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Maria Angelicoussis: “The secret to our success is our people”
Infographic: Eastern Mediterranean LNG terminals
Exclusive: the LNG-fuelled fleet
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contents
May/June 2018 volume 40 issue 2
33 Regulars
18
5 COMMENT Marmara Ereglisi
Alexandroupolis LNG
Operator: Gastrade Capacity: 4.5 mta Location: Alexandroupolis
Operator: Botas Capacity: 5.9 mta Location: Marmara Ereglisi
Saros LNG
Operator: Turkish/Qatari JV Capacity: 3.7 mta Location: Gallipoli
Industry review
Operator: DESFA Capacity: 4.7 mta (by end 2018) Location: Revithoussa/Athens
Area report Etki LNG
Operator: Kolin/Kalyon Capacity: 4.3 mta Location: Aliaga FSRU: Neptune
21
Existing import terminals (FRSUs) Existing import terminals (shore-based) Existing export terminals (shore-based)
7 GIIGNL annual reports provide the industry’s best summaries of the LNG sector. Mike Corkhill reviews the Group’s latest, on activities in 2017 Aliaga LNG 10 INFOGRAPHIC: GIIGNL highlights key LNG industry developments in 2017 Operator: Egegaz Capacity: 4.6 mta Location: Aliaga
Revithoussa
Planned import terminals (FRSUs)
DŲrtyol LNG
Operator: Botas Capacity: 4.3 mta Location: Iskenderun FSRU: MOL FSRU Challenger
13 New regional gas discoveries are enhancing prospects for the emergence of the Eastern Mediterranean as a gas and LNG hub. Mike Corkhill reports 18 INFOGRAPHIC: East Med LNG terminals existing and under development, encompassing shore and FSRU-based import projects and export facilities Cynergy LNG
Operator: DEFA Cyprus Capacity: 3.7 mta Location: Vasilikos
LNG-Fuelled fleet – Overview 21 The orderbook for LNG-powered vessels has grown by 36% over the past year. IdkuMike Corkhill looks at how large vessels are dominating the latest round Operator: Egyptian LNG Capacity: 7.2 mta of contracts Ain Sokhna No 1
Operator: EGAS Capacity: 4.5 mta Location: Ain Sokhna FSRU: Hoegh Gallant
Ain Sokhna No 2
Operator: EGAS Capacity: 6.2 mta Location: Ain Sokhna FSRU: BW Singapore
PLACEHOLDER TITLE 41
LNG-fuelled fleet – service and supply ships Damietta
Operator: SEGAS Services Capacity: 5.0 mta
Hadera LNG
Operator: Israel Electric Capacity: 3.7 mta Location: Offshore Hadera FSRU: Excellence
24 Owners of specialist vessels, covering everything from dredgers and jack-up rigs to cable layers and heavy-lift crane vessels, are starting to opt for LNG fuel
LNG-fuelled fleet – tankers and bulkers LNG 26 The orderbook for tanker and bulkers, at 43Aqaba ships, is the largest amongst the Operator: NEPCO Capacity: 6.0 mta Location: Aqaba four segments into which LNG World Shipping breaks down the LNG-fuelled fleet FSRU: Golar Eskimo
LNG-Fuelled fleet – passenger ships 28 The number of LNG-powered cruise liners under construction has increased by 38% over the past 12 months, from 13 to 18 vessels
LNG-fuelled fleet – container and cargo ships 0 The order by CMA CGM in late 2017 for nine LNG-powered container ships of 3 22,000 TEU capacity raised the bar for the use of LNG as marine fuel at a stroke
Shipowner interview 33 In his review of the Maran Gas fleet, Craig Jallal focuses on the company’s approach to issues such as FSRUs, propulsion systems and crew training
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LNG World Shipping | May/June 2018
contents Opinion 37 John Barnes of UniversalPegasus examines how LNG import terminal operators can gain advantage by choosing the jetty-based regasification option
Containment system
May/June 2018 Editor: Mike Corkhill t: +44 1825 764 817 e: mike.corkhill@rivieramm.com
41 GTT continuously develops its established Mark III and NO96 membrane tank technologies to accommodate the rapidly evolving LNG shipping industry
Contributing Editor: Craig Jallal t: +44 7974 935 477 e: craig.jallal@rivieramm.com
Statistics – fleet developments
Brand Manager: Ian Pow t: +44 20 8370 7011 e: ian.pow@rivieramm.com
47 Japanese charterers, owners and yards have been involved with one-half the LNG carriers completed over the past two months. Mike Corkhill investigates
Statistics – LNGCs on order and delivered 50 Bi-monthly update of the LNG carrier orderbook and ships delivered over the past 16 months brings the statistics up to date, as of 30 April 2018
Viewpoint 56 Børge Nogva of Høglund Marine Automation considers the importance of the ‘integration’ aspect of LNG carrier integrated automation systems
Next issue July/August 2018 issue of LNG World Shipping: Area report: Atlantic Coast Europe & Iberia Technical: ballast water treatment Offshore: innovations in vessel and cargo-handling Class societies: expertise for new vessel concepts Equipment: cargo transfer systems LNG bunkering: developments in Jacksonville
Production Manager: Ram Mahbubani t: +44 20 8370 7010 e: ram.mahbubani@rivieramm.com Subscriptions: Sally Church t: +44 20 8370 7018 e: sally.church@rivieramm.com Chairman: John Labdon Managing Director: Steve Labdon Finance Director: Cathy Labdon Operations Director: Graham Harman Head of Content: Edwin Lampert Executive Editor: Paul Gunton Head of Production: Hamish Dickie Published by: Riviera Maritime Media Ltd Mitre House 66 Abbey Road Enfield EN1 2QN UK
Read the latest international LNG Shipping news at www.lngworldshipping.com www.rivieramm.com
ISSN 1746-0603 (Print) ISSN 2051-0616 (Online)
©2018 Riviera Maritime Media Ltd
Front cover image: Maria Angelicoussis of Maran Gas Maritime
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Disclaimer: Although every effort has been made to ensure that the information in this publication is correct, the Author and Publisher accept no liability to any party for any inaccuracies that may occur. Any third party material included with the publication is supplied in good faith and the Publisher accepts no liability in respect of content. All rights reserved. No part of this publication may be reproduced, reprinted or stored in any electronic medium or transmitted in any form or by any means without prior written permission of the copyright owner.
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COMMENT | 5
LNG – YEAR OF ACTION SURPASSES EXPECTATIONS
T Mike Corkhill, Editor
www.lngworldshipping.com
he current year was always going to be an upbeat period for the LNG industry, what with exports from recently commissioned liquefaction trains continuing to ramp up and new projects scheduled to come onstream. However the pace of new developments – the tabling of potential export plants, LNG carrier construction, the emergence of new markets and more receiving terminal projects, the tightening of the marine environment protection regulatory regime, and the use of LNG as marine fuel – has caught even the optimists by surprise. As of 1 May, 23 LNG carriers had been completed in the year to date and 18 new LNG carriers had been ordered. All the newly contracted ships were conventional-size LNG carriers in the 174,000 to 180,000 m3 range, with the exception of an LNG bunker vessel (LNGBV), at 18,600 m3, the largest such vessel ever ordered. All the conventional-size LNG carriers ordered so far this year will be powered by dual-fuel, two-stroke engines. High-pressure ME-GI engines and lowpressure X-DF units are roughly equal in popularity as a propulsion system for the newbuildings. This issue features LNG World Shipping’s annual review of ships using LNG as fuel. Among other things, it highlights that the world fleet of in-service and on-order LNG-powered ships has increased by 26.5% over the past 12 months, reaching 253 vessels. The 132 ships on order represent a 36% jump in the size of the orderbook. So far this year, the Cove Point terminal on the US East Coast, with capacity to produce 5.1 million tonnes per annum (mta) of LNG, has entered service, while three further export projects – the 8.9 mta Ichthys, the 1.2 mta Cameroon LNG and the 3.7 mta Prelude facilities – have recently received cooldown cargoes. These shipments signal that the start of commercial operations is imminent. Cameroon LNG and Prelude are set to follow
the pioneering Malaysian PFLNG Satu venture, becoming the second and third floating LNG production (FLNG) vessel projects to come to fruition. Floating production vessels have also been ordered for the 3.4 mta Coral FLNG and 1.5 mta PFLNG2 projects, both at Samsung Heavy Industries; these schemes are set to start in 2020 and 2021, respectively. Final investment decisions (FIDs) could well be forthcoming for three more FLNG projects in 2018. These are the 2.2 mta Fortuna FLNG scheme planned for offshore Equatorial Guinea; the first of four 3.7 mta FLNG vessels proposed by Delfin LNG for the US Gulf; and the Greater Tortue project which calls for the development of an offshore field that straddles the territorial waters of Senegal and Mauritania. Another FID possible for 2018 is by Shell and partners for the LNG Canada initiative in the Canadian province of British Columbia. Most of the LNG export projects planned for Canada’s west coast have fallen by the wayside in recent years, but following its takeover of the BG Group, Shell now intends to consolidate the separate projects that the two companies were developing. In 2017 Petronas abandoned its own Pacific NorthWest scheme, scheduled for the same province; it is now rumoured to be a potential additional LNG Canada partner. Its presence would increase the already-strong likelihood of a FID this year. On the gas buyer side, Bangladesh is poised to become the world’s 41st LNG import nation. Gas processed by the 138,000 m3 floating storage and regasification unit (FSRU) Excellence, moored off Moheshkhali Island, was expected to reach Chittagong via connecting pipeline by late May 2018. Summit LNG, a second FSRU-based Bangladeshi import project, is scheduled to start operations later in the year. As you can see, it has been a busy year so far, and we are only a third of the way into it. LNG
LNG World Shipping | May/June 2018
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LNG INDUSTRY REVIEW | 7
GIIGNL ENCAPSULATES THE WORLD OF LNG GIIGNL’S ANNUAL REPORTS PROVIDE THE INDUSTRY’S BEST SUMMARIES OF THE LNG SECTOR AND THE GROUP’S LATEST, ON ACTIVITIES IN 2017, IS NO EXCEPTION
The commissioning of the two new liquefaction units in Australia in 2017, including Gorgon Train 3, helped the country achieve a 24% year-on-year export growth
I
n its recently published Annual Report 2018, the International Group of LNG Importers (GIIGNL) confirms that the global trade in LNG in 2017 recorded its highest annual growth rate since 2010, rising by 9.9% to reach 289.8M tonnes. And behind this headline-grabbing fact lies a wealth of intriguing detail. As the document states, 2017 was a year for pioneers. The first floating LNG production (FLNG) vessel entered into service; the industry’s first three purpose-built LNG bunker vessels (LNGBVs) commenced operations; and the first LNG shipments from the Arctic region were loaded on board a fleet of powerful icebreaking LNG carriers. Another significant development last year was an order for a fleet on nine ultra-large container ships to be powered by LNG. Although not involving LNGCs per se, this contract heralded a significant new era in ship propulsion, one in which LNG will play a key role as a marine fuel. It also prompted an order for what will be, at 18,600 m3 in capacity, the world’s largest LNGBV.
www.lngworldshipping.com
SUPPLY-SIDE DEVELOPMENTS
A total of 25.4 million tonnes per annum (mta) of new LNG production capacity was added to the global slate in 2017, building it to the 365 mta level. This was achieved through the commissioning of five shore-based liquefaction trains and the PFLNG Satu vessel in Malaysia, the world’s first FLNG project mentioned above. The five shore trains brought onstream in 2017 were Gorgon Train 3 and Wheatstone Train 1 in Australia, Sabine Pass Trains 3 and 4 in the US and Yamal Train 1 in the Russian Arctic. The new plants added 10.7M tonnes to Australia’s production capacity last year and 9.6M tonnes to that of the US. But trade growth was not due solely to new facilities. Better performance by existing liquefaction plants in Algeria, Angola and Nigeria added an aggregate 6.2 mta of output to global trade in 2017. By region, the Pacific Basin remained the largest source of LNG in 2017, accounting for 131.4M tonnes, or 45.3% of the
LNG World Shipping | May/June 2018
8 | LNG INDUSTRY REVIEW
global total. Middle East producers supplied 31.5%, with Qatar alone responsible for 27%, and Atlantic Basin liquefaction plants 23.2%. Worldwide there are 19 countries exporting LNG. Cameroon is on track to join the club in 2018 while Mozambique will become a member in 2021, when the Coral South FLNG project is commissioned. Elsewhere, there is anticipation that a final investment decision (FID) will be made this year on one of the five proposed Canadian export projects still on the table. Four planned Canadian LNG liquefaction plants were cancelled in 2017. There is also a possibility that Iran could finally become an exporter in the next year or so, after almost five decades of seeking to mount an LNG scheme. If current negotiations are finalised, it would be a small-scale endeavour, making use of a 0.5 mta FLNG vessel built for Exmar. Developments last year in two LNG export nations, the US and Egypt, are particularly notable. Having brought onstream in 2016 the first two trains of Sabine Pass LNG, the first liquefaction plant in the lower 48 states, Cheniere Energy commissioned two more units in 2017. As a result of growing output from Sabine Pass, the US exported 12.2M tonnes to world markets last year. Of this total, 40% was despatched to Asia, 34% to the Americas, 15% to Europe and 11% to the Middle East. Although Egypt received a healthy 6.2M tonnes of LNG in 2017, at the two floating storage and regasification units (FSRUs) moored at Ain Sokhna on the Red Sea coast, the total was 1.3M tonnes less than the previous year. Furthermore, Egyptian LNG imports are continuing to fall away rapidly in 2018. Egypt’s two LNG export plants, at Damietta and Idku on the Mediterranean, were mothballed earlier in the decade, a result of the country’s surging demand for gas and dwindling domestic reserves. However, significant new offshore gas fields have recently been discovered and LNG exports from Idku have started anew. There is a possibility that the available gas feed could be sufficient to drive both Idku and Damietta at their nameplate capacities early on in 2020. At the end of 2017, approximately 89 mta of new LNG production capacity was under construction worldwide, 49 mta of which is in the US and 17 mta in Australia. In 2018 around 38 mta of new production capacity is expected to come online, 13 mta of which will be US output.
Enige Zeebrugge is one of the world’s first three purpose-built LNG bunker vessels; all were completed in 2017
NOTABLE IMPORTERS
Purchases by Asia - the world’s largest LNG import region, with a 72.9% share of the global market - grew by 10.2% in 2017, to reach 211.2M tonnes. While Korea and Taiwan both recorded 10% expansion rates, China’s LNG imports jumped by 42.3%. The rise in Chinese LNG volumes followed a 39.6% leap in 2016. The government’s decision to promote the use of gas over coal to reduce air pollution in major cities helped maintain the balance between LNG supply and demand in the global marketplace in 2017. The 39.1M tonnes of LNG purchased by China means the country leapfrogs Korea to become the world’s second-largest LNG importer. An astonishing 10.2M tonnes of the Chinese total was despatched from the receiving terminals in the form of LNG in cryogenic road tankers for inland distribution. Pakistan, a relative newcomer to the LNG importers club, has nevertheless made impressive strides. The country, which commissioned its second floating storage and regasification unit (FSRU) in Q4 2017, overtook Thailand and Indonesia to become Asia’s sixth largest market, with 4.6M tonnes imported last year. In 2017 Europe logged a 7.5M tonne, or 19.5%, increase in net imports, calculated after deducting reloads. The growth was driven primarily by demand for gas in power generation. European growth was concentrated in the southern part of the region, in countries like Portugal, Spain, France, Italy, Greece and Turkey, where a combination of low hydropower, hot summer weather and low nuclear production in France pushed up imports by an aggregate 9.1M tonnes. In contrast, net imports by the northern European countries of the UK, Belgium and the Netherlands declined by a combined 2.1M tonnes. Despite the growth in European net imports in 2017, the
The layout of most of China’s busy import terminals allows plenty of room for expansion
LNG World Shipping | May/June 2018
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10 | LNG INDUSTRY REVIEW
region’s share of the global market has fallen by almost 50% since 2010, to 15.9%. Quite aside from the strong rise in LNG purchases by Asian customers, the overall demand for gas in Europe is in decline and pipeline imports from a variety of sources provide a competitive alternative. The GIIGNL report points out that the volume of ‘pure spot’ cargoes reached 59M tonnes in 2017, accounting for 20% of global trade. ‘Pure spot’ imports are defined as LNG deliveries
which occurred less than three months from the cargo purchase transaction date. Spot imports were facilitated by LNG contracts with destination flexibility, by increased contracting for portfolio trade and by the growing volumes handled by traders. The largest growth in spot imports was recorded by China and Korea, where such purchases accounted for 21% and 22%, respectively, of their inbound cargoes last year.
