Natural gas and bio methane as fuel for transport p.o. janssonEuropean Commission
The document summarizes two projects - LNG in Baltic Sea Ports and LNG in Baltic Sea Ports II - aimed at developing LNG bunkering infrastructure in ports around the Baltic Sea. LNG in Baltic Sea Ports involved pre-investment studies and analysis in 7 ports, while the sequel project LNG in Baltic Sea Ports II expanded this to additional ports and included planned infrastructure developments. A longer term Global Project aims to further develop an LNG bunkering network across key regions in the Baltic Sea area to facilitate cleaner shipping.
This study was commissioned by MARAD (US government) and conducted by DNV GL.
The study looks at the LNG bunkering of ships in US, so that LNG use as fuel for ships can be developed further.
The report was released to the public by MARAD in September 2014 and hence you can find it here.
This document discusses alternative fuels for shipping, including LNG. It notes that regulations are driving a need for cleaner fuels with lower sulfur content. LNG produces significantly lower emissions than conventional fuels and is increasingly seen as a viable option. However, infrastructure needs to be developed further for LNG to be widely used. The document provides an overview of various alternative fuels and the challenges to adopting new fuels, such as high costs and lack of infrastructure.
Presentation for the award-winning paper of the same name, presented in Power-Gen Asia 2013 by Kari Punnonen, Area BDM, Oil & Gas Business, Wärtsilä Power Plants.
Download the paper at: http://www.wartsila.com/file/Wartsila/en/1278537230339a1267106724867-Small_and_Medium_size_LNG_for_Power_Production_KPunnonen.pdf
The document discusses the emergence of small scale liquified natural gas (LNG) facilities. Traditionally, LNG has been traded through large scale facilities involving long term contracts. However, as LNG production and transportation has increased, smaller scale import terminals are now viable to supply areas without access to gas grids. A typical small scale LNG terminal includes storage tanks, a marine jetty, regasification equipment, and loading facilities to distribute gas via trucks or pipelines. These terminals cost $25-100 million and can supply power plants, industries, shipping, and remote locations with a cleaner alternative to fuel oil or diesel. As energy needs transform and LNG becomes more available, small scale commodity trade of LNG is likely to
This document discusses using liquefied natural gas (LNG) as a fuel for container ships. It notes that regulations have progressively lowered the allowed sulfur content in marine fuels. LNG produces lower emissions of sulfur oxides and carbon dioxide compared to traditional ship fuels. For container ships, the payback time for investing in LNG fuel systems is shorter for smaller vessels. Technical challenges include storing the highly pressurized, low temperature LNG and insulating the fuel tanks. Two common storage methods are using ISO type C tanks installed at the stern or ISO LNG containers stored as cargo. The document provides an example calculation for the number of LNG containers needed for a specific container ship voyage. The first ship to use this LNG
Asia Days 2013 - Market opportunities for small LNG distributionInnovation Norway
This document summarizes opportunities for small scale LNG distribution and use in Asia. It discusses Innovation Norway's presence in various Asian countries and analyzes LNG opportunities specifically in Singapore, Indonesia, China, India, Bangladesh, and the Philippines. It also provides a case study on potential small scale LNG distribution via milk runs in Vietnam. Key points include Indonesia having 8 small scale LNG terminals planned by 2015 to supply power to Eastern Indonesia, China's growing LNG imports and planned LNG infrastructure expansion, and opportunities for Norwegian LNG companies in China involving regasification, distribution, bunkering, and maritime technologies.
This document is a project thesis evaluating technical challenges and need for standardization in LNG bunkering. It provides an overview of the LNG supply chain and safety aspects. LNG bunkering is presented as a solution to reduce emissions and meet new regulations while providing economic advantages over other fuels. The thesis aims to assess critical areas for LNG bunkering through a review of technical processes, equipment, current standards, and barriers to market competition.
