The Containership – How Big: What Are the Prospects for Malaccamax? Zia H
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Malacca-Max the Ul Timate Container Carrier
MALACCA-MAX THE UL TIMATE CONTAINER CARRIER Design innovation in container shipping 2443 625 8 Bibliotheek TU Delft . IIIII I IIII III III II II III 1111 I I11111 C 0003815611 DELFT MARINE TECHNOLOGY SERIES 1 . Analysis of the Containership Charter Market 1983-1992 2 . Innovation in Forest Products Shipping 3. Innovation in Shortsea Shipping: Self-Ioading and Unloading Ship systems 4. Nederlandse Maritieme Sektor: Economische Structuur en Betekenis 5. Innovation in Chemical Shipping: Port and Slops Management 6. Multimodal Shortsea shipping 7. De Toekomst van de Nederlandse Zeevaartsector: Economische Impact Studie (EIS) en Beleidsanalyse 8. Innovatie in de Containerbinnenvaart: Geautomatiseerd Overslagsysteem 9. Analysis of the Panamax bulk Carrier Charter Market 1989-1994: In relation to the Design Characteristics 10. Analysis of the Competitive Position of Short Sea Shipping: Development of Policy Measures 11. Design Innovation in Shipping 12. Shipping 13. Shipping Industry Structure 14. Malacca-max: The Ultimate Container Carrier For more information about these publications, see : http://www-mt.wbmt.tudelft.nl/rederijkunde/index.htm MALACCA-MAX THE ULTIMATE CONTAINER CARRIER Niko Wijnolst Marco Scholtens Frans Waals DELFT UNIVERSITY PRESS 1999 Published and distributed by: Delft University Press P.O. Box 98 2600 MG Delft The Netherlands Tel: +31-15-2783254 Fax: +31-15-2781661 E-mail: [email protected] CIP-DATA KONINKLIJKE BIBLIOTHEEK, Tp1X Niko Wijnolst, Marco Scholtens, Frans Waals Shipping Industry Structure/Wijnolst, N.; Scholtens, M; Waals, F.A .J . Delft: Delft University Press. - 111. Lit. ISBN 90-407-1947-0 NUGI834 Keywords: Container ship, Design innovation, Suez Canal Copyright <tl 1999 by N. Wijnolst, M . -
Chapter 17. Shipping Contributors: Alan Simcock (Lead Member)
Chapter 17. Shipping Contributors: Alan Simcock (Lead member) and Osman Keh Kamara (Co-Lead member) 1. Introduction For at least the past 4,000 years, shipping has been fundamental to the development of civilization. On the sea or by inland waterways, it has provided the dominant way of moving large quantities of goods, and it continues to do so over long distances. From at least as early as 2000 BCE, the spice routes through the Indian Ocean and its adjacent seas provided not merely for the first long-distance trading, but also for the transport of ideas and beliefs. From 1000 BCE to the 13th century CE, the Polynesian voyages across the Pacific completed human settlement of the globe. From the 15th century, the development of trade routes across and between the Atlantic and Pacific Oceans transformed the world. The introduction of the steamship in the early 19th century produced an increase of several orders of magnitude in the amount of world trade, and started the process of globalization. The demands of the shipping trade generated modern business methods from insurance to international finance, led to advances in mechanical and civil engineering, and created new sciences to meet the needs of navigation. The last half-century has seen developments as significant as anything before in the history of shipping. Between 1970 and 2012, seaborne carriage of oil and gas nearly doubled (98 per cent), that of general cargo quadrupled (411 per cent), and that of grain and minerals nearly quintupled (495 per cent) (UNCTAD, 2013). Conventionally, around 90 per cent of international trade by volume is said to be carried by sea (IMO, 2012), but one study suggests that the true figure in 2006 was more likely around 75 per cent in terms of tons carried and 59 per cent by value (Mandryk, 2009). -
Ship Design Decision Support for a Carbon Dioxide Constrained Future
Ship Design Decision Support for a Carbon Dioxide Constrained Future John Nicholas Calleya A dissertation submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy of University College London. Department of Mechanical Engineering University College London 2014 2 I, John Calleya confirm that that the work submitted in this Thesis is my own. Where information has been derived from other sources I confirm that this has been indicated in the Thesis. Abstract The future may herald higher energy prices and greater regulation of shipping’s greenhouse gas emissions. Especially with the introduction of the Energy Efficiency Design Index (EEDI), tools are needed to assist engineers in selecting the best solutions to meet evolving requirements for reducing fuel consumption and associated carbon dioxide (CO2) emissions. To that end, a concept design tool, the Ship Impact Model (SIM), for quickly calculating the technical performance of a ship with different CO2 reducing technologies at an early design stage has been developed. The basis for this model is the calculation of changes from a known baseline ship and the consideration of profitability as the main incentive for ship owners or operators to invest in technologies that reduce CO2 emissions. The model and its interface with different technologies (including different energy sources) is flexible to different technology options; having been developed alongside technology reviews and design studies carried out by the partners in two different projects, “Low Carbon Shipping - A Systems Approach” majority funded by the RCUK energy programme and “Energy Technology Institute Heavy Duty Vehicle Efficiency - Marine” led by Rolls-Royce. -
Suez-Max Tanker Optimization