REVIEWING THE FLEET
LNG IMPORTERS COUNTRY
VOLUME (MILLION TONNES)
CHANGE 2016-17 (%)
Japan
83.52
0.2
China Korea India Taiwan Pakistan Thailand Indonesia Singapore Malaysia
39.1 37.83 19.22 16.61 4.62 3.95 2.64 2 1.8
42.3 10.6 1.3 10.2 56.6 32.1 -18.3 -2.6 36.4
211.18
10.2
12 7.35 7.33 6 5 2.71 1.28 1.27 0.88 0.85 0.77 0.32 0.23 0.05 45.98
19 32.4 34 30.1 -34.8 106.9 141.5 54.9 11.4 -15 108.1 33.3 N/A 150 19.5
Mexico Argentina Chile Brazil USA Puerto Rico Dominican Republic Canada Jamaica Colombia Americas (Total)
4.78 3.35 3.27 1.62 1.49 0.94 0.87 0.29 0.17 0.03
16.6 -2 2.2 11 -6.3 -24.8 8.8 26.1 1,700.00 -50
Egypt Kuwait Jordan UAE Israel Middle East (Total)
6.18 3.51 3.31 2.47 0.38 15.85
-17.6 0.6 8.2 -20.3 35.7 -9.1
289.91
9.9
Asia (Total) Spain France Turkey Italy UK Portugal Greece Poland Belgium Lituania Netherlands Sweden Malta Finland Europe (Total)
World (Total) Source: GIIGNL
LNG World Shipping | May/June 2018
The shipping section of the GIIGNL report counts a fleet of 511 LNG vessels, with an aggregate capacity of 73.9M m3 as at the end of 2017. The total includes 28 FSRUs and 38 vessels of less than 50,000 m3 in size. The average spot charter rate for a 160,000 m3 LNGC last year was US$46,058/day, up from an average of US$33,528/day in 2016. A total of 34 ships were delivered during 2017, including four FSRUs and seven vessels of less than 50,000 m3, while two ships built in the 1970s were scrapped. The orderbook was swelled by 19 newbuilding contracts in 2017, including six FSRUs and five vessels of less than 50,000 m3. At the end of 2017, the LNG orderbook comprised 120 vessels, 109 of which were above 50,000 m3 in size. The 2018 delivery schedule shows 72 vessels due to be handed over. GIIGNL reports that, of the 511-ship fleet as at the end of 2017, 30 vessels were laid-up, idle or otherwise out of service. In addition, three vessels were idle, awaiting conversion. Some 71 vessels in the fleet are over 20 years of age. LNG
LNG EXPORTERS VOLUME (MILLION TONNES)
CHANGE 2016-17 (%)
Nigeria
20.34
14.4
Algeria USA Trinidad Norway Angola Equatorial Guinea Egypt
12.34 12.24 10.19 3.9 3.53 3.83 0.78
7.9 363.6 -2.6 -13.1 364.5 13.6 52.9
Atlantic Basin (Total)
67.15
30.6
Qatar Oman UAE Middle East (Total)
77.5 8.24 5.59 91.33
-2.7 1.5 -4.6 -2.4
Australia Malaysia Indonesia Russia Papua New Guinea Brunei Peru Pacific Basin (Total)
55.56 26.87 18.71 11.49 6 6.88 3.72 131.35
23.8 7.1 -6.2 7.4 9.4 -7.2 10.8
World (Total)
289.91
9.9
COUNTRY
Source: GIIGNL
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INTERNATIONAL GROUP OF LIQUEFIED NATURAL GAS IMPORTERS
* mta – million tonnes per annum of LNG
Eastern Mediterranean AREA REPORT | 13
EAST MED GAS DISCOVERIES REDEFINE LNG PLAYING FIELD The Eastern Mediterranean is fast becoming a gas hub, with numerous LNG projects on the go, plentiful recent gas finds and further discoveries likely
N
ewly discovered offshore gas deposits in the exclusive economic zones (EEZs) of Egypt, Israel and Cyprus, coming on top of similar major finds in recent years, are poised to alter the energy map of the Eastern Mediterranean irrevocably. LNG projects, which already play a key role in the region’s gas distribution logistics, will be impacted by the upcoming development of the Eastern Mediterranean gas fields. Most LNG projects in the area are import schemes. Floating storage and regasification units (FSRUs) have proved the most popular route to securing access to new gas supplies quickly and at relatively low cost. Turkey, Egypt, Israel and Jordan make use of FSRUs to import LNG, while Greece, Cyprus
and Lebanon are evaluating FSRU projects. There are also two liquefaction plants in the region; both are in Egypt and both have lain largely idle in recent years, due to the lack of sufficient feed gas. However, the discovery of new gas fields in Egyptian and neighbouring waters hints at an imminent turnaround in fortunes for the two LNG export facilities. Egypt and Turkey are the region’s biggest and fastest-growing natural gas consumers by a wide margin, with annual gas usage in both countries around the 50 billion cubic metres (bcm) mark. Israel consumes approximately 10 bcm per year and Jordan 3.5 bcm, while Greek gas use has slumped by 30% in recent years, to 2.8 bcm.
LNG IN THE MIX Greece’s only LNG terminal, on the small islet of Revithoussa to the west of Athens, has been in service since February 2000. DESFA, Greece’s state-owned gas transmission authority, is adding a third in-ground tank at the site and the regas capacity is being boosted by 40%, to 4.7 million tonnes per annum (mta) of LNG. The expansion project is set for completion by the end of 2018. The Greek government is seeking to promote the country as a transit hub, in terms of both LNG terminals and gas pipelines. The privatisation of certain state assets, including a significant shareholding in DESFA, is also on the cards. In addition to the Revithoussa expansion in the south, plans for two FSRU-based LNG terminals
The FSRU Golar Eskimo nears completion at the Samsung yard prior to departure for Aqaba and life as Jordan’s LNG import terminal
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LNG World Shipping | May/June 2018
14 | AREA REPORT Eastern Mediterranean
in the northern part of the country have been tabled, as part of the drive to establish Greece as a gas hub. The most advanced is the 4.5 mta Alexandroupolis facility, a project being led by gas utility Gastrade and in which GasLog has a 20% stake and is set to provide the required 170,000 m3 FSRU. The aim is to integrate the Alexandroupolis FSRU operation with the planned Trans-Adriatic Pipeline (TAP) and Greece-Bulgaria Gas Interconnector (IGB) links. However, an expected final investment decision on the scheme has recently been delayed to late 2018. Earlier in the decade DEPA, Greece’s state-owned gas company and parent of DESFA, had also proposed
a 3.7 mta FSRU terminal for the northeastern part of the country. But the need for such a facility – to be known as Aegean LNG and located in the Kavala Bay region – was obviated when Gastrade moved ahead with its proposed Alexandroupolis FSRU scheme at a nearby location. TURKEY TURNS TO EXPANSIONS Turkey has a large and wellestablished gas market and, like Greece, depends almost exclusively on imports to meet its gas needs. Pipeline deliveries from Russia, Iran and Azerbaijan predominate, but LNG purchases are growing in importance as the country seeks to diversify its energy supplies. Turkey began importing
LNG in August 1994 when the Botas-operated Marmara Ereglisi terminal, 100 km west of Istanbul, opened for business. The 5.9 mta facility on the Sea of Marmara features three 85,000 m3 storage tanks. Turkey’s second shorebased import terminal, the 4.6 mta EgeGaz facility at Aliaga, features two 140,000 m3 storage tanks. The terminal did not receive its inaugural cargo until December 2006, despite being commissioned more than three years earlier. It was the world’s first LNG-receiving terminal to be constructed without firm capacity contracts in place. Turkey has recently committed to expanding its two shore terminals, in addition to building three new FSRUbased projects, to boost its LNG
Exports from Egypt’s Idku terminal were restarted in 2016 after a two-year shutdown
LNG World Shipping | May/June 2018
import capabilities. Throughput capacity at both the Marmara Ereglisi and EgeGaz Aliaga terminals will be increased by two-thirds, in 2020 and 2021 respectively, through the provision of an additional storage tank and increased regasification capabilities. Two of the Turkish FSRU terminals are already in service, while the third is planned for Saros on the Gallipoli peninsula’s northern coast. Etki LNG in Aliaga’s Candarli Bay, the first FSRU terminal, came onstream in December 2016 and makes use of the 145,000 m3 Neptune. Dörtyol LNG at Iskenderun on eastern Turkey’s Mediterranean coast commenced operations in February 2018 and utilises the 263,000 m3 MOL FSRU Challenger, the world’s largest FSRU, under a three-year charter to Botas. Turkey received 7.33M tonnes of LNG in 2017, a 34% jump on the previous year. The surge pushed Turkey into third spot among European LNG importers, just a shade less than France’s 7.35M tonnes. EGYPTIAN UPS AND DOWNS The discovery of sizeable gas fields off its Mediterranean coast enabled Egypt to construct two LNG export terminals, both of which were commissioned in 2005. Damietta despatched its inaugural cargo in January while Idku commenced operations in May. During their peak year of 2008 the two facilities exported an aggregate 10M tonnes of LNG to world markets. However, field depletion was faster than anticipated and burgeoning domestic demand forced Egypt to shut down its LNG and pipeline gas exports and implement FSRU-based import projects to meet gas needs. Damietta ceased export
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16 | AREA REPORT Eastern Mediterranean
More recently, new offshore Mediterranean gas finds have signaled yet another turnaround in Egypt’s fortunes. In addition to some newly found BP deposits, Eni discovered the
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2015, BW Singapore commenced regasification operations in the same Red Sea port. In 2016, the peak year for Egyptian imports, the two 170,000 m3 FSRUs regasified 7.5M tonnes of LNG.
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shipments in February 2013 and Idku followed suit 12 months later. The FSRU Hoegh Gallant went on station at Ain Sokhna in April 2015 and in October
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Alternative Energies
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Zohr field in 2015. With 30 trillion cubic feet (tcf ) of gas reserves, Zohr is the largest gas deposit in the Mediterranean. Zohr holds the promise of not only bringing an end to LNG imports and meeting local demand for gas, but also supporting a rebound in LNG exports. LNG import volumes handled by the two Ain Sokhna FSRUs are already in steep decline and there is a possibility that both Damietta and Idku could be operating at their nameplate LNG export capacity by the end of 2019. Idku exported 0.78M tonnes of LNG in 2017, an increase of 52.9% over the previous year. Jordan is another country that turned to LNG imports when Egypt’s gas fields began to rapidly deplete earlier in the decade. Jordan had depended on pipeline imports from Egypt to meet most of its gas needs. But following terrorist attacks on the line in the midst of Egypt’s civil strife, Jordan began to look elsewhere for its gas. LNG came to the rescue in May 2015, when the 160,000 m3 FSRU Golar Eskimo was positioned in the port of Aqaba on a 10-year charter. Import levels grew rapidly and it was not long before Jordan was sending some of its regasified LNG to Egypt, reversing the direction of the earlier pipeline flow. Jordan imported 3.31M tonnes of LNG in 2017, an 8.2% rise on the previous year. LNG purchases have enabled the country to meet upwards of 90% of its electricity-generating requirements with clean-burning gas, easing Jordanian reliance on fuel oil and diesel imports. ISRAELI EXPORT OPTIONS In January 2014 Israel became the world’s 30th LNG import nation, when Excelerate Energy stationed its 138,000 m3 FSRU Excellence 10 km off the coast near Hadera. Back in 2010, Israel had depended on
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Eastern Mediterranean AREA REPORT | 17
Egyptian pipeline deliveries to meet 40% of its gas needs, but Egypt’s gas difficulties put paid to this supply and prompted FSRU imports. Like Egypt, Israel has had the good fortune to discover major deposits of gas offshore in recent years. The most notable of these is the 22 tcf Leviathan field, but Tamar, with its 10 tcf of reserves, is another major new play. Whereas Leviathan gas is still to flow, Tamar’s riches are already being pumped ashore via a subsea pipeline to Israel. The Hadera FSRU contract has been extended by a further two years, to September 2019, to serve as a backup measure should the Tamar flow be disrupted for any reason. The Israeli government has been studying the best ways to realise the value of the Leviathan and Tamar deposits, which are well beyond the needs of Israel itself. Jordan has already signed up for pipeline deliveries from the two fields, to supplement its Aqababased FSRU imports, while negotiations are underway for similar subsea links to Egypt, Turkey and Europe. The pipelines to Egypt would be directed to Shell’s Idku and Gas Natural Fenosa’s Damietta LNG export terminals, providing an additional source of gas for liquefaction at these plants. The gas for Europe would arrive in Italy via the proposed EastMed Pipeline, which would make use of Cypriot and Israeli gas, delivering via Crete and Greece. The Shell Idku proposal would draw on both Leviathan pipeline gas and that from the newly discovered 4 tcf Aphrodite field in the nearby Cyprus offshore EEZ. As a final twist in the Cypriot LNG tale, irrespective of how the Aphrodite gas ultimately plays out, the island EUmember state will commence
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LNG imports under the CyprusGas2EU project banner by 2020, to meet its EU clean environment obligations. The FSRU will be based in the port of Vasilikos.
In the meantime, back in Israel two further new gas finds have recently been made. Although the proven reserves of the Karish and Tanin fields are in aggregate just 2.4 tcf,
the Greek-based Energean Oil and Gas has proposed the construction of a floating LNG production (FLNG) vessel to enable gas production and LNG exports in 2021. LNG
LNG World Shipping | May/June 2018
Alexandroupolis LNG
Operator: Gastrade Capacity: 4.5 mta Location: Alexandroupolis
Saros LNG
Operator: Turkish/Qatari JV Capacity: 3.7 mta Location: Gallipoli
Revithoussa
Etki LNG
Operator: DESFA Capacity: 4.7 mta (by end 2018) Location: Revithoussa/Athens
Operator: Kolin/Kalyon Capacity: 4.3 mta Location: Aliaga FSRU: Neptune
Ain Sokhna No 2 Ain Sokhna No 1
Operator: EGAS Capacity: 4.5 mta Location: Ain Sokhna FSRU: Hรถegh Gallant
Operator: EGAS Capacity: 6.2 mta Location: Ain Sokhna FSRU: BW Singapore
EAST MEDITERRANEAN LNG IMPORT AND EXPORT TERMINALS
Planned import terminals (FRSUs) Existing import terminals (FRSUs)
Marmara Ereglisi
Operator: Botas Capacity: 5.9 mta Location: Marmara Ereglisi
Existing import terminals (shore-based) Existing export terminals (shore-based)
Research: Mike Corkhill Infographic: James Millership
Aliaga LNG
Operator: Egegaz Capacity: 4.6 mta Location: Aliaga
Dรถrtyol LNG
Operator: Botas Capacity: 4.3 mta Location: Iskenderun FSRU: MOL FSRU Challenger
Cynergy LNG
Operator: DEFA Cyprus Capacity: 3.7 mta Location: Vasilikos
Idku
Operator: Egyptian LNG Capacity: 7.2 mta
Damietta
Operator: SEGAS Services Capacity: 5.0 mta
Hadera LNG
Operator: Israel Electric Capacity: 3.7 mta Location: Offshore Hadera FSRU: Excelsior
Aqaba LNG
Operator: NEPCO Capacity: 6.0 mta Location: Aqaba FSRU: Golar Eskimo
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overview LNG-FUELLED FLEET | 21
Big boys join the LNG-fuelled fleet The orderbook for LNG-powered vessels has grown by 36% over the past 12 months; the majority of the new contracts have been for large vessels with bunker tanks of unprecedented size
T
he global fleet of in-service and on order LNG-fuelled vessels has grown by 26.5% since LNG World Shipping’s previous comprehensive review of the use of LNG as marine fuel 12 months ago. As of 1 May 2018 the world fleet totalled 253 vessels, comprising 121 ships in service and 132 on order. Over the past 12 months 18 LNG-powered ships have taken to the seas, increasing the in-service fleet by 17%, while the orderbook has been boosted by a total of 35 new ships, representing a 36% growth. On top of this fleet, DNV GL lists 110 vessels that have been, or are being, built as ‘LNG-ready’ ships. Such vessels are primed for straightforward conversion to duel-fuel running at a time the owner deems appropriate.
The two deck-mounted LNG bunker tanks on each of the four AET dual-fuel Aframax shuttle tankers newbuildings will enable a month of operations between refuellings
Fleet segments
LNG World Shipping breaks the LNG-powered fleet into four segments: tankers and bulkers, container and cargo ships, passenger ships and supply and service vessels. The year-on-year growth of the in-service and on order fleets for the four segments is shown in the table below.