Poyry - How can small-scale LNG help grow the European gas market? - Point of...Pöyry
A large new market for natural gas is under rapid development whilst also reducing emissions. LNG is reaching markets previously inaccessible to pipeline gas; as a fuel for transport and for communities remote from the gas grid. A significant development is the use of LNG in marine transport, which currently uses heavy fuel oils.
LNG has potential as a ship fuel due to its clean burning properties and lower cost compared to diesel. However, it requires specialized cryogenic storage tanks, fuel systems, and safety precautions. Medium speed dual fuel engines are the most common propulsion option and allow ships to run on either LNG or diesel. Key challenges include the lack of LNG bunkering infrastructure and higher capital costs. Ferries and other short-sea vessels are generally best suited for LNG due to storage and bunkering requirements. The document discusses ship design considerations and options for LNG usage.
LNG Marine Fuel Adoption, How Soon, Which Routes, and Vessel TypesJohn Hatley PE
Provides insights into the rate of LNG marine fuel adoption, How Soon, Which routes, & Vessel Types. Key attributes of volume limited and weight limited ships on oceans or coastal voyages are considered along with key elements to demonstrate the early, fast, slow, and last adopters for LNG fuel.
Introduction to Floating Storage & Regasification Unit (FSRU)petroEDGE
Over the next 2 or 3 decades it is predicted that gas usage will grow at a much faster rate than oil and become the dominant energy source. Up to some 40% of gas comes from Offshore Fields. The transport of gas in the form of LNG is growing very fast – particularly for longer distance export routes. New offshore opportunities for gas production are being developed with the new technologies of Floating LNG (FLNG).
Inshore or Offshore FSRU’s provide safe, strategic and good location for the receiving terminals for LNG and provide the conversion of the methane from the liquid phase back to the gaseous phase to direct consumer usage.
This 2 day training course covers Gas and LNG activities – their Supply Chain from Onshore and Offshore Gas Fields to Market, with FSRU’s providing the last step by converting the LNG back to usable methane gas for local supply and use. Case Studies and videos will be used to illustrate lessons learned from past successful projects. A DVD of the powerpoint presentation and numerous Industry videos will be distributed with the lecture materials.
This document summarizes Rolls-Royce's presentation on LNG propulsion systems for short-sea shipping vessels. It discusses the benefits of LNG in reducing emissions compared to diesel, examples of new-build and conversion projects using LNG, and key considerations for conversions including feasibility studies, engine choices, fuel tank options, and estimated costs ranging from $40-65 million depending on the scope of work. A case study of converting the container vessel Pachuca to LNG propulsion is provided as an example.
This program is a valuable, detailed insight into FSRU
technology and markets. It will benefit:
• National Utility Operators and Power Generation
Providers
• Oil & Gas Engineers
• Naval Architects, Design Engineers, Shipbuilders &
Shipyard Managers
• EPCs
• LNG Terminal & Vessel Operators
• LNG Technology and Equipment Providers
Determining the Viability of a Small Scale LNG ProjectSampo Suvisaari
This document discusses the viability of small scale LNG projects in the Caribbean region. It notes several challenges for the region, including small consumption centers, non-traditional LNG buyers, variable demand, and currently low oil prices. It then provides examples of small scale LNG infrastructure solutions that have been implemented elsewhere, including an LNG terminal in Finland and examples of power plants that have been converted to run on LNG. The document argues that solutions involving barges or trucks delivering LNG to smaller facilities can be viable options for the Caribbean. It also stresses the importance of having a flexible LNG supply that can adapt to variable demand.
Environment, sustainability and reducing emissions are driving fuel flexibility and alternative fuel programs, replacing conventional fuels for combustion engines. LNG is today one of the best commercial and technical feasible options, but the dynamics of this fuel is introducing certain design considerations for such a solution. Wärtsilä is providing power and propulsion system solutions, guaranteeing optimum performance.
Supporting an lng fuelled marine industry future across the entire gas value ...Wärtsilä Marine Solutions
This presentation was given by our Gasbassadors Anil Soni & Mattias Jansson at an LNG bunkering seminar in Langfang, Hebei. It was hosted by ENN , SGMF & CCS. Sponsored by Wartsila & GTT.
