said. "It will provide accurate, timely and easily accessible information to improve the management of the environment, understand and mitigate the effects of climate change and ensure civil security." Copernicus replaces Envisat, one of the most successful environmental satellites in space history, whose mission ended in 2012. It was named last year in honour of the 16th-century Polish astronomer who determined that the Earth orbited the Sun, and not the other way round, as convention had it at the time.
Integrated European observation is key to broader data – tech is world class, just a question of implementation.
EMD 2014
REPORT FROM THE JOINT EUROGOOS/EMODNET/EMB/JRC WORKSHOP AT THE EUROPEAN MARITIME DAY IN BREMEN,The importance of an integrated end-to-end European Ocean Observing System: key message of EMD 2014 http://eurogoos.eu/2014/06/09/eoos-at-emd-bremen-2014/
Ocean observations are essential for marine science, operational services and systematic assessment of the marine environmental status. All types of activities in the marine environment require reliable data and information on the present and future conditions in which they operate. Many maritime economic sectors (e.g. oil and gas exploration, maritime transport, fisheries and aquaculture, maritime renewable energy) directly benefit from easily accessible marine data and information in several ways: improved planning of operations, risk minimization though increased safety, improved performance and overall reduced cost. Other activities, such as deep sea mining and marine biotechnology, also benefit from specialized deep-sea observations that were not feasible until recently. The complexity and high density of human activities in European seas and oceans result in a high demand for marine knowledge in the form of data, products and services to support marine and maritime activities in Europe, stressing the need for an integrated European approach to ocean observation and marine data management (Navigating the Future IV, European Marine Board 2013). While Europe already has a relatively mature ocean observing and data management infrastructure capability, this is largely fragmented and currently not addressing the needs of multiple stakeholders. Mechanisms for coordinating existing and planned ocean observations using a system approach are needed for more integrated, efficient and sustained observations under the framework of a “European Ocean Observing System” (EOOS) following international practice (systems developed by USA, Australia and Canada) and the call of the EurOCEAN 2010 Conference Declaration . The integration of different national and local marine data systems into a coherent interconnected whole which provides free access to observations and data, as pursued by the European Marine Observation and Data Network (EMODnet) is of key importance for maritime sectors like fisheries, the environment, transport, research, enterprise and industry. However, much work still needs to be done in close collaboration with end-users, in particular industry, to further develop EMODnet into a fully functional, fit for purpose gateway to European marine data and data products taking into account requirements of multiple users. There is a need for science-industry partnerships to stimulate innovation and develop a successful EOOS that will further enhance the contribution of marine observations to economic activities relevant for Blue Growth in Europe. Innovative technologies, developed in collaboration between research scientists and the industry, have given several solutions during the past years for more robust, multi-parametric and systematic observations. This, in turn, is leading to new and more reliable operational services that support a wide range of maritime economic activities: fisheries and aquaculture, offshore oil and gas, marine renewable energy, maritime transport, tourism etc. Other services address the sectors of marine safety, climate and weather applications, as well as marine environmental assessment. At the end of the marine observations, data to knowledge cycle, activities and tools are needed to create added value products for specific stakeholders, including the wider public, such as the European Atlas of the Seas which allows professionals, students and anyone interested to explore Europe’s seas and coasts, their environment, related human activities and European policies. At the same time, it is critical to evaluate whether we are monitoring/observing what we actually need. Regional assessments such as performed by the newly established EMODnet sea-basin “checkpoints” could provide relevant information, among others to advise Member States about requirements for essential and optimal observation capability.
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