GROWTH IN THE LNG-FUELLED FLEET OVER THE PAST YEAR (NUMBERS OF VESSELS) FLEET SEGMENT
1 MAY 2017
1 MAY 2018
Tankers and bulkers In service
19
24
On order
28
43
Container and cargo ships In service
11
12
On order
14
28
In service
40
41
On order
32
42
In service
33
44
On Order
13
19
In service
103
121
On Order
97
132
Passenger ships
Supply and service vessels
Fleets (Total)
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The most dynamic of the four segments over the past 12 months has been tankers and bulk carriers. Following the delivery of five ships, there are now 24 such tankers and bulkers in service. Contracts for 20 new vessels over the past year have boosted the tanker and bulker orderbook to 43 ships. Most of the new orders have been for Aframax and Suezmax tankers of 110,000 dwt and above. These vessels require large bunker tanks and will ensure the volume of LNG consumed by the tanker and bulker segment will jump significantly compared to the current fleet of LNG-powered coastal distribution tankers. The rise in the orderbooks of the passenger ship and container and cargo ship segments has also been due mainly to newbuilding contracts for large-size vessels. Most cruise ships ordered over the past 12 months have been specified with dual-fuel engines while CMA CGM’s order in November 2017 for nine ultra-large container ships of 22,000 TEU carrying capacity signalled a breakthrough order in the box ship segment. The dual-fuel vessels ordered by the Carnival group typify recent activity in the cruise ship segment. To be among the largest such vessels ever ordered, the ships will be provided with 3,600 m3 of bunker tank capacity. For the new Aframax tankers ordered over the past year upwards of 5,000 m3 of LNG bunker tank space will be needed. The new CMA CGM container ships will be world beaters on a number of fronts. They will not only be the largest such vessels ever ordered but also powered by the largest gas engines ever built. The 18,600 m3 membrane-type LNG bunker tank with which each CMA CGM ship will be fitted is five times larger than any specified for a previously contracted LNG-powered ship. It also
LNG World Shipping | May/June 2018
22 | LNG-FUELLED FLEET overview
marks the first use of a non-Type C containment system in an LNGfuelled vessel. The supply and service vessel segment of the LNG-fuelled fleet is comprised primarily of comparatively small offshore supply vessels and tugs. Yet even here, larger vessels are beginning to make their presence felt. Among the recent additions to the orderbook is a massive, dual-fuel, heavy-lift crane vessel that will require tankage for approximately 6,000 m3 of LNG bunkers. The step change in LNG fuel requirements is spurring the development of bunkering infrastructure worldwide. Investments are being made in LNG bunker vessels, LNG fuelling depots and the adaptation of existing LNG receiving terminals to enable the loading of small LNG vessels and road tankers. The latest progress with each of the four LNG-fuelled fleet segments is reviewed in the following pages.
Fuel decision time
The choice that shipowners must make between low-sulphur marine gas oil, LNG and the continued use of heavy fuel oil in tandem with an exhaust gas scrubber has been brought more finely into focus with the latest session of IMO’s Marine Environment Protection Committee (MEPC). Prior to that meeting, the decision still loomed large due to the reduction in IMO’s permissible fuel sulphur content, from 3.5% to 0.5%, that will come into effect on 1 January 2020. Despite the implementation of this notable global sulphur cap, the maritime community has remained under pressure to continue to develop the regime controlling ship atmospheric pollution. In response, IMO agreed at the 72nd session of MEPC (MEPC 72), held in London in March 2018, to reduce the allowable emissions of carbon dioxide (CO2) from ships by 50% by 2050 compared to 2008 levels. This will be a precursor to phasing out all greenhouse gas emissions from shipping as soon as possible in this century. While 2050 seems a somewhat distant target date, shipowners primarily play the long game, investing heavily in an asset with a working life of 20-plus years. The new deadline will be a factor impacting the choice of fuel for all future newbuilding, perhaps
comparatively slight initially but steadily gaining in importance over the coming decade. While LNG is the cleanest-burning of the fossil fuels, the gas option has proved a difficult choice to date for most shipowners. LNG-powered newbuildings are priced at an estimated 20% premium compared to vessels running on conventional oil fuel, due to the costs of dual-fuel engines, LNG bunker tanks and fuel gas supply systems. The cost of an exhaust gas scrubber, in contrast, requires an outlay of only about 20-25% of the LNG premium. Against this background, it has been estimated that LNG fuel is unlikely to be chosen for more than 5% of the world fleet of merchant vessels, with interest limited primarily to newbuildings. While several more optimistic industry pundits predicted that LNG could be the fuel of choice for perhaps 7-8% of the fleet, even they had to admit that very few owners would be opting to convert existing vessels to dual-fuel running. But even 5% of a merchant fleet of 55,000 ships of over 500 gt, ie 2,750 vessels, is not an inconsequential number. Now, following MEPC 72, additional optimism about the LNG option is creeping in. Meeting the 50% reduction in CO2 emissions by 2050 will require significant expenditure by the shipping industry. The recent rise in oil prices and worries about the corrosion and waste disposal issues attached to the use of scrubbers are increasing awareness that perhaps the capital costs associated with the use of LNG are not so onerous in the context of ship lifecycles. LNG is not a silver bullet when it comes to reduced emissions of CO2 emissions. Its use can only achieve reductions of 20-25% compared to the burning of oil fuels. However, the choice of LNG, in tandem with the other environment-friendly ship design features that owners are already introducing in the drive to achieve the GHG emission reduction goals – as laid down in the Energy Efficiency Design Index/Ship Energy Efficiency Management Plan regime developed by IMO - offer one of the best routes to compliance with the 2050 goal. The technological advances in ship fuel efficiency that will inevitably continue to be made in the years ahead are expected to increase the attractiveness of dual-fuel engines as a propulsion system choice. LNG
Amongst the 17 LNG-ready container ships that UASC has in service are Barzan and five other 18,800 TEU vessels
LNG World Shipping | May/June 2018
www.lngworldshipping.com
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24 | SERVICE AND SUPPLY SHIPS
SPECIALIST VESSELS POPULATE SERVICE SHIP FLEET
F
ollowing 11 completions over the past 12 months, there are now 44 vessels in the worldwide fleet of LNG-powered service and supply craft. Of the four segments into which LNG World Shipping breaks down the global total of LNG-fuelled merchant vessels, this fleet is now the largest. Platform supply vessels (PSVs) and tugs still dominate the service and supply fleet in terms of numbers. However, while LNG-powered tugs continue to be ordered, no new dual-fuel PSV has been contracted over the past 12 months. The PSV market has been through a tough time of late, with diminished offshore oil and gas exploration and production activity sending a large number of support vessels into layup. The difficulties experienced by the PSV sector were clearly demonstrated in March this year, when Harvey Gulf filed for Chapter 11 bankruptcy protection in the US. The company, which has six LNG-powered PSVs in its 50-vessel fleet, is seeking to restructure its debts.
Specialist vessels
A new feature of the LNG-powered service and supply ship fleet is the emergence of the specialist vessel, covering everything from dredgers and jack-up rigs to cable layers and heavy-lift crane vessels. The Belgian dredging group DEME has been a major player in this new sector, with
The LNG bunker tank on DEME’s Scheldt River provides one week of autonomous operation
LNG World Shipping | May/June 2018
The platform supply vessel sector has struggled in recent years. Will the emergence of specialist vessels help revive its fortunes?
Among the LNG-powered newbuildings that DEME has under construction is the 164 m Spartacus, earmarked for delivery by Royal IHC in 2019. With a total installed power of 44,180 kW and a Type C bilobe LNG bunker tank of 2,000 m3, Spartacus will be the most powerful cutter suction dredger ever built. It will also be the first dual-fuel dredger of this type and able to dredge in water depths of up to 45 m, well up on the present upper limit of 35 m.
Dual-fuel conversions
nine vessels contracted to date. The first two dual-fuel DEME ships – Scheldt River and Minerva – have recently entered service. Both are trailing suction hopper dredgers and both were built for European operations by Royal IHC. Wärtsilä engines and an LNG bunker tank of 630 m3 were chosen for the larger Scheldt River, while the smaller Minerva, which will carry out dredging in shallow waters, is powered by Anglo Belgian units and has a 200 m3 LNG bunker tank.
Van Oord and Van der Kamp also have dredgers under construction while Dragages Ports, part of the DEME group, has embarked on a project to convert the propulsion system of its largest trailing suction hopper dredger, the 177 m Samuel de Champlain, to dual-fuel running. Van der Kamp’s Ecodelta will be provided with a 325 m3 LNG bunker tank and will work in Rotterdam harbour while Van Oord’s smaller Werkendam, the owner’s first LNG-powered vessel, will have a 38 m3 LNG tank. At the same time as it ordered Spartacus, DEME also contracted the windfarm installation vessel Orion at the Cosco yard in China. With the same installed power as Spartacus, Orion’s LNG bunker fuel is supplied by means of two 1,000 m3 Type C tanks to provide three weeks of autonomous operations. As impressive as the LNG fuelling arrangements on board DEME’s specialist vessels are, they will be superseded by the requirements of a new generation of dualfuel heavy-lift ships ordered recently by Heerema, Jumbo and OOS International. TGE Marine has been contracted to supply eight, vertically mounted, cylindrical, IMO Type C LNG bunker tanks of 1,000 m3 each that will be required for Heerema’s 220 m semi-submersible crane vessel Sleipnir. MAN will supply the 12 fourstroke, dual-fuel engines situated in the four separate engine rooms that encompass the vessel’s diesel-electric propulsion system. It claims that, with the exception of power barges, Sleipnir’s engine installations represent the largest power pack ever provided for a single ship. LNG
www.lngworldshipping.com
SERVICE AND SUPPLY SHIPS | 25
LNG-FUELLED SERVICE & SUPPLY SHIPS (AS AT 1 MAY 2018) Ship name
Ship type
Delivery date
Owner
Shipbuilder
Engine
Propulsion
Class Society
PSV
2003
Møkster
Kleven Ulsteinvik
Wärtsilä
DF
DNV GL
PSV PSV PSV Patrol vessel Patrol vessel Patrol vesslk PSV PSV PSV PSV PSV PSV PSV PSV Harbour vessel Tug Tug Tug Tug Patrol vessel PSV PSV PSV PSV PSV PSV Tug PSV PSV Tug Icebreaker PSV Tug
2003 2008 2009 2009 2010 2010 2011 2011 2012 2012 2012 2012 2012 2013 2013 2013 2013 2014 2014 2014 2015 2015 2015 2016 2017 2015 2015 2015 2015 2015 2016 2017 2017
Eidesvik Eidesvik Eidesvik Remøy Remøy Remøy DOF Solstad Eidesvik Eidesvik Solstad Solstad Solstad Remøy Incheon Port Authority CNOOC CNOOC Buksér og Berging Buksér og Berging Finish Border Guard Møkster Harvey Gulf Harvey Gulf Harvey Gulf Harvey Gulf Remøy CNOOC Siem Offshore Siem Offshore NYK Line Finnish Transport Agency Siem Offshore Dubai Maritime City
Kleven Ulsteinvik West Contractors West Contractors Myklebust Myklebust Myklebust STX OSV Soviknes STX OSV Langen Kleven Ulsteinvik Kleven Ulsteinvik STX OSV Brevik STX OSV Brevik STX OSV Aukra Kleven Verft Samsung Guangzhou Huangpu Guangzhou Huangpu Sanmar Sanmar STX Turku Hellesøy Trinity Offshore Trinity Offshore Trinity Offshore Trinity Offshore Kleven Verft Zhenjiang Hellesøy Remontowa Keihin Dock Artech Helsinki Remontowa DDW Dubai
Wärtsilä Wärtsilä Wärtsilä Mitsubishi Mitsubishi Mitsubishi Wärtsilä Wärtsilä Wärtsilä Wärtsilä Rolls-Royce Rolls-Royce Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Rolls-Royce Rolls-Royce Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Rolls-Royce Wärtsilä Wärtsilä Niigata Wärtsilä Wärtsilä Wärtsilä
DF DF DF Gas & oil Gas & oil Gas & oil DF DF DF DF Gas Gas DF DF DF DF DF Gas Gas DF DF DF DF DF DF DF Gas DF DF DF DF DF DF
DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL KR CCS CCS DNV GL DNV GL DNV GL DNV GL ABS ABS ABS ABS DNV GL CCS DNV GL DNV GL ClassNK LR DNV GL Tasneef
Tug
2017
CNOOC
Zhenjiang
Rolls-Royce
Gas
CCS
PSV PSV PSV PSV Tug Tug Tug Dredger Dredger
2017 2017 2018 2018 2017 2017 2017 2017 2017
Siem Offshore Siem Offshore Harvey Gulf Harvey Gulf Østensjø Rederi Østensjø Rederi Østensjø Rederi DEME DEME
Remontowa Remontowa Trinity Offshore Trinity Offshore Astilleros Gondan Astilleros Gondan Astilleros Gondan Royal IHC Royal IHC
Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Anglo Belgian
DF DF DF DF DF DF DF DF DF
DNV GL DNV GL ABS ABS BV BV BV BV BV
IN SERVICE Stil Pioneer Viking Energy Viking Queen Viking Lady Barentshav Bergen Sortland Skandi Gamma Normand Arctic Viking Prince Viking Princess Island Crusader Island Contender Olympic Energy Rem Leader Econuri Hai Yang Shi You 521 Hai Yang Shi You 522 Børgoy Bokn Turva Stril Barents Harvey Energy Harvey Power Harvey Liberty Harvey Freedom Rem Eir Hai Yang Shi You 525 Siem Symphony Siem Pride Sakigaki Polaris Siem Thiima Elemarateyah Hai Yang Shi You ? Siem Melody Siem Rhapsody Harvey America Harvey Patriot Dux Pax Audax Scheldt River Minerva ON ORDER Bonny River
Dredger
2018
DEME
Cosco Guangdong
Wärtsilä
DF
unnamed
Apollo
Jack-up rig
2018
DEME
LaNaval
unnamed
DF
unnamed
Living stone
Cable-layer
2018
DEME
Uljanik
Wärtsilä
DF
unnamed
Dredger
2019
DEME
Royal IHC
Wärtsilä
DF
unnamed
Semi-sub crane vessel
2019
Heerema
Sembawang
MAN
DF
unnamed
Werkendam
Dredger
2018
Van Oord
Neptune Shipyards
Man Rollo
DF
unnamed
Ecodelta
Dredger
2018
Van der Kamp
Barkmeijer
Anglo Belgian
DF
unnamed
Survey ship
2018
German Maritime Authority
Fassmer
Wärtsilä
DF
unnamed
unnamed
Tug
2018
Ningbo Port Co
unnamed
Niigata
DF
CCS
KST Liberty
Tug
2018
Keppel Smit Towage
Keppel Singmarine
unnamed
unnamed
unnamed
Spartacus Sleipnir
Atair
unnamed
Tug
2018
Maju Maritime
Keppel Singmarine
unnamed
unnamed
unnamed
Windfarm installation vessel
2019
DEME/GeoSea
Cosco
Wärtsilä
DF
unnamed
Dredger
2018
DEME/Dragages Ports
Damen
MAN
DF
BV
Tug
2019
Mitsui OSK Lines
Kanagawa
Yanmar
DF
ClassNK
Heavylift crane vessel
2020
Jumbo
China Merchants
unnamed
unnamed
unnamed
Semi-sub crane vessel
2022
OOS International
China Merchants
unnamed
unnamed
unnamed
unnamed
Tug
2019
PSA Marine
PaxOcean
Wärtsilä
DF
unnamed
unnamed
Tug
2019
PSA Marine