In this presentation, they presented the different challenges that the offshore industry is facing & how LNG technology offers a viable option in these challenging markets.
Wison Offshore & Marine - FLNG solution Mar 2015Hisham Yusof
Wison provides liquefied natural gas (LNG) solutions including both offshore floating LNG (FLNG) and onshore LNG module fabrication. For the Exmar Caribbean FLNG project, Wison is constructing a floating LNG barge off Colombia's coast that will liquefy and store 0.5 million tonnes per annum of LNG, utilizing Black & Veatch liquefaction technology and LNG storage tanks from TGE. The FLNG barge is being built at Wison's yard in Nantong, China and will be transported to Colombia for installation after commissioning.
The document discusses liquefied natural gas (LNG), including what it is, how it is created, and its applications. It describes the LNG value chain and process, from extraction and liquefaction to storage, transport, and regasification. Key LNG solutions and technologies discussed include floating storage and regasification units (FSRUs), LNG storage terminals, gravity-based structures, and ship-to-ship LNG transfers. Advantages of LNG include its efficiency and safety for transport compared to pipelines and its increasing popularity due to advances in production and growing global energy demand.
This document discusses liquefied natural gas (LNG) as a fuel for ships and bunkering. It begins with an introduction and agenda that outlines the topics to be covered, including why LNG is being used as a fuel, innovative projects using LNG, technologies like fuel tanks and propulsion systems, and challenges around LNG bunkering. It then covers the economic advantages of LNG as a fuel compared to other options like using scrubbers or low-sulfur fuels. Finally, it discusses specific innovative projects using LNG as a fuel, technologies related to LNG fuel tanks and propulsion designs, and considerations around LNG bunkering.
The liquefied natural gas sector has experienced large growth in the last decade and is expected to grow more in the decades to come.
WorleyParsons recently completed a study for the Global CCS Institute to identify the trends in the LNG sector and to make a range of assessments on how these trends may impact on the CCS industry.
At this webinar, Graeme Cox, Principal Consultant from WorleyParsons focused on looking at industry wide and project specific aspects of LNG and relate these to industry wide and project specific aspects of CCS. The cost escalation of LNG projects was explained as well as the impact this may have on the deployment of CCS.
Graeme concluded by identifying opportunities whereby LNG and CCS can be integrated.
Shore-to-ship power, also known as cold ironing, involves providing electrical power from the shore to ships while docked in ports to reduce emissions. International standards have been established for shore-to-ship power installations, and ABB provides turnkey solutions using medium voltage static frequency converters. Successful projects in Rotterdam, Gothenburg, and Fincantieri shipyards demonstrate the environmental and efficiency benefits of shore-to-ship power for ports and vessels.
This document discusses Norway's successful use of LNG as a marine fuel. Some key points:
1) Norway has established an LNG knowledge cluster and currently has 20 LNG-fueled ships in operation and 10 more on order, helping to establish LNG distribution infrastructure in the country.
2) LNG is being promoted as a solution to meet the stringent emission regulations for sulfur oxide emissions in Emission Control Areas by 2015, and it provides reductions in nitrogen oxides, carbon dioxide, and particulate emissions compared to conventional fuels.
3) Norway has implemented policies like research funding, requiring LNG use in government tenders, and investment funds to encourage continued development and use of LNG as a
This document is a feasibility study by Det Norske Veritas (DNV) assessing options for a shipping company to comply with stricter emission regulations in Emission Control Areas (ECAs). DNV evaluated converting the main engines of a case ship to run on liquefied natural gas (LNG), installing a scrubber system, or switching to low-sulfur fuel. Conversion to dual-fuel engines and installing LNG tanks was estimated to cost $6.5-8.3 million. Charts show the cumulative costs over time of each compliance option if the case ship spent 55% or 100% of its time operating in ECAs. LNG appears cost competitive compared to fuel switching or a
[Asian Steel Watch] Vol.3 (2017.6)
On the Cover
Will the Shipbuilding Industry Flourish Again?