Design Analysis of a New Generation of Suezmax Tankers Igor Belamarić,1 Predrag Čudina,2 Kalman Žiha3 A thoroughly investigated design of a new generation of Suezmax tankers incorporating the builder's consideration in the form of a condensed mathematical model is presented. The design model is provided for practical application and for a fast assessment of the conceptual design. The design model is subjected to different methods of design analysis in order determine an adequate design and the appropriate procedure applicable in the design office. In addition, the computational, building and operational uncertainties involved in the design and mathematical model are considered. The uncertainty analysis based on tolerances indicates a wider choice of designs within acceptable limits. INTRODUCTION The enlarged profile of the Suez Canal, along with The design concept of the Suezmax tanker is intensive development of double-hull structures described by a mathematical/numerical model during the past number of years, has had a great following design principles [Watson & Gilfillan impetus on the design of a new generation of 1977, Taggart 1980]; this concept is subjected to an Suezmax tankers. analysis giving a solid basis for design selection and Basic dilemmas in the design of tankers concern the decision-making, [Žanić, Grubišić & Trincas 1992]. longitudinal bulkheads, shape of the midship section, Due to the large number of uncertainties involved cargo loading/unloading equipment, capacity and in the design model, a certain skepticism may arise design of segregated ballast tanks, as well as the among practicing engineers concerning highly arrangement of engine room, and have been sophisticated and accurate numerical procedures. -
Scorpio Tankers Inc. Company Presentation June 2018
Scorpio Tankers Inc. Company Presentation June 2018 1 1 Company Overview Key Facts Fleet Profile Scorpio Tankers Inc. is the world’s largest and Owned TC/BB Chartered-In youngest product tanker company 60 • Pure product tanker play offering all asset classes • 109 owned ECO product tankers on the 50 water with an average age of 2.8 years 8 • 17 time/bareboat charters-in vessels 40 • NYSE-compliant governance and transparency, 2 listed under the ticker “STNG” • Headquartered in Monaco, incorporated in the 30 Marshall Islands and is not subject to US income tax 45 20 38 • Vessels employed in well-established Scorpio 7 pools with a track record of outperforming the market 10 14 • Merged with Navig8 Product Tankers, acquiring 27 12 ECO-spec product tankers 0 Handymax MR LR1 LR2 2 2 Company Profile Shareholders # Holder Ownership 1 Dimensional Fund Advisors 6.6% 2 Wellington Management Company 5.9% 3 Scorpio Services Holding Limited 4.5% 4 Magallanes Value Investor 4.1% 5 Bestinver Gestión 4.0% 6 BlackRock Fund Advisors 3.3% 7 Fidelity Management & Research Company 3.0% 8 Hosking Partners 3.0% 9 BNY Mellon Asset Management 3.0% 10 Monarch Alternative Capital 2.8% Market Cap ($m) Liquidity Per Day ($m pd) $1,500 $12 $10 $1,000 $8 $6 $500 $4 $2 $0 $0 Euronav Frontline Scorpio DHT Gener8 NAT Ardmore Scorpio Frontline Euronav NAT DHT Gener8 Ardmore Tankers Tankers Source: Fearnleys June 8th, 2018 3 3 Product Tankers in the Oil Supply Chain • Crude Tankers provide the marine transportation of the crude oil to the refineries. -
Journal of KONES 2013 NO 2 VOL 20
Journal of KONES Powertrain and Transport, Vol. 20, No. 2013 DIMENSIONAL CONSTRAINTS IN SHIP DESIGN Adam Charchalis Gdynia Maritime University Faculty of Marine Engineering Morska Street 83, 81-225 Gdynia, Poland e-mail: [email protected] Abstract The paper presents general rules for calculations of ship’s hull principle dimensions at preliminary stage of design process. There are characterized and defined basic assumptions of design process and limitations for calculations of dimensions and some criteria numbers. Limitations are an outcome of shipping routes what is related to shipping restrictions, diminishing of hull drag, achieving of required strength of hull and safety of shipping requirements. Shipping limitations are because of canals and straits dimensions or harbours drafts. In order to diminish propulsion power, what is related to economically justified solution, selected form and dimensions of hull must ensure minimizing of resistance, including skin friction and wavemaking resistance. That is why proper selection of coefficients of hull shape and dimensional criteria according to ship owner’s requirements i.e. deadweight (DWT) or cargo capacity (TEU), speed and seakeeping. In the paper are analyzed dimensional constraints due to shipping region, diminishing of wavemaking and skin friction resistance or application of Froude Number, ships dimensional coefficients (block coefficient, L/B, B/T, L/H) and coefficients expressing relations between capacity and displacement. The scope of applicability above presented values for different modern vessels construction were analyzed. Keywords: ship principal dimensions, hull volumetric coefficients, hull design 1. Methodology of ship’s principal dimensions selection at early design stage Process of ship design consist of several subsequent stages. -
Inclining Test and Lightweight Survey V2.1
GL Leaflet for Inclining test and Lightweight survey V2.1 Leaflet for Inclining test and Lightweight Survey Version 2.1 dated 2011-08-24 1 GL Leaflet for Inclining test and Lightweight survey V2.1 Version information Version Date Editor Items treated Approved 1.0 2005-05 Fim, TBo, Pei initial version HB 2.0 2011-04 Pei, GLe, SKl, MBst draft readings, status of vessel, FSM, tank fillings AFl 2.1 2011-08 Pei, Jasch BW shifting tanks, amount of additional masses, AFl shifting weights, editorial changes 2 GL Leaflet for Inclining test and Lightweight survey V2.1 Table of contents: 1 Inclining Test........................................................................................................................ 4 1.1 Purpose and objective..................................................................................................................... 4 1.2 Acceptance of the test..................................................................................................................... 4 1.3 Procedure of the inclining test ......................................................................................................... 5 1.3.1 Notification of the inclining test/lightweight survey.................................................................. 5 1.3.2 Condition of the vessel ........................................................................................................... 5 1.3.3 Mooring Arrangement.............................................................................................................5 -