PaxOcean
Wärtsilä
DF
unnamed
Dredger
2019
DEME/Dragages Ports
Socarenam
Wärtsilä
DF
unnamed
Orion Samuel de Champlain* unnamed Stella Synergy OOS Zeelandia
L'Ostrea
www.lngworldshipping.com
LNG World Shipping | May/June 2018
26 | TANKERS AND BULK CARRIERS
Aframaxes and Suezmaxes extend LNG-fuelled tanker envelope
C
ontracts for 20 new vessels over the past year have boosted the tanker and bulker orderbook to 43 ships. Of the four segments into which LNG World Shipping breaks down the LNG-fuelled fleet for this annual review, the tanker and bulker segment has the largest orderbook. There have been two notable ship completions in this segment so far in 2018. In April China’s Avic Dingheng yard handed over Fure Vinga to Furetank Rederi AB. The 17,999 dwt chemical/product tanker is the lead vessel in a series of six LNG-fuelled sisterships that the shipbuilder is constructing for operation within the Gothia Tanker Alliance (GTA) pool. In February, Hyundai Mipo Dockyard (HMD) delivered the 50,000 dwt Ilshin Green Iris to Ilshin Shipping for charter to the Korean steelmaker POSCO. The largest LNG-powered bulk carrier yet built, Ilshin Green Iris sports a 500 m3 bunker tank manufactured from a new cryogenic high-manganese
In terms of LNGfuelled newbuilding completions and orders over the past 12 months, the most dynamic segment has been tankers and bulk carriers. Following the delivery of five ships, there are now 24 such tankers and bulkers in service
Teekay is helping to introduce LNG as a propulsion system fuel for North Sea shuttle tanker operations
LNG World Shipping | May/June 2018
steel developed by POSCO. The majority of orders for new vessels in this segment over the past year are for Aframax and Suezmax oil tankers of over 100,000 dwt. There are now 19 such tankers under construction on behalf of Sovcomflot, AET, Teekay and Rosneft. All but four will be powered by low-pressure, twostroke engines from Winterthur Gas & Diesel (WinGD). AET of Singapore and Vancouver-based Teekay Offshore have each contracted four newbuildings at Samsung Heavy Industries (SHI). Two of the four 113,000 dwt AET ships will be built as North Sea shuttle tankers, while all four 130,000 dwt Teekay ships will serve in such a role. Shuttle tankers, which load crude oil at offshore facilities and ferry the cargoes to shoreside refineries, are extensively used in the North Sea. Wärtsilä has been contracted to supply its volatile organic compounds (VOC) recovery technology, LNG fuel gas handling systems and the auxiliary engines
for the two AET and the four Teekay shuttle tankers. AET has chosen two-stroke WinGD units as the main engines for its vessels, while Teekay has opted for a propulsion system in which four-stroke, dual-fuel Wärtsilä engines drive electric main propulsion motors. The AET and Teekay shuttle tankers will operate on LNG as the primary fuel, but the VOCs – the gas evaporating from the oil cargo tanks – will also be utilised as fuel by mixing it with the LNG. Wärtsilä states that by recovering the VOCs and combining them with LNG from dedicated bunker tanks, each ship can save up to 3,000 tonnes of fuel per annum. The LNG/VOCs mix can be utilised as fuel in the shuttle tankers’ dual-fuel main and auxiliary engines. Statoil is chartering the two AET shuttle tankers, as well as two of Teekay’s 130,000 dwt quartet. Although bunker tank capacities for the shuttle tankers have not been revealed, they could be less than that required by dual-fuel Aframax tankers engaged in more general trading, due to the relative proximity of North Sea LNG fuelling stations and bunker vessels. The second pair in the AET quartet of LNG-powered Aframaxes have been taken on long-term charter by Shell for crude oil transport operations centred in the Atlantic Basin. It is estimated that LNG-fuelled Aframax tankers engaged in open market trading would require upwards of 5,000 m3 of LNG bunker tank space to enable autonomous operations of required duration between refuellings. LNG
www.lngworldshipping.com
TANKERS AND BULK CARRIERS | 27
LNG-FUELLED TANKERS & BULKERS (AS AT 1 MAY 2018) Ship name
Ship type
Delivery date
Owner
Shipbuilder
Engine
Propulsion
Class Society
Product tanker Ethylene carrier Ethylene carrier Product tanker LPG carrier Cement carrier Cement carrier Product tanker LPG carrier CNG carrier Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Ethane carrier Ethane carrier Ethane carrier Ethane carrier Bitumen tanker Chemical/product tanker Ethane carrier
2011
Tarbit
Oresundsvarvet
Wärtsilä
DF
DNV GL
2014 2014 2015 2015 2015 2016 2016 2016 2016 2016 2016 2016 2017 2016 2016 2016 2017 2016 2017 2017
Anthony Veder Anthony Veder Bergen Tankers Chemgas Shipping JT Cement JT Cement Furetank Chemgas Shipping CIMC Enric SZJ Gas Terntank Terntank Terntank Terntank Ocean Yield Navigator Gas Navigator Gas Navigator Gas Groupe Desgagnés Groupe Desgagnés Ocean Yield
Avic Dingheng Avic Dingheng Noryards Hoogezand Ferus Smit Ferus Smit Oresundvarvet Hoogezand Jiangsu Hantong Avic Dingheng Avic Dingheng Avic Dingheng Avic Dingheng Sinopacific Jiangnan Jiangnan Jiangnan Besiktas Besiktas Sinopacific
Wärtsilä Wärtsilä Rolls-Royce Wärtsilä Wärtsilä Wärtsilä MaK Wärtsilä Wärtsilä Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D MAN MAN MAN MAN Winterthur G&D Winterthur G&D MAN
DF DF Gas DF DF DF DF DF DF LPLSDF LPLSDF LPLSDF LPLSDF HPLSDF HPLSDF HPLSDF HPLSDF HPLSDF LPLSDF LPLSDF
BV BV DNV GL BV LR LR BV BV ABS/BKI BV BV BV BV DNV GL ABS ABS ABS BV BV DNV GL
Ethane carrier
2017
Navigator Gas
Jiangnan
MAN
HPLSDF
ABS
Bulk carrier Chemical/product tanker
2018 2018
Ilshin Shiiping Furetank
Hyundai Mipo Avic Dingheng
MAN Wärtsilä
HPLSDF DF
LR/KR BV
IN SERVICE Bit Viking Coral Star Coral Sticho Bergen Viking* Sefarina Greenland Ireland Fure West* Sundowner Jayanti Baruna Ternsund Ternfjord Tern Sea Tern Ocean Gaschem Beluga Navigator Aurora Navigator Eclipse Navigator Nova Damia Desgagnes Mia Desgagnes Gaschem Orca Navigator Prominence Ilshin Green Iris Fure Vinga
ON ORDER unnamed
Oil bunker vessel
2018 Harley Marine Consortium
Huangpu Wenchong
unnamed
unnamed
unnamed
unnamed unnamed Viikki Haaga unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed unnamed
Oil bunker vessel Oil bunker vessel Chemical/product tanker Chemical/product tanker Ethane carrier Ethane carrier Ethane carrier Ethane carrier Ethane carrier Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Aframax tanker Aframax tanker Aframax tanker Aframax tanker Aframax tanker Aframax tanker Aframax tanker Aframax tanker Aframax shuttle tanker Aframax shuttle tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Chemical/product tanker Suezmax shuttle tanker Suezmax shuttle tanker Suezmax shuttle tanker Suezmax shuttle tanker Aframax tanker Aframax tanker Aframax tanker Aframax tanker
2018 Harley Marine Consortium 2019 Sinanju Tankers 2018 Groupe Desgagnés 2018 Groupe Desgagnés 2018 ESL Shipping 2018 ESL Shipping 2018 Evergas 2018 Evergas 2018 Evergas 2018 Evergas 2018 Furetank 2019 Ålvtank 2019 Thun Tankers 2018 Furetank 2019 Ålvtank 2018 Thun Tankers 2019 Thun Tankers 2019 Thun Tankers 2020 Thun Tankers 2018 Sovcomflot 2018 Sovcomflot 2019 Sovcomflot 2019 Sovcomflot 2019 Sovcomflot 2019 Sovcomflot 2018 AET 2019 AET 2019 AET 2020 AET 2019 Thun Tankers 2019 Thun Tankers 2020 Thun Tankers 2020 Thun Tankers 2019 Teekay Offshore 2020 Teekay Offshore 2020 Teekay Offshore 2020 Teekay Offshore 2021 Rosneft 2021 Rosneft 2022 Rosneft 2022 Rosneft
Huangpu Wenchong Keppel Singmarine Besiktas Besiktas Jingling Shipyard Jingling Shipyard JHW Engineering JHW Engineering JHW Engineering JHW Engineering Avic Dingheng Avic Dingheng Avic Dingheng Avic Dingheng Avic Dingheng Ferus Smit Ferus Smit Ferus Smit Ferus Smit Hyundai Samho Hyundai Samho Hyundai Samho Hyundai Samho Hyundai Samho Hyundai Samho Samsung Samsung Samsung Samsung Avic Dingheng Avic Dingheng Avic Dingheng Avic Dingheng Samsung Samsung Samsung Samsung Zvezda Zvezda Zvezda Zvezda
unnamed unnamed Winterthur G&D Winterthur G&D MAN MAN unnamed unnamed unnamed unnamed Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Winterthur G&D Winterthur G&D Winterthur G&D Winterthur G&D
unnamed unnamed LPLSDF LPLSDF DF DF unnamed unnamed unnamed unnamed DF DF DF DF DF DF DF DF DF LPLSDF LPLSDF LPLSDF LPLSDF LPLSDF LPLSDF LPLSDF LPLSDF LPLSDF LPLSDF DF DF DF DF DF DF DF DF LPLSDF LPLSDF LPLSDF LPLSDF
unnamed BV BV BV DNV GL DNV GL unnamed unnamed unnamed unnamed BV BV BV BV BV BV BV BV BV DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL ABS ABS DNV GL DNV GL BV BV BV BV DNV GL DNV GL DNV GL DNV GL RS RS RS RS
unnamed
Aframax tanker
Zvezda
Winterthur G&D
LPLSDF
RS
www.lngworldshipping.com
2022
Rosneft
LNG World Shipping | May/June 2018
28 | PASSENGER SHIPS
CRUISE SHIPS ADD NEW DIMENSION TO LNG PASSENGER FLEET INCLUDING NEWBUILDING ORDERS, THERE ARE MORE PASSENGER SHIPS IN THE LNG-POWERED FLEET THAN ANY OTHER TYPE OF VESSEL
AIDA Cruises is preparing to put the world’s first LNG-powered cruise ship into service later this year
T
he latest LNG World Shipping review of LNG-fuelled ships worldwide, which breaks the fleet into four segments, shows that as of 1 May 2018 there were 41 such passenger ships in service, compared to 40 a year ago, and 42 on order (up from 32). In terms of vessel numbers, the passenger ship total of in-service and on-order vessels is 24% greater than the next largest segment, tankers and bulk carriers. As is the case for the other fleet segments, passenger ships ordered over the last 12 months have tended to be larger vessels. The number of cruise liners under construction has increased by 38% over the past 12 months, from 13 to 18 vessels. AIDA Cruises and P&O Cruises have each added one vessel to their respective orderbooks, boosting the number of cruise liners
LNG World Shipping | May/June 2018
that the Carnival Group has under construction to nine vessels. In addition, Disney Cruise Line has joined the LNG-fuelled cruise ship bandwagon, ordering three dual-fuel newbuildings. The first of the three AIDA Cruises newbuildings, AIDAnova, will be delivered by the Papenburg yard of Germany’s Meyer Werft in autumn 2018 as the world’s first LNG-powered cruise ship. The 183,900 gt vessel will have 2,700 cabins and a crew of 1,500. The engineroom modules for AIDAnova have been constructed separately, at Meyer’s Rostock facility. The units contain the entire engineroom for the ship, complete with four dual-fuel Caterpillar/ MaK engines, the LNG bunker tanks and all related machinery systems and installations. The vessel’s bunker tank arrangement is comprised of three 1,200 m3 IMO Type C pressure vessel units. AIDA Cruises already has experience of handling LNG. The engine complement on each of two recently built cruise ships, AIDAprime and AIDAperla, contains a single dual-fuel engine, although the vessels are not fitted with LNG bunker tanks. The arrangement enables the two vessels to meet their hotel load requirements with LNG while berthed in port. LNG is delivered to the moored ships in road tankers, regasified and used in the shipboard dual-fuel engine. To date LNG has been delivered in this manner to AIDAprime and AIDAperla in the ports of Southampton, Le Havre, Zeebrugge, Rotterdam, Barcelona, Marseilles, Civitavecchia and Funchal. An LNG regasification barge is employed to do the same job in Hamburg. In contrast, AIDAnova will be fully powered by LNG and the large volume of LNG bunkers required by the ship will need to be transferred from a dedicated LNG bunker vessel in a ship-to-ship operation. Shell has been contracted to fuel the cruise ship in this way, as part of a larger agreement between the energy major and the Carnival Group to bunker a number of cruise ships in the fleet with LNG, both in Europe and North America. Another recent cruise vessel contract of note is that by Ponant of France for the luxury polar expedition cruise ship Ponant Icebreaker. Fincantieri’s Vard shipyard will build the Polar Class 2, 30,000 gt ship, for delivery in 2021. The world’s first electric hybrid cruise vessel with icebreaker characteristics, Ponant Icebreaker will have Wärtsilä duel-fuel engines, ABB Azipod propulsion units, highcapacity batteries and a GTT membrane LNG bunker tank. LNG
www.lngworldshipping.com
PASSENGER SHIPS | 29
LNG-FUELLED PASSENGER SHIPS (AS AT 1 MAY 2018) Ship name
Ship type
Delivery date
Owner
Shipbuilder
Engine
Propulsion
Class Society
Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Passenger ferry Passenger ferry Passenger ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry High-speed ferry High-speed ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry
2000 2006 2007 2007 2007 2007 2009 2009 2009 2009 2010 2010 2010 2010 2011 2012 2012 2012 2013 2013 2013 2013 2013 2013 2013 2013 2015 2015 2015 2015 2015 2015 2016 2016 2016 2017 2017 2017 2017 2017 2017
Fjord1 Fjord1 Fjord1 Fjord1 Fjord1 Fjord1 Tide Sjø Tide Sjø Tide Sjø Fjord1 Fjord1 Fjord1 Fjord1 FosenNamsos Sjø Fjord1 Fjord1 Torghatten Nord Torghatten Nord Torghatten Nord Torghatten Nord Viking Line Fjord Line Fjord Line Buquebus Norled Norled STQ Quebec AG Ems Samsø Municipality Samsø Municipality Boreal Transport Boreal Transport STQ Quebec STQ Quebec Seaspan Seaspan Baleària BC Ferries BC Ferries Tallink BC Ferries
Langstein Aker Yards Aker Yards Aker Yards Aker Yards Aker Yards STX Europe Lorient STX Europe Lorient STX Europe Lorient Remontowa Remontowa Remontowa Remontowa Fiskerstrand BLRT Fiskerstrand BLRT Fiskerstrand BLRT Remontowa Remontowa Remontowa Remontowa STX Turku Remontowa Remontowa Incat Remontowa Remontowa Fincantieri Cassen Eils Remontowa Remontowa Fiskerstrand Fiskerstrand Davie Sb Davie Sb Sedef Sedef unnamed Remontowa Remontowa Meyer Turku Remontowa
Mitsubishi Rolls-Royce Rolls-Royce Rolls-Royce Rolls-Royce Rolls-Royce Mitsubishi Mitsubishi Mitsubishi Mitsubishi Mitsubishi Mitsubishi Mitsubishi Mitsubishi Rolls-Royce Rolls-Royce Rolls-Royce Rolls-Royce Rolls-Royce Rolls-Royce Wärtsilä Rolls-Royce Rolls-Royce GE gas turbine Mitsubishi Mitsubishi Wärtsilä Winterthur G&D Wärtsilä Wärtsilä Rolls-Royce Rolls-Royce Wärtsilä Wärtsilä Wärtsilä Wärtsilä Rolls-Royce Wärtsilä Wärtsilä Wärtsilä Wärtsilä
Gas Gas Gas Gas Gas Gas Gas + oil Gas + oil Gas + oil Gas + oil Gas + oil Gas + oil Gas + oil Gas + oil Gas Gas Gas Gas Gas Gas DF Gas Gas Gas Gas Gas DF DF DF DF Gas Gas DF DF DF DF Gas DF DF DF DF
DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL LR DNV GL DNV GL DNV GL DNV GL DNV GL LR GL GL DNV GL DNV GL DNV GL LR LR BV BV BV LR LR BV LR
Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry High-speed ferry Car pax ferry High-speed ferry High-speed ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Car pax ferry Cruise ship Cruise ship Cruise ship
2018 2018 2018 2018 2018 2019 2019 2019 2019 2018 2018 2018 2018 2019 2019 2019 2019 2018 2019 2019 2020 2020 2020 2018 2021 2023