The shipbuilding industry will be recovered in the long term backed by global economic growth and highly influenced by environmental issues and technological advances. Under strict environmental regulations, demand for eco-friendly ships will rise. Ships will be required to use low-sulfur fuel oil. A wide range of technologies will bring about differentiated and innovative types of ships. Under the influence of the Fourth Industrial Revolution, remotely controlled or fully autonomous ships will become available in the future. Emerging technology will not only change ships, but also shipyards and the shipping and port industries. The changing steel industry will result in qualitative changes of steel products. As vessels become larger and lighter, the steel intensity of ship’s tonnage will fall continuously, and then decline even further following the rise of electric propulsion, unmanned, and autonomous ships.
Determining the Viability of a Small Scale LNG ProjectWärtsilä
Presented by Sampo Suvisaari, Wärtsilä Energy Solutions at the Platts 16th Annual LNG Conference Houston, Texas, February 9-10, 2017. This presentation showcases small scale LNG project examples, the LNG value chain, LNG terminals, barges and power plants for small scale projects, sources of LNG available for small scale projects and keys to successful projects within this environment.
DNV GL's long experience is now put on paper outlining the main issues as far as batteries use as fuel. Projects like the Viking Lady and the newly built NORLED vessels exhibit the vast experience we have in this field.
The document discusses China's shipbuilding industry and efforts to reduce CO2 emissions from ships. It finds that overcapacity since 2008 has depressed orderbooks in China, resulting in South Korea recently surpassing China in ship deliveries measured by compensated gross tons. The enclosures provide details on China's marine fuel specifications, composition of domestic fuels, sulfur limits for emissions control, and plans to implement new emissions standards for new and in-use vessels through 2020. Trends show China's inland fleet is growing in deadweight tonnage and size while decreasing in numbers of ships as older vessels are decommissioned. Electrical propulsion is being adopted but data on Chinese adoptions was limited.
Cogliolo Andrea - Innovation & Research - RINAWEC Italia
Slides presentate a Roma il 25 febbraio 2014 in occasione del Workshop "Il GNL è per tutti. Le prospettive di utilizzo del metano liquido per i service vessels, i traghetti a corto raggio e le marinerie minori" promosso da @ConferenzaGNL, un progetto a cura di Symposia e WEC Italia - TWITTER #GNL
This is presentation given by PG&E representatives about a large Liquified Natural Gas (LNG) project being developed in Felton, CA. This project is one of the largest ever developed in the industry.
Innovation and new technologies innovation pipelines from research to market ...European Commission
The port of Dunkirk is initiating a clean fuel initiative in the English Channel to promote the use of liquefied natural gas (LNG). Key points of the initiative include creating a consortium of LNG stakeholders on the Dover Strait to harmonize regulations for fueling operations and assess retrofitting a large ferry with LNG. The initiative also aims to construct an LNG fueling chain from Dunkirk's LNG terminal to ports to allow truck-to-ship and ship-to-ship fueling. Strengthening the business case for small-scale LNG distribution is needed to fuel trucks and use it in industry, as core ports are also road and inland waterway hubs.
Wood MacKenzie Alaska LNG Competitiveness Study Aug 2016Brad Keithley
This document provides a summary of a study conducted by Wood Mackenzie on the competitiveness of the proposed Alaska LNG project. The study finds that the Alaska LNG project currently has one of the highest cost of supply estimates compared to other proposed LNG projects targeting the North Asia market. Several options are explored that could help reduce the project's costs and improve its competitiveness, including implementing a third-party owned tolling structure, increasing the State of Alaska's ownership stake, and making changes to the fiscal regime through reductions in taxes. However, the analysis finds that even with these options the project may still struggle to be competitive at current LNG market prices.