Rederi AB Gotland Rederi AB Gotland CalMac CalMac Torghatten Nord Torghatten Nord Torghatten Nord Torghatten Nord Torghatten Nord Fred Olsen Caronte Doeksen Doeksen Baleària Baleària Baleària Baleària BC Ferries BC Ferries Brittany Ferries Viking Line Polferries Polferries AIDA (Carnival Group) AIDA (Carnival Group) AIDA (Carnival Group)
Guangzhou International Guangzhou International Ferguson Ferguson Vard Vard Tersan Tersan Tersan Navantia Sefine Shipyard Strategic Marine Strategic Marine CN Visentini CN Visentini Navantia Navantia Remontowa Remontowa Flensburger Xiamen Shipbuilding MRS Gryfia MRS Gryfia Meyer Papenburg Meyer Papenburg Meyer Papenburg
Wärtsilä Wärtsilä Wärtsilä Wärtsilä Rolls-Royce Rolls-Royce Rolls-Royce Rolls-Royce Rolls-Royce Caterpillar unnamed MTU MTU Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä Wärtsilä unnamed unnamed unnamed unnamed Caterpillar/MaK Caterpillar/MaK Caterpillar/MaK
DF DF DF DF Gas Gas Gas Gas Gas DF DF Gas Gas DF DF DF DF DF DF DF DF DF DF DF DF DF
DNV GL DNV GL LR LR DNV GL DNV GL DNV GL DNV GL DNV GL DNV GL RINA LR LR unnamed unnamed unnamed unnamed LR LR BV DNV GL PRS PRS DNV GL DNV GL DNV GL
unnamed
Cruise ship
2019
Costa (Carnival Group)
Meyer Turku
unnamed
DF
RINA
unnamed
Cruise ship
2021
Costa (Carnival Group)
Meyer Turku
unnamed
DF
RINA
unnamed unnamed
Cruise ship Cruise ship
2020 P&O Cruises (Carnival Group) 2022 P&O Cruises (Carnival Group)
Meyer Papenurg Meyer Papenurg
unnamed unnamed
DF DF
unnamed unnamed
IN SERVICE Glutra Bergensfjord Stavangerfjord Raunefjord Mastrafjord Fanafjord Tidekongen Tidedronnigen Tideprinsen Moldefjord Fannefjord Romsdalfjord Korsfjord Sebjornsford Tresfjord Boknafjord Landegode Værøy Barøy Lødingen Viking Grace Stavangerfjord Bergebsfjord Francisco Hardanger Ryfylke FA Gauthier Osfriesland Helgoland Samsø Hasvik Bergsfjord Armand-Imbeau II Jos-Deschênes II Seaspan Swift Seaspan Reliant Abel Matutes* Salish Orca Salish Eagle Megastar Salish Raven ON ORDER Visborg Thjelvar Glen Sannox unnamed unnamed unnamed unnamed unnamed unnamed Bencomo Express* unnamed unnamed unnamed Hypatia de Alejandra unnamed unnamed unnamed Spirit of British Columbia Spirit of Vancouver Island Honfleur unnamed Wulkan Nowy unnamed AIDAnova unnamed unnamed
www.lngworldshipping.com
LNG World Shipping | May/June 2018
30 | CONTAINER AND CARGO SHIPS
CMA CGM box ships raise the bar for the LNG bunkering industry
T
he container and cargo ship segment is the smallest, in terms of the number of ships in service and on order, of the four segments into which LNG World Shipping groups LNG-powered vessels. However, it has recently been the focus of some dramatic news as regards the use of LNG as marine fuel. In November 2017 the French liner service operator CMA CGM specified dual-fuel engines for nine new 22,000 TEU container ships. They will be not only the largest vessels of this type ever ordered, but also the largest ships that are not LNG carriers to be powered by LNG. Five of the ships will be built at the Hudong-Zhonghua yard and four at the neighbouring Shanghai facility of Waigaoqiao. All will be delivered between the end of 2019 and the end of 2020. These breakthrough ships will be propelled by the largest gas-burning engines ever built and boast an 18,600 m3 LNG bunker tank of the GTT Mark III
The CMA CGM container ships will be powered by an X-DF unit which will be the most powerful dual-fuel engine ever built
LNG World Shipping | May/June 2018
The orderbook for the container and cargo ship segment of the LNG-fuelled fleet has doubled over the past 12 months, from 14 to 28 vessels, potentially ushering in a new era for LNG as marine fuel
membrane type. The dual-fuel propulsion units chosen for the vessels are Winterthur Gas & Diesel Ltd (WinGD) low-pressure, two-stroke 12X92DF engines. The 12-cylinder, 92 cm bore engine on each ship is rated 63,840 kW at 80 rpm. The bunker tank capacity on the BVclassed CMA CGM ships is five times larger than any yet specified for an LNG-powered ship. The GTT contract also marks the first time a non-Type C containment system has been specified for an LNG bunker tank. Total will provide the 300,000 tonnes of LNG per annum that will be required to fuel the nine vessels. It is estimated that this volume is equal to that consumed by the entire existing fleet of 121 gaspowered ships. The entry into service of the new CMA CGM fleet of dual-fuel ultra-large container ships (ULCS) will spur major developments in the provision of LNG fuelling infrastructure worldwide, including the largest ever gas bunkering vessel. LNG as marine fuel is about to enter a new era. Total and Mitsui OSK Lines (MOL) have jointly ordered, from the HudongZhonghua yard, the 135 m LNG bunker vessel (LNGBV) that will be required to service the CMA CGM box ships. It will have the same capacity and utilise the same membrane containment system as the bunker tank on the container ships. The Total/MOL vessel’s 18,600 m3 capacity will make it over three times the size of the largest LNGBV currently in
service. The Hudong yard, incidentally, is also building the Mark III membrane bunker tanks for all nine of the container ships. The LNGBV, which will be based in North West Europe, has been sized to ensure that each ULCS can make an Asia/ Europe round trip on a single fuelling. It is likely that such large LNGBVs will not be required in future because the anticipated spread of LNG bunkering infrastructure will provide a wide range of fuelling locations from which to choose. Where CMA CGM and its LNG fuel suppliers lead, others will follow. The bunkering arrangements put in place for the ULCSs will also be able to service a wide range of vessels with more modest bunkering requirements. In addition, the bold moves by CMA CGM, Total and MOL reinforce similar initiatives by Shell, Engie (now part of Total), ExxonMobil and many others and will lead to further investments in LNG bunkering infrastructure. Shell’s list of LNG customers, for example, continues to grow. In October 2017 Siem Car Carriers signed up with the energy major for the supply of LNG fuel for two pure car and truck carriers (PCTCs) it is having built at Xiamen Shipyard for charter to Volkswagen, for the carriage of Volkswagen vehicles from Europe to North America, starting in 2019. Shell will bunker the vessels in North West Europe and at a second supply point in the US by means of ship-to-ship transfers from dedicated LNGBVs. Each of the 200 m car carriers will have space for up to 6,500 vehicles and be fitted with a pair of IMO Type C bunker tanks with a total capacity of 3,600 m3 supplied by Gloryholder Liquefied Gas Machinery. MAN Diesel & Turbo will supply the M-type, electronically controlled, gasinjection engine that will power each ship. The high-pressure, two-stroke, dual-fuel units will develop 12,600 kW, making them the most powerful dual-fuel PCTCs yet built. They will also be the first LNGpowered PCTCs employed on long-haul international routes. LNG
www.lngworldshipping.com
CONTAINER AND CARGO SHIPS | 31
LNG-FUELLED PASSENGER SHIPS (AS AT 1 MAY 2018) Ship name
Ship type
Delivery date
Owner
Shipbuilder
Engine
Propulsion
Class Society
Høydal
Fishfeed carrier
2012
Nordnorsk Shipping
Tersan
Rolls-Royce
Gas
DNV GL
Eidsvaag Pioneer
Fishfeed carrier
2013
Eidsvaag
STX OSV Aukra
Rolls-Royce
Gas
DNV GL
With Harvest
Fishfeed carrier
2014
Egil Uvan
Fiskerstrand
Rolls-Royce
Gas
DNV GL
With Marine
Fishfeed carrier
2014
Egil Uvan
Fiskerstrand
Rolls-Royce
Gas
DNV GL
Kvitbjørn
Container ro-ro
2015
Samskip
Tsuji Heavy Jiangsu
Rolls-Royce
Gas
DNV GL
Kvitnos
Container ro-ro
2015
Samskip
Tsuji Heavy Jiangsu
Rolls-Royce
Gas
DNV GL
Isla Bella
Container ship
2015
TOTE
NASSCO
MAN
HPLSDF
ABS
Perla del Caribe
Container ship
2016
TOTE
NASSCO
MAN
HPLSDF
ABS
Ro-ro cargo
2016
SeaRoad
Flensburger
MaK
DF
DNV GL
Auto Eco
Car carrier
2016
UECC
NACKS
MAN
HPLSDF
LR
Auto Energy
Car carrier
2016
UECC
NACKS
MAN
HPLSDF
LR
Wes Amelie*
Container
2017
Wessels
German Dry Docks
MAN
DF
BV
El Coqui
Container ship
2018
Crowley Maritime
VT Halter Marine
MAN
HPLSDF
DNV GL
Taino
Container ship
2018
Crowley Maritime
VT Halter Marine
MAN
HPLSDF
DNV GL
unnamed
Container ship
2018
Brodosplit Shipping
Brodosplit
MAN
HPLSDF
DNV GL
unnamed
Container ship
2018
Brodosplit Shipping
Brodosplit
MAN
HPLSDF
DNV GL
unnamed
Container ship
2018
Brodosplit Shipping
Brodosplit
MAN
HPLSDF
DNV GL
unnamed
Container ship
2018
Brodosplit Shipping
Brodosplit
MAN
HPLSDF
DNV GL
Nord
Container ship
2018
Containerships
Guangzhou Wenchong
Winterthur G&D
LPLSDF
ABS
unnamed
Container ship
2018
Containerships
Guangzhou Wenchong
Winterthur G&D
LPLSDF
ABS
unnamed
Container ship
2019
Containerships
Guangzhou Wenchong
Winterthur G&D
LPLSDF
ABS
unnamed
Container ship
2019
Containerships
Guangzhou Wenchong
Winterthur G&D
LPLSDF
ABS
Nyksund
Fishfeed carrier
2018
Nordnorsk Shipping
Tersan
Rolls-Royce
Gas
DNV GL
Midnight Sun*
Container ship
2018
TOTE
NASSCO
Wärtsilä
DF
ABS
North Star*
Container ship
2018
TOTE
NASSCO
Wärtsilä
DF
ABS
unnamed
Reefer vessel
2018
SEoIL Agency
unnamed
unnamed
unnamed
unnamed
unnamed
Container ship
2020
Pasha Hawaii
Keppel AmFELs
unnamed
unnamed
unnamed
unnamed
Container ship
2020
Pasha Hawaii
Keppel AmFELs
unnamed
unnamed
unnamed
unnamed
Car carrier
2019
Siem Car Carriers
Xiamen
MAN
HPLSDF
ABS
unnamed
Car carrier
2019
Siem Car Carriers
Xiamen
MAN
HPLSDF
ABS
unnamed
Container ship
2019
CMA CGM
Hudong-Zhongua
Winterthur G&D
LPLSDF
BV
unnamed
Container ship
2019
CMA CGM
Hudong-Zhongua
Winterthur G&D
LPLSDF
BV
unnamed
Container ship
2020
CMA CGM
Hudong-Zhongua
Winterthur G&D
LPLSDF
BV
unnamed
Container ship
2020
CMA CGM
Hudong-Zhongua
Winterthur G&D
LPLSDF
BV
unnamed
Container ship
2020
CMA CGM
Hudong-Zhongua
Winterthur G&D
LPLSDF
BV
unnamed
Container ship
2019
CMA CGM
Shanghai Waigaoqiao
Winterthur G&D
LPLSDF
BV
unnamed
Container ship
2020
CMA CGM
Shanghai Waigaoqiao
Winterthur G&D
LPLSDF
BV
unnamed
Container ship
2020
CMA CGM
Shanghai Waigaoqiao
Winterthur G&D
LPLSDF
BV
unnamed
Container ship
2020
CMA CGM
Shanghai Waigaoqiao
Winterthur G&D
LPLSDF
BV
unnamed
Fish wellboat
2019
Nordlaks
Tersan
unnamed
unnamed
unnamed
IN SERVICE
Searoad Mersey II
ON ORDER
*conversion project DF = medium-speed dual-fuel; HPLSDF = high-pressure low-speed dual-fuel; LPLSDF = low-pressure low-speed dual-fuel
www.lngworldshipping.com
LNG World Shipping | May/June 2018
Maran Gas SHIPOWNER | 33
THE MARAN GAS RECIPE FOR SUCCESS Maran Gas Maritime (MGM) is the youngest company in the Angelicoussis stable, but already its LNG fleet has travelled the equivalent of circumnavigating the globe over 500 times. Craig Jallal reviews the Maran Gas formula for success
M
aran Gas Maritime Inc was founded in 2003 as the gas shipping unit of Angelicoussis Shipping Group (ASGL), the Greek shipping company established by Antonis Angelicoussis in 1947. John Angelicoussis, son of Antonis, has led the company since 1989, adding oil and LNG shipping segments to the original bulk carrier fleet. John’s daughter, Maria, who trained as a medical doctor, joined the company in 2009 and is now actively involved in all aspects of what is probably the largest privately held shipping group in the world. ASGL ships are primarily Greek flagged, with Greek officers and Filipino ratings. Of the 132 vessels on the water, 26 are LNG vessels, while nine of the 20 under construction are LNG ships. The LNG newbuilding complement comprises eight conventional vessels and one floating storage and regasification unit (FSRU). The average age of the in-service LNG fleet is 3.5 years.
Long-term relationships
MGM owes much of its success to the solid long-term relationships John Angelicoussis has forged with key clients, RasGas, Shell and Woodside. This has driven growth, a recent example being the agreement to scale up the
www.lngworldshipping.com
Nakilat-Maran Gas cooperative arrangement into a joint venture of 15 LNG carriers. A key aspect to the client relationship, according to MGM, is the private nature of the business. Without having to manage quarterly earning cycles, the company can concentrate on customer requirements and build long-term relationships. While the majority of MGM LNG ships are serving on long-term charters, those off-charter are currently working the spot market. According to a company spokesperson, MGM has a four-person commercial team that handles all term, spot and FSRU chartering activities. Brokers are used where they provide value, but the company does not charter-in vessels or manage them on behalf of third parties.
Engine consideration
Daewoo Shipbuilding & Marine Engineering (DSME) has been a popular choice of yard for MGM, having built 16 of the 26 LNG vessels in service and having secured all nine vessels currently on order. When it comes to the propulsion system for its LNG carrier (LNGC) newbuildings ordered against charters, MGM reports that the choice is down to its customers. A spokesman for MGM said: “DSME has the capability to build vessels with either ME-GI or X-DF engines. From MGM’s perspective, we understand enough of both technologies to operate them efficiently and we are willing to employ whichever propulsion type a customer requests.” However, MGM does have a preference. “For our speculative newbuild orders, we have selected ME-GI engines as our preferred option. Compared to X-DF, our ME-GI arrangement offers a lower operating cost for the same capex spend. Therefore, it is the most economical and efficient solution for customers wishing to employ the vessel.” The company said its ME-GI vessels were equipped with two compressors, a full reliquefaction system and a full gas combustion unit (GCU) to provide a valuable
Maria Angelicoussis: the “secret to our success” is our people
level of redundancy. They also include exhaust gas treatment systems to ensure Tier III compliance. Furthermore, the ME-GI engine does not suffer from methane slip, which is an issue for the X-DF option.
Maintenance challenges of diesel engines
MGM believes there are still challenges to overcome with regards the maintenance of diesel engines compared to steam turbines. The introduction of diesel engines has lowered the delivered fuel cost required to ship 1 m3 of LNG by about 50%, according to the company. However, in MGM’s opinion, this improvement in LNG vessel efficiency has come with increased maintenance requirements to support the diesel propulsion plant. Whereas for steam vessels, main engine maintenance would take place during regularly scheduled dry-dock periods, much of the maintenance for the diesel engines needs to be done based on running hours and
LNG World Shipping | May/June 2018
34 | SHIPOWNER Maran Gas
will occur while the vessels are in service. According to MGM, the LNG industry as a whole needs to appreciate these maintenance requirements and adjust vessel scheduling to allow for such maintenance and/or vendor attendances, to help ensure reliable vessel operations.
to coordinate its rapidly growing internal knowledge base. MGM is confident that secure employment for its first FSRU will be sealed before the vessel is delivered in 2020. It believes its LNG expertise and experience will provide it with the credentials to compete with existing FSRU providers.
4 Sep 2003
First steam LNG vessel order
29 Jul 2005
First steam LNG vessel delivery
New ventures
Crew training centre
29 Jul 2005
Start of Maran Nakilat Joint Venture (four ships)
The company has scoped out the potential of moving up or downstream within the LNG sector. While there are no plans to enter downstream into terminals or LNG trading, MGM has been asked by customers to provide marine advice on LNG bunkering matters. One new venture on the horizon involves entry into the FSRU sector. The first FSRU ordered by Maran Gas is due for delivery in Q1 2020. MGM sees this venture as serving the strategy already laid out by the oil majors, which are entering the power markets to create sustainable demand-driven growth for their gas. MGM sees FSRUs as another facet of that strategy, by fast-tracking a floating terminal, rather than an onshore terminal, to connect to a growing power grid. “The demand is there, our aim is to serve it,” it says. The MGM FSRU is being actively marketed and the company is entering into tenders as well as direct discussions. MGM has contracted experts with significant commercial and technical FSRU expertise to expedite its entry into this sector and
Maria Angelicoussis, seen here with her father, John, is taking on a more prominent role in the group
LNG World Shipping | May/June 2018
The specialist requirements of the LNG shipping sector represent one of the major barriers to entry for newcomers. Having a dedicated LNG shipping training unit is an important differential in this regard. In 2001, ASGL established the Den Norske Veritas Germanischer Lloydaccredited Delphic Maritime Training Centre (DMTC) as a shared department, providing training services to all Group companies, including MGM. Among its portfolio of courses, DMTC offers certified SIGTTO training for MGM’s LNG officers and relevant shore staff. The Centre has a full bridge simulator, cargo simulator, engine room simulator and other computer-based training aids. DMTC is also an authorised training centre for electronic chart display and information systems (ECDIS). DMTC held 593 training sessions with 6,265 attendees in 2017 and, according to MGM, the dedicated training regime is paying dividends. It’s retention rate for seagoing and shore personnel is 97%; for the seagoing personnel these rates are 91% for officers and 99% for ratings. DMTC and the provision of training are aspects of the company which are particularly close to the heart of the future leader of the group, Maria Angelicoussis. ”Although Maran Gas is the youngest of our three ASGL companies, it is the fastest growing,” she told LNG World Shipping. She added: “It is also a shipping industry sector where top-quality operations and expertise are both greatly valued. “Early on at Maran Gas, we moved all our commercial and technical management in-house and, through our initial relationships, we quickly acquired solid trading experience. The combination of in-house expertise and strong relationships with our customers gives us a competitive advantage in the market today,” she said. “The ‘secret to our success’ is our people, both ashore and at sea,” concluded Maria Angelicoussis. “With a state-of-the-art training centre and a retention rate of over 90%, we are investing in the future of our people to continue the growth and expansion of MGM.” LNG
MARAN GAS MILESTONES
29 Aug 2005
First cargo loaded
23 May 2008
100th cargo loaded
25 Mar 2011
First TFDE LNG vessel order
25 Jun 2013
First expansion of Maran Nakilat joint venture to include two Non-Qatari chartered Ships
1 Jul 2013
First TFDE LNG vessel delivery
23 May 2014
10th LNG vessel delivered
29 Dec 2014
First MEGI LNG vessel order
22 Jul 2016
20th LNG vessel delivered
25 Jul 2016
First ever LNG vessel to cross Panama Canal – Maran Gas Apollonia
19 Sep 2017 6 Dec 2017 28 Feb 2018
1 Mar 2018
1,000th cargo loaded First FSRU vessel order Most recent expansion to Maran Nakilat joint venture, adding two ships Total ships in Maran Nakilat joint venture – 15
Apr 2018
Total Panama Canal crossings by MGM vessels to date – 36
Apr 2018
Around 1,150 cargoes loaded
Apr 2018
157 FSRU calls
Apr 2018
11,690,418 NM total distance sailed
Apr 2018
540 circumnavigations of the equator
19 Jun 2018
30th LNG vessel delivery expected
Jun 2018
First MEGI LNG vessel delivery expected
Mar 2020
First FSRU vessel delivery expected
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OPINION | 37
PUTTING JETTY-BASED LNG REGASIFICATION INTO PERSPECTIVE JOHN E BARNES OF UNIVERSALPEGASUS INTERNATIONAL WEIGHS UP THE ADVANTAGES TO BE GAINED FROM LNG IMPORT TERMINAL OPERATORS CHOOSING THE JETTY-BASED REGASIFICATION OPTION
T
he global network of LNG import terminals continues to spread. According to the International Group pf LNG Importers’ (GIIGNL) recently published Annual Report 2018, there are now 40 LNG import countries worldwide which, between them, offer 850 million tonnes per annum (mta) of LNG regasification capacity. LNG import terminals have three major components: LNG storage, LNG regasification and the marine berth; and there are three principal terminal configurations for the regasification function, as follows: 1. floating storage and regasification unit (FSRU terminal); 2. onshore regasification plant (onshore terminal); and 3. marine berth-mounted regasification plant, in tandem with a floating storage unit (marine berth regas/FSU terminal). This article highlights the advantages of the marine berth regas/FSU terminal option in terms of capital cost, schedule and commercial flexibility compared to the alternative configurations. For the comparison, all three configurations are based on a storage capacity for 150,000 m3 of LNG, a regasification rate of 300 million standard cubic feet per day (mmscfd) and a location in either harbours or other sheltered mooring locations. Each marine berth will have mooring and breasting dolphins, a loading platform and a bridge connection with the shore. For the purposes of this report, the external heat for the regasification process is provided by utilising seawater. In cold climate locations, the burning of boil-off gas would be utilised for the vaporisation heat source. Terminal configurations In the FSRU terminal configuration, the FSRU, which is permanently moored at the marine berth, serves as both the LNG storage and regasification unit. LNG is delivered to the terminal by means of an LNG carrier that moors to the seaward side of the FSRU and discharges the cargo to the FSRU storage tanks by means of a ship-to-ship (STS) transfer. The regasification system is mounted on the deck of the FSRU and integrated into the vessel’s systems. The regasification equipment is typically installed in a shipyard and classed by one of the classification societies. The natural gas vaporised from the LNG will
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The Petronas marine berth regas/FSU terminal in the Malaysian port of Malacca makes use of two FSUs
be metered and discharged to a pipeline. For onshore terminals, LNG is stored in free-standing tanks constructed at the onshore site. LNG is delivered to the terminal by LNG carriers which moor at the marine berth and discharge cargo to the onshore storage tanks. The regasification system is constructed close to the terminal’s LNG storage tanks, utilising skidded equipment components. Again, natural gas vaporised from the LNG is metered and discharged to a pipeline. For marine berth regas/FSU terminals, LNG is stored in an LNG carrier which is adapted for service as an FSU and permanently moored at the marine berth. LNG is delivered to the terminal by means of an LNG carrier that moors either to the seaward side of the FSU and transfers cargo to the FSU in an STS operation, or on the other side of the jetty for a cross-jetty transfer. The regasification system in marine berth regas/FSU terminals is constructed as a single-lift module installed on the loading platform. As with the other terminal configurations, natural gas vaporised from the LNG is metered and discharged to a pipeline. Cost and schedule The capital costs for each of the three configurations are presented in Table 1. Although FSUs and FSRUs can be purchased or leased, only purchasing is considered to simplify this comparison.
LNG World Shipping | May/June 2018
38 | OPINION
Table 1 – Capital cost comparison
250
Marine berth
30
Contingency 25%
70
TOTAL
350
Onshore terminal 150,000m3 storage tankage Regas equipment Insulated piping Marine berth
396 20 3 112
TOTAL
558
Marine berth regas/FSU terminal 150,000m3 LNG carrier
50
Regas equipment
20
Marine berth
32
TOTAL
26 128
Due to the high cost of the onshore LNG storage tanks, the onshore terminal configuration is the most expensive, followed by the FSRU terminal configuration. The marine berth regas/FSU terminal arrangement is the least expensive alternative. The project schedule durations for the three terminal configurations shown in Table 2 represent the time from the initiation of engineering to the end of commissioning and start of commercial operations. The marine berth regas/FSU terminal configuration has the shortest project schedule; this is because shipyard construction and integration work can be minimised by fabricating the regas module in an oil and gas fabrication facility for subsequent mounting on the loading platform. Also, the adaptation of a surplus LNG carrier for its FSU role is a straightforward job. Table 2 – Project schedule comparisons MONTHS FSRU terminal : • Conversion of existing LNG carrier to FSRU
26-28 months
• Newbuild FSRU
30-32 months
Onshore terminal
36-38 months
Marine berth regas/ FSU terminal
20-22 months
Commercial flexibility The ability of the terminal owner to select the facility’s primary components from a variety of contractors to foster competition and reduce costs gives a measure of the commercial flexibility of a regasification terminal. Commercial flexibility also includes the ability to react to market changes during the project’s life by redeploying the
LNG World Shipping | May/June 2018
REGUS MODULE NG PIPELINE TO USERS
M
27
Contingency 25%
Contingency 25%
FSU
OFFSHORE
FSRU
Cost (US$M)
ONSHORE
FSRU terminal
LNG CARRIER
Marine berth regas/FSU terminal configuration
terminal to a secondary location. FSRUs are typically deployed with a long-term lease or charter for 10 years or more, partially due to the need to recover the large capital expense of constructing the vessel (approximately US$250M). Typically, the terminal owner is bound to a long-term commercial arrangement. The FSRU market is characterised by limited competition and is dominated by a few main players. There are more than 25 FSRUs operating worldwide and almost all are on long-term charters. If market conditions at the original site become unfavourable, the FSRU can be relocated to a secondary site. At onshore terminals, storage tanks and the regasification facility require a significant capital expenditure. Due to the design requirements of these project components, the facility cost is much higher than the other two options. The payout is a long-term proposition, subject to market changes and other uncertainties. If market conditions at the original site become unfavourable, it is not cost-effective and usually not practicable to relocate the terminal components to a secondary site. The marine berth regas/FSU terminal concept not only entails a relatively low capital cost, but also provides significant commercial flexibility compared to the other two configurations. Many surplus LNG carriers are available, with relatively inefficient steam turbine propulsion systems that make good candidates for possible use as FSUs. As a result, favourable purchase or lease terms can be negotiated with a number of shipowners. The jetty-mounted regasification module can be constructed at most oil and gas fabrication facilities, while there are many construction contractors able to undertake marine berth fabrication and installation, as well as regasification module installation and hookup. The contractor community includes those in less developed areas, providing host-country content if needed. Further, if market conditions at the original site become unfavourable, the regasification module and FSU can be relocated to a secondary site. Compared to FSRUs and onshore terminals, the marine berth regas/FSU configuration provides a terminal owner with the option of developing an LNG regasification facility with a significantly lower capital cost or lease rate, the shortest project execution schedule and much greater commercial flexibility. John E Barnes is senior vice president - project management at UniversalPegasus International, a company offering expertise, efficiency and value in project and construction management and engineering to the energy industry. LNG
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CONTAINMENT SYSTEMS | 41
THE MARCH OF THE GTT MEMBRANE GTT has been developing its established Mark III and NO96 membrane tank technologies to accommodate the changes sweeping through the LNG shipping industry
G
TT membrane tanks – whether of the Mark III or NO96 types – represent the most popular choice of cargo containment system for LNG vessels. Of the approximately 500 conventional LNG carriers (LNGCs) and floating storage and regasification units (FSRUs) currently in service, 75% are equipped with GTT membrane technology. Of this total there is a fairly even split between Mark III and NO96 ships. The orderbook for such ships presently stands at around 110 vessels, and GTT membranes have been specified for 80% of these. While the NO96 system will be fitted on about 60% of the current slate of GTT newbuildings, the actual percentage split between the NO96 and Mark III options for new ships at any one time is more to do with the choice of shipbuilder, rather than any advantages one system may have over the other.
Dealing with change
Over the past 15 years the LNG shipping industry has been characterised by change. Global LNG trade and the fleet serving it have expanded rapidly, supporting a growing community of LNG terminal and ship operators. At the same time, gas buyers and sellers have adopted a more flexible approach to their sales negotiations, engendering more spot and short-term cargoes and opening up possibilities as to where shipments might be discharged. The LNG supply chain has also been extended dramatically. Floating LNG production and regasification vessels have opened up new gas export and import opportunities, while the fleet of coastal distribution tankers continues to grow. In addition, the first purpose-built LNG bunker vessels are now in service and more shipowners outside the gas carrier sector are choosing to
The distinctive waffled stainless steel primary barrier of a GTT Mark III membrane tank
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LNG World Shipping | May/June 2018
42 | CONTAINMENT SYSTEMS
order LNG-fuelled ships. For a designer of ship systems like GTT, advances in LNG carrier technology have been as important as the commercial changes impacting the industry. In addition to the 40% increase in the size of an average conventional LNG carrier, new ship propulsion systems have underpinned important gains in fuel efficiency. The introduction of four-stroke dual-fuel diesel-electric (DFDE) propulsion systems early in the new millennium marked an important advance on traditional steam turbine power units. More recently, two-stroke dual-fuel engines have enabled further reductions in fuel bills and have become the most popular propulsion system for LNG carrier newbuildings. The lower fuel requirements of these new propulsion systems have allowed GTT to improve the thermal performance of its traditional Mark III and NO96 systems, using new versions of the technologies yielding lower cargo boil-off rates. “With more efficient propulsion systems, less natural boil-off is required to feed the engines,” explained GTT commercial vice president David Colson. “At lower ship speeds, say less than 16 knots, our established containment systems may yield too much boiloff gas. We have developed new versions of our Mark III and NO96 systems which allow operation with no lost boil-off at lower speeds, thereby increasing the vessel’s operational flexibility.”
Mark III and NO96 step changes
GTT’s original Mark III membrane tank design, with its characteristic waffled stainless steel primary barrier, has been further developed in recent years through the introduction of the Mark III Flex and the Mark III Flex+ versions. Table 1 shows the evolution of the Mark III membrane and highlights the difference in thermal performance between the three versions of the design. With the Mark III Flex+ system, the guaranteed daily natural cargo boil-off rate (BOR) is down to 0.07% of the tank volume per day. The reduced BOG rate achieved by the Mark III Flex+ is obtained by increasing the insulation thickness to 480 mm, from the Mark III Flex’s 400 mm. Also, the assembly of the secondary barrier below the top bridge pads has been further developed with the Flex+ solution, through the addition of a supplementary layer of rigid triplex. This increases the strength of the barrier against thermal and mechanical loads. GTT’s long-serving NO96 membrane design, with its distinctive invar
TABLE 1: EVOLUTION OF THE GTT MARK III MEMBRANE CONTAINMENT SYSTEM MARK III MARK III FLEX BOR* Main insulating material Primary membrane Secondary membrane Thickness
0.135%
0.07%
Reinforced Polyurethane foam
Stainless steel corrugated membrane
270 mm
Strengthened by doubling triplex 400 mm
480 mm
*Typical value for a 175,000 m LNG carrier in % of cargo volume/day. BOR is project-dependent due to vessel size, tank arrangement and reinforcements 3
LNG World Shipping | May/June 2018
NO96
NO96 GW
NO96 L03
NO96 L03+
BOR*
0.15%
0.125%
0.11%
0.10%
Main insulating material
Perlite
Glass wool
-
Glass wool and foam 130 kg/m3
Membranes
Support
Invar 0.7 mm
Boxes with bulkheads plywood
Boxes primary and top secondary with bulkheads: plywood Panels lower secondary: foam & plywood
Thickness
Boxes with bulkheads in plywood Panels: foam & plywood
530 mm (primary box: 230 mm + secondary box: 300 mm)
*Typical value for a 175,000 m3 LNG carrier in % of cargo volume/day. BOR is project-dependent due to vessel size, tank arrangement and reinforcements
36% nickel steel primary and secondary barriers, has also been further developed in recent years, in the quest for improved thermal performance. The basic NO96 system has now been augmented by the NO96 GW, the NO96 LO3 and the NO96 LO3+ versions of the design. Table 2 shows the differences in thermal performance between the various NO96 options. Mark NO96 L03+ offers the best performance among the four NO96 versions; the guaranteed daily natural cargo BOR falls to 0.1% of the tank volume per day. There are two main differences between NO96GW and the NO96 L03 or L03+ versions. With NO96GW the insulation material in the boxes backing the system’s two metallic barriers is glass wool (GW). With LO3 and LO3+ the insulation in the primary insulation boxes is still GW, but the secondary insulation is split into two different layers. For L03, there is a box insulated with GW attached to a panel assembled from plywood and reinforced polyurethane foam (much like Mark III); for L03+, both secondary layers are made up of plywood and polyurethane foam.
Key FSRU considerations
MARK III FLEX+
0.085%
Single triplex
TABLE 2: EVOLUTION OF THE GTTNO96 MEMBRANE CONTAINMENT SYSTEM
GTT membranes have been chosen as the cargo containment system for all the floating storage and regasification unit (FSRU) newbuildings completed to date. As a general rule, FSRU owners have tended to opt for the older, established Mark III and NO96 versions of the two membranes for their vessels. The choice has been mainly determined by owners of FSRUs and conventional LNG carriers having different expectations in terms of BOR. FSRU owners and operators generally have no great incentive to reduce their BOR and therefore favour the standard technologies, such as NO96 and Mark III, for economical and space availability reasons. LNG carrier owners, in contrast, are now opting for the more refined GTT technologies, such the NO96GW & Mark III Flex membranes, as part of their efforts to reduce cargo BOR below those offered by the designer’s standard technologies. “Notwithstanding this general observation, we are now >>>
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CONTAINMENT SYSTEMS | 45
beginning to see owner inquiries for FSRUs requiring lower BOR, possibly because the vessels are intended for projects with a comparatively low or intermittent send-out and where cargo retention will be required,” said Mr Colson. >>>
Building relationships
The ability to match fuel requirements and containment system BOR demands an understanding of the vessel’s operational profile, as well as the performance of the ship’s propulsion and cargo-handling system packages. Achieving the right balance between a ship’s operational profile and the performance of its systems necessitates a close liaison between GTT and other key stakeholders, including shipowners, shipyards, engine manufacturers and designers of fuel gas supply systems (FGSSs) and reliquefaction systems. A lack of integration between the various systems, particularly in the LNG-fuelled vessel market, can pose a challenge. While reliability is a given priority, shipowners and shipyards also need systems that are integrated. A wide range of solutions exist and often yards will have to turn to multiple suppliers - engine makers, FGSS integrators, tank manufacturers and designers - to meet their needs. These multiple interfaces between the various systems add complexity and risk. GTT has addressed this concern by arranging strategic partnerships with Wärtsilä Gas Solutions and DSEC, both of which were finalised in December 2017. The alliance with Wärtsilä provides customers with a complete service that combines their respective fields of expertise. GTT’s capabilities in developing cryogenic membrane containment solutions are complemented by Wärtsilä’s know-how in dual-fuel engines and LNG FGSS applications. The integrated packages available from the partners can be provided in modular configurations and include, if required, an in-service element to facilitate smooth ship operations. The GTT/ Wärtsilä initiative is aimed particularly at the LNG-powered vessel sector, where ship bunkering arrangements can vary widely according to the type of vessel and the trade route it serves. Formerly part of Daewoo Shipbuilding & Marine Engineering (DSME), DSEC is a Korean marine engineering company which has decades of experience in working with GTT’s membrane tank technologies, as well as expertise in LNG fuel gas supply and cargohandling systems. Under a new technical assistance agreement, DSEC has become a licensed outfitter of GTT membrane tanks, including for use in storing bunkers on LNG-fuelled vessels. DSEC is thus able to install GTT containment systems on behalf of shipyards that wish to subcontract the membrane tank erection work. With these two partnerships in place, GTT aims to facilitate a shipowner’s decision to switch to LNG fuel, thanks to the fully integrated and low-risk nature of the overall package.