The move toward using liquid natural gas (LNG) as a propulsion fuel is continuing to gain momentum as new environmental regulations are enacted and facilities are expanded. LNG propulsion holds the potential to disrupt the largely value chain of maritime and similarly commoditized fuel industry. As such, LNG propulsion is enjoying high awareness across the industries as established positions in the market may be challenged and convergence may enable entirely new key players. This may facilitate a new business eco-system of independent entities.
However, due to imposed regulations from IMO and MARPOL, a need for technologies to clean or eliminate vessel propulsion exhaust has emerged. Though promising prospects, LNG propulsion is fairly an infantile technology in shipping, i.e. progress is needed in infrastructure facilities and bunkering etc., in order to further build and mature the market. Despite a need for extensive modifications to retrofit LNG in vessels, it is an attractive compliance option.
Europe yards have already somewhat proven track record, while Asian yards are rapidly mobilising to accommodate the rising demand. LNG propulsion has developed steadily over time and is to this day applicable across large variety of engine types. Of the key engine manufacturers especially Rolls Royce, Wartsilla, and Man Diesel are active in the market and already produce a variety of commercially proven models.
This reports majorly seeks to present the compliance options for fuel industry, namely, the use of low sulphur fuels, installation of scrubbers and utilization of LNG as propulsion fuel. LNG production/ supply is believed to sufficient to oblige the needed quantities to propel the forecasted penetration in fleet and geographical spread. Yards are generally mobilising to build capacity, know-how and to deliver according to demand at present. The success of LNG propulsion technology and its penetration in the market, is determined by timing, as the infrastructure availability and market potential must be aligned.
The document summarizes projections from DNV GL's Maritime Forecast to 2050 regarding key drivers that will impact the maritime industry and strategies for building carbon-robust ships. Regulations and new technologies are expected to significantly change the fuel mix used in shipping by 2050, with 39% of energy coming from carbon-neutral fuels. The carbon-robust ship concept provides a framework to evaluate design options and ensure competitiveness under different future scenarios involving fuel costs, carbon pricing, and policies. Energy efficiency upgrades and fuels like LNG can help ensure ships remain competitive as the industry transitions towards low-carbon solutions.
- LNG fuelled vessels are seen as more environmentally friendly than bunker oil or diesel fuelled ships, but transition is hampered by low oil prices and infrastructure issues.
- EU subsidies like the BalticSO2Lution project help stimulate investment in clean fuelled vessels by co-funding projects that pilot dual-fuel engine technologies on new and retrofitted ships.
- The Port of Rotterdam is expanding LNG infrastructure like dedicated berths to support distribution of LNG to shipping and other sectors, and offers incentives like port fee discounts for LNG-fuelled ships.
- Shipping companies are increasingly choosing dual-fuel propulsion enabling flexible use of LNG or low-sulphur fuels
Grid Logistics is exploring opportunities to deliver liquefied natural gas (LNG) to parts of Asia using cryogenic articulated tug barges (CATBs) as an alternative to pipelines or ships. CATBs could cost-effectively deliver LNG to areas of Indonesia and Japan that lack pipeline infrastructure. They provide a flexible option that is quicker to deploy than fixed assets and can be redeployed if market conditions change. Grid Logistics estimates CATBs could supply LNG to parts of Indonesia at a lower cost than the existing plan to build regasification terminals.
Marine Service Noord epitomises piping – and lots of it. Since the establishment of the company in Westerbroek in 1988, Marine Service Noord successfully designed and built more than 700 mechanical installations, installing more than 2,350 kilometres of piping.
This document summarizes a report on opportunities for mitigating CO2 emissions from shipbuilding and vessel usage in China. It outlines China's plans to build and retrofit vessels to use cleaner fuels like LNG, install emissions controls, and electrify ports. By 2020, China aims to have emission standards for new coastal and inland vessels and equipment modifications on older, non-compliant vessels. The report also discusses trends in cold ironing, increasing gasification, and the potential for "Internet of Ships" applications to improve cargo operations and vessel tracking. Finnish companies are advised to thoroughly understand the Chinese market before partnering with local firms to succeed in this sector.