Seeking optimum solutions
“As important as the various industry relationships, including the two strategic partnerships, are, they in themselves are not enough,” stated Mr Colson. “GTT needs to be the lead expert in matters dealing with cargo containment and BOR and proactive in finding optimum solutions.” He continued: “We have been working on an R&D programme with Airbus for more than two years to increase our knowledge of boil-off gas generation and pressure rise during a vessel’s lifecycle. We believe we are among the few actors in the industry that have reached this level of understanding concerning LNG behaviour in marine applications. This knowledge enables us to perform studies for a wide variety of owners to advise them on the optimum choices, covering
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Cutaway showing the elements of a GTT Mark III Flex+ membrane containment system
both membrane systems and other technologies, for their operations.” Mr Colson added: “While safety is the overriding consideration in all our technology offerings, we also need to propose cost-effective solutions. One such example of this is the LNG Brick prefabricated tank concept, launched in March 2018.” The LNG Brick approach enables a membrane tank in the 300 to 3,000 m3 size range to be constructed at the specialised premises of GTT licensees, for subsequent delivery in a “ready-to-install” condition at the shipyard. Particularly suitable as an LNG bunker tank option for an LNG-powered ship, LNG Brick allows smalland medium-size shipyards with limited access to personnel skilled in LNG systems and no specific knowledge of membrane tank technology, to tender for the construction of such ships.
Designs for the future
GTT’s work to improve the thermal performance and strength characteristics of its classic Mark III and NO96 membrane designs targets operational benefits coupled with competitive pricing. The advances anticipate further improvements in dual-fuel engine efficiencies, however incremental they may be. In addition, the increased strength of the membrane tank containment systems will permit the use of GTT technologies in projects characterised by harsher in-service conditions. These include applications involving tandem ship-to-ship transfers and on FSRUs and floating LNG production vessels operating at open sea locations. Because membrane tanks are integrated with the ship’s structure, achieving higher tank pressure ratings requires reinforced hull scantlings, strengthened tank openings in way of the liquid and gas domes and adapted pressure relief valve settings. Membrane tanks with higher pressure ratings are particularly desirable on vessels that experience extended periods of idle time during normal operations, such as LNG bunker vessels and dualfuel bulk carriers, or on ships requiring greater handling flexibility. Ships with GTT membrane tanks rated for higher pressures can accommodate the boil-off gas generated by a mix of pressure increases and gas consumption in the engines. GTT’s goal of anticipating the LNG shipping industry’s needs requires constant innovation. One-quarter its employees work in research and development, on programmes aimed at ensuring GTT retains and extends its competitive edge in the rapidly evolving LNG shipping sector. LNG
LNG World Shipping | May/June 2018
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analysis STATISTICS | 47
JAPAN PROMINENT IN LATEST LNG FLEET SURGE JAPANESE CHARTERERS, OWNERS AND/OR BUILDERS HAVE BEEN INVOLVED WITH 50% OF LNG CARRIER COMPLETIONS OVER THE PAST TWO MONTHS
T
here has been no let-up in the pace of LNG carrier shipyard activity so far in 2018. In the two months since LNG World Shipping’s previous fleet review, 10 LNG carriers have been handed over to their owners and nine further such vessels have been ordered. In the four months to 30 April 2018, 23 LNG carriers were delivered and 18 vessels added to the orderbook. Japanese owners, charterers and shipbuilders have been at the fore in the latest batch of ship completions. The portfolio of ships delivered in the last two months includes the first Moss spherical tank LNG carrier to be powered by a dual-fuel diesel-electric (DFDE) propulsion system and the largest Moss spherical tank ship ever built. Both breakthrough vessels were constructed by the Sakaide yard of Kawasaki Heavy Industries (KHI) in Japan. All the large, conventional-size LNG carriers built by KHI to date have Moss containment systems and, prior to the recent deliveries, all KHI-built LNG carriers had been steam-turbine-powered.
KAWASAKI LANDMARKS
KHI’s first DFDE ship is LNG Sakura, a 177,000 m3 vessel delivered to a 70/30 joint venture partnership comprising Kansai Electric Power (Kepco) and NYK Line, respectively. Kepco will charter the ship for 20 years, to lift cargoes from Dominion Energy’s newly commissioned Cove Point export terminal in the US, among other facilities, while NYK Line will operate the vessel. KHI has utilised its proprietary polyurethane foam Kawasaki Panel System to insulate the four spherical tanks on the
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Built by Samsung, Marvel Falcon is the first in a fleet of eight newbuildings that Mitsui & Co is taking on 25-year charters
twin-screw LNG Sakura (Sakura means “cherry blossom” in Japanese). The technology yields a comparatively low cargo boil-off gas (BOG) rate of 0.08% per day, an attractive attribute considering the long transpacific voyages on which the vessel will be engaged. LNG Sakura departed Cove Point on 22 April with its inaugural cargo from the facility. The construction of a 5.1 million tonnes per annum (mta) liquefaction train at what was previously an LNG import terminal has given the Maryland facility a bi-directional capability. While LNG Sakura marks a step up in size from KHI’s earlier LNG carriers, its next completion, the 182,000 m3 Pacific Breeze commissioned a few weeks later, is the world’s largest Moss ship. Achieving LNG Sakura’s cargo-carrying capacity of 177,000 m3 - up from the 165,000 m3 characteristic of previous KHI LNG carriers - was made possible by marginal increases to both the tank
diameter and the height of the equatorial ring. It is not possible to increase tank diameters further if transit of the Panama Canal’s new locks is required. So KHI achieved the record-breaking Pacific Breeze capacity by adding 1.6 m deep cylindrical equatorial rings to the two aftermost of the ship’s four tanks. Pacific Breeze is owned by K Line and chartered by IT Marine Transport, a joint Inpex/Total shipping operation, for use in the carriage of LNG from the new 8.9 mta Ichthys LNG export terminal near Darwin in Australia to Taiwan’s CPC Corporation. As a result of the ship’s capacity and the relatively short voyage distance, the charterers anticipate that Pacific Breeze will lift 1.75 mta at the Ichthys terminal. Like LNG Sakura, Pacific Breeze is powered by a DFDE propulsion system and its Kawasaki Panel System insulation yields a cargo BOG rate of 0.08%. As part of the Ichthys LNG terminal commissioning process, Pacific Breeze
LNG World Shipping | May/June 2018
48 | STATISTICS analysis
delivered a cooldown cargo loaded in Singapore to the Darwin site on 26 April 2018. Pacific Breeze remains in the area following discharge of the cooldown shipment and there is a possibility that the vessel is lined up to load the inaugural Ichthys LNG export cargo.
MORE JAPANESE CHARTERS
In March 2018 the Nagasaki yard of Mitsubishi Heavy Industries (MHI) delivered a Moss spherical tank ship for service with a new Australian export project. MHI handed over the 155,000 m3 Pacific Mimosa to LNG Marine Transport, a ship operating company in which Jera holds a 70% stake, Mitsubishi Corp 15% and NYK Line 15%. NYK is responsible for the ship’s technical management. The vessel has been taken on long-term charter by Jera for lifting cargoes from the Chevron-led, 8.9 mta Wheatstone LNG project in northwestern Australia. Jera, a joint venture responsible for the combined LNG marketing activities of Tokyo Electric Power and Chubu Electric Power, is the largest buyer of Wheatstone’s output and lifted its first cargo from the project in November 2017. Pacific Mimosa is powered by an ultra-steam-turbine (UST) propulsion system that makes use of reheated steam to achieve fuel efficiency gains of 15% over traditional steam turbines. With the UST technology the boiler generates high-pressure steam at 12 MPa and 565˚C by transferring the heat from the
combustion of the cargo BOG. To the non-LNG community there is no immediate indication that Pacific Mimosa has four cargo tanks. In contrast to traditional Moss ships, where almost one-half of each spherical cargo tank protrudes above the main deck, the newbuilding is one of the new generation of “peas-in-a-pod” Sayaendo system design from MHI. That means that the top half of each cargo tank is obscured by the continuous tank cover the extends the length of the main deck in way of the cargo tanks. The cover not only protects the cargo tanks and deck pipework, but also adds to the vessel’s structural integrity. Two other recent newbuildings have Japanese connections. Castillo de Merida is the first of a pair of 178,000 m3 newbuildings for Spain’s Naviera Elcano from the Saijo yard of Imabari, while the Samsung-built Marvel Falcon is destined to lift Cameron LNG exports under charter to Mitsui & Co and the technical management of NYK Line. The capacity of Castillo de Merida marks a significant step up from the 154,000 m3 size of the previous LNG carriers built by Imabari. Castillo de Merida and its imminent Imabari newbuilding sistership, Castillo de Caldelas, have been taken on charter by Gas Natural Fenosa (GNF) for the lifting of Sabine Pass LNG cargoes in the US state of Louisiana; as an ability to optimise Panama Canal transit opportunities is paramount, the principals have decided
on the 178,000 m3 size for the pair. Castillo de Merida is propelled by a pair of MAN Diesel & Turbo’s M-type electronically controlled gas-injection (ME-GI) engines, a two-stroke propulsion system particularly popular in the LNG carrier sector at the moment. The ship also has GTT Mark III Flex membrane tanks, a containment system that provides a reduction in cargo BOG rates down to the 0.10% level. While Imabari has achieved considerable success in the domestic shipbuilding sector in recent years, not least in the construction of next-generation ultra-large container ships for domestic shipowners, the fabrication of the latest LNG carriers has caused difficulties and the deliveries of Castillo de Meridas and Castillo de Caldedas were nine months later than originally planned. The 174,000 m3 Marvel Falcon was delivered by Samsung Heavy Industries (SHI) to NYK Line in April 2018. The ship is the first in a fleet of eight new vessels that Mitsui & Co is taking on 25-year charters, primarily to lift cargoes from the planned Cameron LNG export terminal in Louisiana. Marvel Falcon is powered by a pair of Generation X, low-pressure, dual-fuel, two-stroke (X-DF) engines developed by Winterthur Gas & Diesel (WinGD). Twostroke engines are now the propulsion system of choice for conventional-size LNG carriers and, of the new ships ordered so far this year, preferences have been split fairly evenly between the ME-GI and X-DF engine types. LNG
Built to lift Wheatstone cargoes, Pacific Mimosa has a Sayaendo deck cover to protect the top halves of the spherical cargo tanks and reinforce the vessel’s structural strength
LNG World Shipping | May/June 2018
www.lngworldshipping.com
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LNG CARRIERS ON ORDER LNGC ORDERBOOK AS OF 30 APRIL 2018
SOUTH KOREA Hull no
Shipowner
Capacity, m3
Delivery
Charterer
Containment
Class
Propulsion
Details
Shell business
Daewoo Shipbuilding & Marine Engineering (DSME), Okpo 2456
Maran Gas
173,400
2019
Shell
GTT No96
DNV GL
LSDF (HP)
2457
Maran Gas
173,400
2019
–
GTT No96
LR
LSDF (HP)
open
2458
Maran Gas
173,400
2018
Shell
GTT No96
ABS/CCS
LSDF (HP)
Shell business
2459
Maran Gas
173,400
2019
Shell
GTT No96
LR/CCS
LSDF (HP)
Shell business
2466
Maran Gas
174,000
2019
–
GTT No96
ABS
LSDF (HP)
open
2467
Maran Gas
174,000
2019
–
GTT No96
LR
LSDF(HP)
open
2468
Maran Gas
173,400
2020
–
GTT No96
DNV GL
DFDE
FSRU; open
2416
Teekay
173,400
2017
Shell
GTT No96
DNV GL
LSDF (HP)
Shell business
2417
Teekay
173,400
2018
Shell
GTT No96
DNV GL
LSDF (HP)
Shell business
2454
Teekay
173,400
2018
Shell
GTT No96
DNV GL
LSDF (HP)
Shell business
2455
Teekay
173,400
2019
Yamal LNG
GTT No96
DNV GL
LSDF (HP)
Yamal cargoes
2461
Teekay
173,400
2018
Bahrain LNG
GTT No96
DNV GL
LSDF (HP)
Bahrain FSU
2421
Dynagas
172,000
2018
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2422
Dynagas
172,000
2017
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2427
Dynagas
172,000
2019
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2428
Dynagas
172,000
2019
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2429
Dynagas
172,000
2019
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2426
CSDC/MOL
172,000
2019
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2432
CSDC/MOL
172,000
2020
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2423
Teekay/CLNG
172,000
2018
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2425
Teekay/CLNG
172,000
2018
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2430
Teekay/CLNG
172,000
2019
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2431
Teekay/CLNG
172,000
2020
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2433
Teekay/CLNG
172,000
2020
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2434
Teekay/CLNG
172,000
2020
Yamal LNG
GTT No96
BV/RS
DFDE
icebreaking LNGC
2488
BW Group
174,000
2019
–
GTT No96
DNV GL
LSDF (HP)
FSRU; open
2489
BW Group
174,000
2019
–
GTT No96
DNV GL
LSDF (HP)
open
2464
Chandris/K Line
173,400
2018
BP
GTT No96
LR
LSDF (HP)
BP business
2441
BP Shipping
173,400
2018
BP
GTT No96
LR
LSDF (HP)
BP business
2442
BP Shipping
173,400
2018
BP
GTT No96
LR
LSDF (HP)
BP business
2443
BP Shipping
173,400
2018
BP
GTT No96
LR
LSDF (HP)
BP business
2444
BP Shipping
173,400
2019
BP
GTT No96
LR
LSDF (HP)
BP business
2445
BP Shipping
173,400
2019
BP
GTT No96
LR
LSDF (HP)
BP business
2446
BP Shipping
173,400
2019
BP
GTT No96
LR
LSDF (HP)
BP business
2462
MOL/Itochu
180,000
2018
Uniper
GTT No96
–
LSDF (LP)
Uniper business
2470
Flex LNG
173,400
2019
–
GTT No96
ABS
LSDF(HP)
open
2471
Flex LNG
173,400
2019
–
GTT No96
ABS
LSDF(HP)
open
2480
Flex LNG
174,000
2020
–
GTT No96
–
LSDF(HP)
open
2490
BW Group
174,000
2020
–
GTT No96
DNV GL
LSDF (HP)
open
2491
BW Group
174,000
2020
–
GTT No96
DNV GL
LSDF (HP)
open
2483
Alpha Shipping
173,400
2020
–
GTT No96
DNV GL
LSDF (HP)
open
2484
Alpha Shipping
173,400
2020
–
GTT No96
–
LSDF (HP)
open
–
Minerva Marine
174,000
2021
–
GTT No96
–
LSDF (HP)
open
–
Minerva Marine
174,000
2021
–
GTT No96
–
LSDF (HP)
open
LNG World Shipping | May/June 2018
www.lngworldshipping.com
STATISTICS | 51