Similar to Lng bunkering china status report January 2016 (20)
August 2024. Nuclear Waste, or Radioactive Waste, is the waste generated from nuclear reactors, fuel processing plants, hospitals, research centers, and nuclear power plants.
Nuclear waste is classified into four types based on its radioactivity level.
Each type of nuclear waste is managed and disposed of according to its risk to human health and the environment.
The nuclear waste management process includes planning, treatment, packaging, storage, and disposal.
Nuclear waste is regulated by the International Atomic Energy Agency (IAEA), which is responsible for facility decommissioning and nuclear waste management.
In this slideshow, you will learn about the definition, classification, types, generation, management, UN policy, and global statistics of nuclear waste generation and management. Discover how nuclear waste is generated, treated, and ultimately disposed of in a safe manner.
For more slideshows on environmental sustainability, please visit s2adesign.com
Webinar - WhatsUpp In...The Netherlands regarding geothermal energy and proec...Cluster TWEED
Compilation of the presentations shown during the webinar related to geothermal energy and projects in the Netherlands. This webinar is part of the "WhatsUpp In..." saga whose objective is to gain inspiration from abroad.
FIRS Tax Audit and Investigation in Poor Documentation Environment - Prof Oyedokun
Being a Lecture Delivered at the FIRS Office, Ibadan 2022 Customised MCPD of the Federal Inland Revenue Service (FIRS) on Tuesday 25th and Thursday 27th of October, 2022.
August 2024. Environmental Impact Assessment (EIA) is a comprehensive evaluation of the potential environmental impacts of a project proposal prior to approval and subsequent construction. The 8 steps (stages) in EIA are screening, scoping, assessment, report, review, decision, and monitoring. Conducting an EIA has many benefits, including compliance with regulations, engaging stakeholders, preventing environmental damage, enhancing decision-making, and promoting sustainable development.
In this slideshow, you will learn about the definition, steps, benefits, challenges, and UN policy of Environmental Impact Assessment (EIA).
For more slideshows on environmental sustainability, please visit s2adesign.com
Bio-medical waste (BMW) management is a critical component of public health and environmental sustainability, particularly in urban areas. With the rapid growth of the medical health care sector in India, which expanded from $119 billion in 2016 to an estimated $372 billion by 2022 at a CAGR of 22.52%, the volume of biomedical waste generated has significantly increased. Patna City, a major urban centre, exemplifies the challenges and opportunities in managing this waste effectively.
The aim of this study is to assess the current state of biomedical waste management in Patna City and propose a comprehensive, sustainable solution to address the existing gaps.
This will involve evaluating the waste generation patterns, existing treatment facilities, and collection mechanisms, and suggesting improvements to ensure efficient and environmentally friendly waste disposal.
The improper handling and disposal of biomedical waste pose severe risks to both human health and the environment. In Patna City, only 24 out of 950 hospitals have adequate facilities to manage their biomedical waste, collectively generating approximately 18,042 kg of waste per day. The Indira Gandhi Institute of Medical Science (IGIMS) in Patna has a treatment capacity of 17,500 kg per day and collects waste at a regional level. However, the remaining 926 healthcare facilities lack proper treatment facilities, leading to inadequate waste management practices. There is an urgent need to assess the current situation and propose a sustainable biomedical waste management system for Patna City.
August 2024. Plastic waste is any discarded plastic material generated by the industry or by consumers. Plastic pollution is the accumulation of plastic waste in the environment. Most plastics are improperly disposed of and end up in the environment, adversely affecting humans, wildlife, and marine life, both through mechanical means such as entanglement in plastic objects or ingestion and through exposure to the chemicals involved in the manufacture and degradation of plastics.
In this slideshow, you will learn about the definition, sources, types, pollution effects, mitigation strategies, UN policy, and global statistics of plastic waste and plastic waste management.
7 of the top ten trafficked container ports is in china, and china handles 30% of the worlds containers every year.
Recently focus on air emissions from ships have become much more clear. As SOx NOx and particulates from ships at port and river transport contribute a lot to air pollution due to lower requirements.
New SOx ECAs in the most trafficked shipping ports will gradually come into effect towards 2020.
Yangtze river is the river in the world that transports the most cargo and has more than 100,000 vessels. Totally, China’s inland waterways has around 240,000 vessels
LNG is a future oriented solution to meet air emissions requirements
New bunker stations needs building, along rivers and bunker supply for ports is needed.
Regularions for LNG needs clarification and standardized solutions needed
Government is supporting the transition and development of LNG infrastructure to avoid a chicken and egg situation.
These goals concerns retrofit and were very ambitious and show commitment. However, the goal of 2000 converted LNG vessels by end of 2015 was not met. Time was needed for new ship designs and the lowered fuel oil cost in 2014 and 2015 also made the incentives to switch to LNG fuel less in the short term. The development in the cheap oil price continues to threaten LNG solutions and MDO with sulphur content < 0.5% will be the easiest measure to stay within the current SOx requirements for now
Sulphur emissions and comes from the Sulphur found in the fuel. LNG has no sulfur in it because it must be removed from the natural gas before it is liquefied to LNG.
HFO and oil based fuels contains black incombustible particles that may escape the exhaust as particulate matter. LNG turns into clean gas and adds no PM from combustion.
Nox emissions come from high peak temperatures during combustion. A more uniform combustion with good mixture of air and fuel helps to reduce the peak temperatures.
LNG has a higher “Heating Value” than fuel oils and refined oils. This is due to more C-H connections per C atom. As the energy comes from breaking those bonds and making H2O and CO2.
It should also be stated that methane, the largest component of natural gas, is itself a potent greenhouse gas, and procedures to reduce methane slip to the atmosphere should also be done. Methane emissions from LNG ships may come from unburnt fuel in exhaust or vented trace amounts purged to the atmosphere during refuelling. Boil of gas (BOG) from LNG carriers or land stations are re-liquefied or used for propulsion in today’s best practices.
Nanjing is the divide on Yangtze between River and Coast. Giving the port strategic importance.
The content of Sulphur is less than 350 ppm or 0.0350 % which is 100 times stricter than current, ocean going vessel requirement of 3.5% Sulphur. These requirements are planned to be made gradually stricter. From 01.07.2017 it is planned maximum 50 ppm sulphur fuel cap and less than 10 ppm sulphur from 01.01.2018.
Larger river vessels such as coasters and channel ships are allowed different requirement of less than 1000 ppm sulphur content (0.1% sulphur similar to European ECA). In addition marine residual fuel is forbidden, HFO etc. This prohibition can be circumvented if one uses exhaust gas cleaning technology such as Scrubbers, and the SOx removal efficiency is equal to reduction from fuel requirement. Of course LNG will also be a possible solution to eliminate PM and SOx emission from the fuel, as no SOx is present in LNG.
Stage 1 emission requirements will take effect from January 1st 2017. This are the same rules which were already put in effect in the EU zone in the 2000’nds and corresponds to the stage 2 (Tier 2) of the US-EPA Final Rule for inland marine vessels. HC and NOx are grouped together because the emissions of these two pollutants are oppositely related. At higher combustion temperatures there is more NOX and less HC and vice versa.
The challenge for using LNG propulsion is the higher investment costs. A return on investment depends on ships size, fuel consumption, maintenance cost and relative bunker price of LNG to Refined oil. If the ship is affected by emission control requirements and often sails in ECAs, LNG may be a key solution. So far the switch to LNG is reliant on government support to be economically viable in China.
28 % more energy per ton with LNG compared to MDO
However, the density of LNG is just half of that of MDO
The result of this is more storage space required for storing the same amount of Energy if you switch to LNG
And also that for every ton of LNG bought you can theoretically travel 28% longer.
The challenge for using LNG propulsion is the higher investment costs. A return on investment depends on ships size, fuel consumption, maintenance cost and relative bunker price of LNG to Refined oil. If the ship is affected by emission control requirements and often sails in ECAs, LNG may be a key solution. So far the switch to LNG is reliant on government support to be economically viable in China.