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Samsung Heavy Industries (SHI), Geoje 2189
Golar Power
170,000
2018
Golar Power
GTT MkIII
DNV GL
DFDE
Sergipe FSRU
2131
GasLog
174,000
2017
Shell
GTT MkIII
ABS
LSDF (LP)
Shell business
2212
GasLog
180,000
2019
Centrica
GTT MkV
–
LSDF (LP)
Sabine Pass exports
2213
GasLog
180,000
2019
–
GTT MkV
–
LSDF (LP)
open
2107
Flex LNG
174,000
2018
–
GTT MkIII
ABS
LSDF (HP)
open
2108
Flex LNG
174,000
2018
–
GTT MkIII
ABS
LSDF (HP)
open
–
Petronas
180,000
2020
Petronas
GTT MkIII
–
N/A
LNG FPSO
2149
MOL/Mitsui & Co
174,000
2018
Mitsui & Co
GTT MkIII
–
LSDF (LP)
Cameron exports
2150
MOL/Mitsui & Co
174,000
2018
Mitsui & Co
GTT MkIII
–
LSDF (LP)
Cameron exports
2220
Höegh LNG
170,000
2019
–
GTT MkIII
DNV GL
DFDE
FSRU; open
2233
Korea Line
7,500
2019
Kogas
KC-1
KRS
DFDE
South Korea coast
2234
Korea Line
7,500
2019
Kogas
KC-1
KRS
DFDE
South Korea coast/
Pertamina consortium
170,000
2019
Pertamina
GTT MkIII
–
DFDE
Indonesia FSRU
2274
GasLog
180,000
2020
–
GTT MkIII
ABS
LSDF (LP)
open
2275
GasLog
180,000
2020
Centrica
GTT MkIII
ABS
LSDF (LP)
Centrica business
2271
TMS Cardiff Gas
174,000
2021
–
GTT MkIII
–
LSDF (HP)
open
–
TMS Cardiff Gas
174,000
2021
–
GTT MkIII
–
LSDF (HP)
open
bunkering –
Hyundai Heavy Industries (HHI), Ulsan 2909
Höegh LNG
170,000
2018
Global Energy
GTT MkIII
DNV GL
DFDE
Pakistan FSRU
2735
MISC
150,000
2018
Petronas
Moss
LR
UST
Petronas projects
2854
Gazprom
174,000
2017
Gazprom
GTT MkIII
RS
DFDE
Kaliningrad FSRU
2937
SK Shipping
180,000
2019
SK E&S
GTT MkIII
–
LSDF (LP)
Freeport exports
2938
SK Shipping
180,000
2019
SK E&S
GTT MkIII
–
LSDF (LP)
Freeport exports
2945
Kolin/Kalyon
170,000
2019
Kolin/Kalyon
GTT MkIII
–
DFDE
Turkey FSRU
2963
Knutsen OAS
180,000
2020
Iberdrola
GTT MkIII
–
LSDF (HP)
Corpus Christi exports
2964
Knutsen OAS
180,000
2020
Endesa
GTT MkIII
–
LSDF (HP)
Corpus Christi exports
3086
Knutsen OAS
180,000
2020
Endesa
GTT MkIII
–
LSDF (HP)
Corpus Christi exports
2993
Triumph Offshore
180,000
2019
Swan Energy
GTT MkIII
LR
DFDE
Jafrabad FSRU
3020
TMS Cardiff Gas
174,000
2020
Total
GTT MkIII
–
LSDF (LP)
Total business
3021
TMS Cardiff Gas
174,000
2020
Cheniere
GTT MkIII
–
LSDF (LP)
Cheniere business
3022
TMS Cardiff Gas
174,000
2020
–
GTT MkIII
–
LSDF (LP)
open
Sovcomflot
174,000
2020
–
GTT MkIII
–
LSDF (LP)
open
BP business
–
Hyundai Samho Heavy Industries (HSHI), Samho-Myun S856
Teekay
164,000
2019
BP
GTT MkIII
DNV GL
DFDE
S857
Teekay
164,000
2019
BP
GTT MkIII
DNV GL
DFDE
BP business
S970
NYK
174,000
2020
EDF
GTT MkIII
BV
LSDF (LP)
EDF business
8006
Sovcomflot
174,000
2020
Total
GTT MkIII
BV
LSDF (LP)
Total business
7,500
2018
Nauticor/SGD
Type C
LR
DFDE
Baltic bunker vessel
Hyundai Mipo Dockyard, Ulsan –
Bernhard Schulte
JAPAN Mitsubishi Heavy Industries (MHI), Nagasaki 2310
K Line
155,000
2018
Inpex Corp
Moss
ClassNK
UST
Ichthys exports
2321
MOL
177,000
2018
Mitsui & Co
Moss
ClassNK
StaGE
Cameron exports
2323
MOL
177,000
2018
Mitsui & Co
Moss
ClassNK
StaGE
Cameron exports
2322
NYK
177,000
2019
Mitsui & Co
Moss
ClassNK
StaGE
Cameron exports
2324
NYK
165,000
2018
Mitsui & Co
Moss
ClassNK
StaGE
Cameron exports
2325
NYK
165,000
2018
Mitsui & Co
Moss
ClassNK
StaGE
Cameron exports
2326
MOL/Chubu Electric
180,000
2018
Chubu Electric
Moss
ClassNK
StaGE
Freeport exports
2327
NYK/Chubu Electric
180,000
2018
Chubu Electric
Moss
ClassNK
StaGE
Freeport exports
2332
Mitsubishi Corp
165,000
2019
Mitsubishi
Moss
ClassNK
StaGE
Mitsubishi business
164,700
2017
Chubu Electric
Moss
ClassNK
UST
Chubu Electric use
Kawasaki Heavy Industries (KHI), Sakaide 1713
K Line
www.lngworldshipping.com
LNG World Shipping | May/June 2018
52 | STATISTICS
YOUR PARTNER IN SHIP PERFORMANCE MONITORING www.kyma.no
Kawasaki Heavy Industries (KHI), Sakaide 1720
MOL
164,700
2018
Chubu Electric
Moss
ClassNK
UST
Chubu Electric use
1728
MOL
155,000
2018
Mitsui & Co
Moss
ClassNK
DFDE
Cameron exports
1729
MOL
155,000
2019
Mitsui & Co
Moss
ClassNK
DFDE
Cameron exports
1734
MOL/Chubu Electric
177,000
2018
Chubu Electric
Moss
ClassNK
DFDE
Freeport exports
1735
NYK/Chubu Electric
177,000
2018
Chubu Electric
Moss
ClassNK
DFDE
Freeport exports
Imabari Shipbuilding, Imabari 8188
Elcano
174,000
2018
GNF
GTT MkIII
LR
LSDF (HP)
GNF business
8200
K Line
178,000
2021
Mitsui & Co
GTT MkIII
ClassNK
LSDF (HP)
Cameron exports
8215
Unknown
178,000
2022
–
GTT MkIII
–
LSDF (HP)
open
8216
Unknown
178,000
2022
–
GTT MkIII
–
LSDF (HP)
open
8217
Unknown
178,000
2022
–
GTT MkIII
–
LSDF (HP)
open
Japan Marine United, Kumamoto 5070
MOL/Tokyo LNG Tanker
165,000
2017
Tokyo Gas
SPB
ClassNK
DFDE
Cove Point exports
5071
NYK/Tokyo LNG Tanker
165,000
2018
Tokyo Gas
SPB
ClassNK
DFDE
Cove Point exports
5072
MOL/Tokyo LNG Tanker
165,000
2019
Tokyo Gas
SPB
ClassNK
DFDE
Cove Point exports
5073
MOL/Tokyo LNG Tanker
165,000
2019
Tokyo Gas
SPB
ClassNK
DFDE
Cove Point exports
CHINA Hudong-Zhonghua Shipbuilding, Shanghai 1720A
CESI/MOL
174,000
2018
Sinopec
GTT No96
LR/CCS
DFDE
APLNG exports
1665A
CNOOC/CLNG/TK/BW
174,000
2018
Shell
GTT No96
ABS/CCS
DFDE
QCLNG exports
1666A
CNOOC/CLNG/TK/BW
174,000
2019
Shell
GTT No96
ABS/CCS
DFDE
QCLNG exports
1810A
MOL
174,000
2019
Yamal LNG
GTT No96
–
DFDE
Yamal cargoes
1811A
MOL
174,000
2020
Yamal LNG
GTT No96
–
DFDE
Yamal cargoes
1812A
MOL
174,000
2020
Yamal LNG
GTT No96
–
DFDE
Yamal cargoes
1813A
MOL
174,000
2020
Yamal LNG
GTT No96
–
DFDE
Yamal cargoes
–
Dynagas
174,000
2020
TBC
GTT No96
–
DFDE
FSRU; open
–
Dynagas
174,000
2021
TBC
GTT No96
–
DFDE
FSRU; open
Total/MOL
18,600
2020
Total
GTT MkIII
BV
TBC
Bunker vessel
30,000
2017
CNPC Kunlun
Type C
CCS
DFDE
China coast
28,000
2017
CNPC Kunlun
Type C
CCS
DFDE
China coast
N/A
2018
VGS
TBC
–
N/A
LNG FRU
45,000
2018
Saga LNG
LNT A-Box
ABS
DFDE
China coast
1817A
Ningbo Xinle Shipbuilding, Ningbo XL-157
PetroChina
Cosco Dalian Shipyard, Dalian N588
Dalian Inteh
Wison Offshore & Marine, Nantong –
VGS
China Merchant Heavy Industry, Nantong 188
Landmark Capital
Shipping Keppel Singmarine, Nantong –
Stolt-Nielsen
7,500
2018
TBC
Type C
DNV GL
DFDE
Coastal Europe
–
Stolt-Nielsen
7,500
2018
TBC
Type C
DNV GL
DFDE
Coastal Europe
Table includes newbuilding FSRUs, LNG FPSOs and LNG bunker vessels. Propulsion key: DFDE = dual-fuel diesel-electric; ST = steam turbine; UST = ultra steam turbine; StaGE = steam turbine and gas engine; LSDF (HP) = low-speed dual-fuel (high-pressure); LSDF (LP) = low-speed dual-fuel (low-pressure) LNG World Shipping, data as of 30 April 2018
LNG World Shipping | May/June 2018
www.lngworldshipping.com
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STATISTICS | 55
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LNG CARRIER NEWBUILDINGS DELIVERED 1 JANUARY 2017 – 30 APRIL 2018 Vessel name
Delivery
Capacity, m3
Owner
Builder
Charterer
Containment
Details
Cesi Qingdao
1.2017
174,000
CESI/MOL
Hudong
Sinopec
GTTNo96
APLNG exports
Maran Gas Roxana
1.2017
173,400
Maran Gas
Daewoo
Shell
GTTNo96
Shell business
Maran Gas Ulysses
1.2017
174,000
Maran Gas
Hyundai Samho
Shell
GTTMkIII
Shell business
Seri Cenderawasih
1.2017
150,000
MISC
Hyundai
Petronas
Moss
Petronas projects
JS Ineos Innovation
1.2017
27,500
Evergas
Sinopacific
Ineos
Type C
Ethane service
Torben Spirit
2.2017
173,400
Teekay
Daewoo
Shell
GTTNo96
Shell business
Maran Gas Olympias
2.2017
173,400
Maran Gas
Daewoo
Shell
GTTNo96
Shell business
Asia Integrity
2.2017
160,000
Chevron
Samsung
Chevron
GTTMkIII
Gorgon exports
Ougarta
3.2017
170,000
Hyproc Shipping
Hyundai
Sonatrach
GTTMkIII
Algerian exports
BW Integrity
3.2017
170,000
BW Group
Samsung
Pakistan GasPort
GTTMkIII
Port Qasim FSRU
JS Ineos Intuition
3.2017
27,500
Evergas
Yangzijiang
Ineos
Type C
Ethane service
SM Eagle
4.2017
174,000
Korea Line
Daewoo
Kogas
GTTNo96
Sabine Pass exports
Hoegh Giant
4.2017
170,000
Höegh LNG
Hyundai
Quantum Power
GTTMkIII
Tema FSRU
JS Ineos Independence
4.2017
27,500
Evergas
Sinopacific
Ineos
Type C
Ethane service
Engie Zeebrugge
4.2017
5,100
Fluxys/Gas4Sea
Hanjin
Engie
Type C
Zeebrugge bunkering
Hyundai Princepia
5.2017
174,000
Hyundai LNG
Daewoo
Kogas
GTTNo96
Sabine Pass exports
SM Seahawk
5.2017
174,000
Korea Line
Daewoo
Kogas
GTTNo96
Sabine Pass exports
JS Ineos Invention
5.2017
27,500
Evergas
Yangzijiang
Ineos
Type C
Ethane service
Cesi Beihai
6.2017
174,000
CESI/MOL
Hudong
Sinopec
GTTNo96
APLNG exports
Cardissa
6.2017
6,500
Shell
STX
Shell
Type C
Rotterdam bunkering
Hyundai Peacepia
6.2017
174,000
Hyundai LNG
Daewoo
Kogas
GTTNo96
Sabine Pass exports
Prelude
6.2017
220,000
Shell
Samsung
Shell
GTTMkIII
Prelude FPSO
Seri Cempaka
7.2017
150,000
MISC
Huyundai
Petronas
Moss
Petronas projects
SK Audace
7.2017
180,000
SK Shipping/Marubeni
Samsung
Total
GTTMkIII
Ichthys exports
Asia Venture
7.2017
160,000
Chevron
Samsung
Chevron
GTTMkIII
Gorgon exports
Caribbean FLNG
7.2017
16,100
Exmar
Wison
TBC
Type C
FLRSU; open
Coralius
7.2017
5,800
Sirius/Veder
Royal Bodewes
Skangas
Type C
N Europe bunkering
Cesi Tianjin
9.2017
174,000
CESI/MOL
Hudong
Sinopec
GTTNo96
APLNG exports
Pan Asia
10.2017
174,000
CNOOC/CLNG/TK
Hudong
Shell
GTTNo96
QCLNG exports
MOL FSRU Challenger
10.2017
263,000
MOL
Daewoo
Botas
GTTNo96
Turkey FSRU
Boris Vilkitsky
10.2017
172,000
Dynagas
Daewoo
Yamal LNG
GTTNo96
Yamal exports
Macoma
10.2017
173,400
Teekay
Daewoo
Shell
GTTNo96
Shell business
Fedor Litke
11.2017
172,000
Dynagas
Daewoo
Yamal LNG
GTTNo96
Yamal exports
Murex
11.2017
173,400
Teekay
Daewoo
Shell
GTTNo96
Shell business
Eduard Toll
12.2017
172,000
Teekay/CLNG
Daewoo
Yamal LNG
GTTNo96
Yamal exports
Bishu Maru
12.2017
164,700
K Line
Kawasaki
Jera
Moss
Jera business
TBC
12.2017
25,000
Exmar
Wison
TBC
IHI SPB
FSRU; TBC
SK Resolute
1.2018
180,000
SK Shipping/Marubeni
Samsung
Total
GTTMkIII
Sabine Pass exports
Patris
1.2018
174,000
Chandris/K Line
Daewoo
BP
GTTNo96
BP business
Cesi Wenzhou
1.2018
174,000
CESI/MOL
Hudong
Sinopec
GTTNo96
APLNG exports
Pan Americas
1.2018
174,000
CNOOC/CLNG/TK
Hudong
Shell
GTTNo96
QCLNG exports
Gaslog Houston
1.2018
174,000
GasLog
Hyundai
Shell
GTTMkIII
Shell business
Flex Endeavour
1.2018
173,400
Flex LNG
Daewoo
Uniper
GTTNo96
Uniper business
Flex Enterprise
1.2018
173,400
Flex LNG
Daewoo
Voyage charters
GTTNo96
open
BW Tulip
1.2018
173,400
BW Group
Daewoo
Voyage charters
GTTNo96
open
Vladimir Rusanov
1.2018
172,000
CSDC/MOL
Daewoo
Yamal LNG
GTTNo96
Yamal exports
Coral EnergICE
1.2018
18,000
Anthony Veder
Neptun
Skangas
Type C
Baltic trading
SK Serenity
2.2018
174,000
SK Shipping
Samsung
Kogas
KC-1
Sabine Pass exports
Magdala
2.2018
173,400
Teekay
Daewoo
Shell
GTTNo96
Shell business
Seri Camar
2.2018
150,000
MISC
Hyundai
Petronas
Moss
Petronas projects
LNG Sakura
2.2018
177,000
NYK/Kepco
Kawasaki
Kansai Electric
Moss
Cove Point exports
SK Spica
3.2018
174,000
SK Shipping
Samsung
Kogas
KC-1
Sabine Pass exports
LNG World Shipping, data as of 30 April 2018
www.lngworldshipping.com
LNG World Shipping | May/June 2018
56 | VIEWPOINT
Høglund on smart automation for smooth operations
T Børge Nogva: A solid understanding of automation at the outset will pay dividends
LNG World Shipping | May/June 2018
he January/February 2018 issue of LNG World Shipping highlighted the work of SIGTTO’s Human Element Committee on LNG carrier (LNGC) cargo control room (CCR) ergonomics, with special reference to alarm-system management. This initiative was triggered by investigations into several LNGC ship-to-shore interface mishaps in recent years, which revealed that difficulties can arise in interpreting CCR screens and alarms. The article rightly noted that LNGCs make use of some of the most complex integrated automation systems (IAS) in commercial shipping. This ties into a topic that is very important to us at Høglund Marine Automation – the need to make sure that a vessel’s automated systems enhance the operations on board, rather than create new tasks. In this instance, current IMO guidance is not specific enough to correctly prioritise the sequence of different alarms that can occur. Variability in alarm sequencing can mean different things in different contexts and lead to misinterpretations about how cargo-handling operations are progressing. This introduces two wider, underlying issues: IAS are often not given adequate consideration at the design stage; and many automated systems are not covered by adequate guidance to ensure their proper use in service. Inattention to IAS detail at the design stage and the lack of proper guidance are both likely to cause problems further down the line. For LNGCs, including LNG bunker vessels (LNGBVs), it is essential that both issues be given due consideration. A recent addition to the LNGC fleet, LNGBVs are called upon to perform a particularly intense set of cargo-handling operations. The range of subsystems that can be handled by an IAS on an LNGBV includes the following: • the fuel gas supply system (FGSS) that provides cargo boil-off gas as engine fuel. • the alarm and monitoring of the gas containment system. • the emergency shutdown (ESD) system covering cargo-handling operations, as well as the machinery and accommodation spaces. • the gas detection system, again covering cargo,
machinery and accommodation spaces. • cargo-handling and monitoring, including valves, pumps and sensors. At the start of many newbuilding projects it is often unclear as to which of these systems should be included in the integrated package. Often, the functions are divided and the basic IAS deals only with the machinery systems. Gas containment suppliers, for example, may wish to supply their own alarm, control, monitoring and ESD systems dealing solely with the gas area. The shipbuilder may thus be required to find another IAS supplier for the gas detection and machinery shutdown systems. In such circumstances, managing and prioritising alarms is made even more difficult, as it requires co-ordination between multiple systems and data formats. Generally, the greater the level of IAS integration at an early stage the better, not least because it makes software upgrades, replacement and fine-tuning easier and gives owners and operators a single point of contact for service. Likewise, when it comes to interfaces and system mimics, the optimum solution is to recommend at an early stage that any shipboard system provide its data in a format with an interface that can be received by the IAS. While the various parties involved in the design and procurement of the LNGC – the owner, the yard and the naval architects – may not afford IAS the same priority as, say, the choice of a propulsion system, a solid understanding of automation at the outset will pay dividends. SIGTTO is correct to identify an automation issue which needs more attention from all parties involved. Not only can thinking about automation simplify the crew’s response to dealing with alarms, it can also lead to increased performance, reliability and, perhaps most importantly, better access to operational data that can be used for further optimisation. LNG Børge Nogva is CEO of Høglund Marine Automation, a company with a focus on the development of automation and gas-handling systems for LNGCs
www.lngworldshipping.com