Chinese government have supported new construction of ships with LNG propulsion with around 800 RMB in 2015. Engine and fuel system for LNG propulsion can be 10-20% of total vessel cost. In the current tight economic environment for the maritime industry and unfavourable prices of LNG compared to oil it will be less likely to see a spike in implementation and conversion in the short term in China.
For a detailed cost benefit analysis and considerations of LNG for ship fuel for larger container vessels see Germanischer Lloyd report “Cost and Benefits of LNG as Ship Fuel for Container Vessels” from 2011
As of the beginning of 2015, LNG enters the Country through 12 major terminals and a small peaking facility, with 8 under construction and several other facilities in various stages of planning
CNOOC is the pioneer Chinese NOC to run LNG import and regasification terminals in China and is currently involved or owner of 7 operational LNG receiving and regasification terminals. Chinas first floating storage and regasification unit (FSRU) was put in operation in Tianjin at the end of 2013. Their newest 4 mtpa receiving terminal in Shenzhen-Diefu was scheduled to be completed during 2015, construction was slowed due to lowered profitability and competition with inland sources. New terminals under construction in Yuedong/Jieyang and Fujian with scheduled online dates in 2017 and 2016 respectively.
CNPC is the second largest national player in LNG receiving terminals. They have 3 operational terminals with planned expansion of capacity, and one newbuild under construction. Sinopec entered China’s LNG market by starting up their LNG import in Qingdao in 2014 and is also represented in Guangxi province, and has a planned terminal in Tianjin.
The cost of the LNG fuel will be higher than LNG import price due to need of building new infrastructure for bunkering or truck loading and handling of smaller volumes.
Truck to ship option has been used extensively in china already, Port to ship is also available, but usually needs a long processing time for verification. And few vessels are in need of the sort of high volume transfer, so most are small scale tanks.
Then the recent step has been to develop the bunkering barge concept. A pilot project has been finished and regulations made. Thus more bunkering barges and pontoons of similar structure can rapidly be built.
Bunkering of Imported LNG
-Bunkering close to import site from land station, pipes (PTS).
-Trucks or barges bunkering from import site (TTS).
-FSRU or land based terminals are available sources.
-Imported LNG could be filled into smaller river LNG carriers that may be used for bunkering other vessels (STS).
Bunkering of Domestic LNG Source
-From existing satellite LNG liquefaction site from pipe feed gas (PTS).
-Distributed with trucks to remote bunkering facility (TTS).
-From central LNG liquefaction plant and transported with trucks directly to ship or local station (TTS).
Initial plans presented by CNPC, most of construction and plans now put on hold,
Loosing money on investment after construction as the prices have fallen steeply on LNG and ships continue to use Oil based fuels.
Few of the planned bunker stations (yellow flag) have been built.
The government is encouraging LNG investments by private companies and providing subsidies to NOC investment. Currently private Chinese energy companies such as ENN energy holdings limited, ChangBai Group and GuangHui Energy are investing in LNG infrastructure. ENN is building natural gas supply chains in China and bunkering stations for LNG. ENN was the first Chinese private company to operate an LNG terminal. Close to Ningbo, on Zhoushan Island ENN is currently building a land based LNG import terminal with bunkering facilities planned to import 3 mtpa in by 2018. Changbai is planning to construct a LNG facility west of Shanghai in Jiangyin. Guanghui plans to invest 2 billion yuan in a LNG distribution station in Nantong Port, upriver from the Yangtze delta [14].
Due to lack of regulation and complexity of approval of land based bunker stations for LGN, the floating LNG pontoon solution has become popular. The tanks of LNG are in most cases less than 300 m3 in volume due to special requirements for larger tanks. Larger tanks will need special safety studies and will thus become a more expensive and complicated project.
Wuhan is seen as a potential future hub for LNG distribution as Wuhan port is in the middle of China and on the Yangtze River.