PRESS RELEASE TEU ULTRA LARGE CONTAINER VESSEL

Similar documents
Capital Link's 4th Annual Invest in International Shipping Forum. Dr Hermann J. Klein, Member of Executive Board of GL

Table of content. Project Details Page 3. In General Page 4. Main Particulars Page 5. General Arrangement Page 6

Improved Efficiency and Reduced CO 2

Piston Engine Room Free Efficient Containership

Propulsion of 30,000 dwt. Handysize Bulk Carrier

Propulsion of 46,000-50,000 dwt. Handymax Tanker

Propulsion of 2,200-2,800 teu. Container Vessel

Existing Design Trends for Tankers and Bulk Carriers - Design Changes for Improvement of the EEDI in the Future

The Benefits of Podded Propulsion in the Offshore Market

Propulsion of VLCC Introduction

Contents 1 General on Ship Design 2 Selection of Main Dimensions and Calculation of Basic Ship Design Values

COMPRESSED GAS, EXPANDED OPPORTUNITIES.

ODENSE MARITIME TECHNOLOGY

Putting the Right Foot Forward: Strategies for Reducing Costs and Carbon Footprints

Shipboard fittings and supporting hull structures associated with towing and mooring on conventional vessels ships

Fuel efficient tanker design. Karsten Hochkirch DNV GL SE Germany

MAN Engines Smooth Passage For Spanish Ro-Ro

DESIGN AND OPERATIONAL ASPECTS OF DIESEL GENERATORS POWER AND NUMBER FOR SEAGOING SHIPS

VESSEL CHARACTERISTIC FIELDS

P-899 WINMOS SUB-ACTIVITY 2.3

AIR POLLUTION AND ENERGY EFFICIENCY. Mandatory reporting of attained EEDI values. Submitted by Japan, Norway, ICS, BIMCO, CLIA, IPTA and WSC SUMMARY

Major Shipping Line Orders MAN B&W-Powered, Multi-Role Vessels

Hydrodynamic Optimization of Ships

T24C1 T24C m 3 Chemical & Product Tanker

Mandatory Ship Type and Enhanced Survey Programme (ESP) Notations

Gearless / full scantling cellular container vsl with poop, forecastle and open top cargo hold

Improving the Propulsion Efficiency by means of Contracted and Loaded Tip (CLT) Propellers

The Conceptual Design Experience of Sea-Going Ships with Alternative Propulsion System, Equipped with Dual-Mode Contra Propeller

Innovative Power Transmission. Gear Units for LNG Carriers Dual-Fuel/Electric Propulsion

Commercial Off the Shelf Ships for Naval Applications. By Peter Lucey Director Planning, Major Surface Combatants

FPMC P GLORY Ship's address 1.20 Name of the Registered Owner FPMC GLORY MARINE CORP.

World Record Dual-Fuel Engines Ordered by Leading American Shipping Company

America s Tropical Shipping Orders Complete MAN Diesel & Turbo Packages

Formosa Sixteen If the flag has been changed, what was previous flag? Peoples Republic of China INMARSAT number ,

Green Ship of the Future. Green Ship of the Future -

Shipboard fittings and supporting hull structures associated with towing and mooring on conventional ships

About us. In this brochure we are pleased to present one of our latest innovations the Becker Mewis Duct.

L27/38 GenSets Ordered for TML Heavy Transport Vessels

Latest Ships built in Japan

LNGreen. GREEN4SEA Forum. LNG carrier of tomorrow - Joint development project. 06 April George Dimopoulos, PhD DNV GL R&D and Advisory, Greece

Latest Ships built in Japan

characteristics, including the ability to turn through 180 degrees for an increase in backing thrust.

Emissions for the ferry routes: 1) Rødby - Puttgarden, 2) Gedser - Rostock and 3) Trelleborg - Rostock

Why waterjets? Why Marine Jet Power?

MAN DIESEL & TURBO PrimeServe Retrofit & Upgrades Danish Ship Owner Seminar Copenhagen

Marine Jet Power, MJP, is a leading supplier of waterjet propulsion systems for high-performing applications. Customers with uncompromising demands

STIFFNESS CHARACTERISTICS OF MAIN BEARINGS FOUNDATION OF MARINE ENGINE

Navis NavDP 4000 Series

ABCON MARINE PRODUCTS

T24 T m3 Chemical and Oil Product Tanker

By Edmund Hughes, Technical Officer, Marine Environment Division, IMO

LNG AS SHIP FUEL THE FUTURE TODAY LNG READY SERVICE ENGINES FOR GAS-FUELLED SHIPS RECOMMENDED PRACTICE ON BUNKERING GLOBAL LNG SOLUTIONS.

EEDI TEC No. EEDI ISO ISO 1 ISO15016: ISO15016:2015 ISO15016: ISO. 4. PrimeShip-GREEN/ProSTA. 5 1 PrimeShip-GREEN/ProSTA

Ekip Link logic- zone discrimination protection system

KEEL MARINE LTD Naval Architects, Marine Engineers and Surveyors

ETI HDV Marine Programme

Energy Efficiency Design Index (EEDI)

FURTHER TECHNICAL AND OPERATIONAL MEASURES FOR ENHANCING ENERGY EFFICIENCY OF INTERNATIONAL SHIPPING

Parameters Affecting Selection of Dredge Equipment

APPLICATION TO A CHEMICAL TANKER

Latest Ships built in Japan

MDT Alpha Aft ship & Propeller

ME-GI/ME-LGI Applications and references

Ship Efficiency from the Viewpoint of a Financing Bank

ANALIYSIS OF PROPULSION FOR VARIOUS TYPES OF SHIPS IN ASPECTS OF POWER REQUIRED AND FUEL CONSUMPTION DURING EXPLOITATION

IMPROVEMENT OF PROPULSION OF SURFACE SHIPS BY USING NON-TRADITIONAL PROPELLERS

Competitive Edge through Environmental Performance

Main changes in BV Rules for Steel Ships

ROYAL KLIPPER 580,754 cbft / 6,613 sqm / 8,010 pallets

11,000 teu container vessel

Engines Portfolio Marine. Unrestricted Siemens AG 2018

The world 1 st LNG-fuelled containership

Methanol a marine fuel for the future. International Methanol Conference Copenhagen May 8-10

VEGA AZURIT MAIN PARTICULARS:

Prof. Mustafa Insel HİDROTEKNİK Nautical Design Development. A Decision Support System for Energy Efficient Propulsion MARENER WMU

ST. VINCENT AND THE GRENADINES

SCD SCHOTTEL COMBI DRIVE

Journal of ETA Maritime Science

In a NabCat from Moen Marin, you will appreciate the high level of comfort, practical solutions and high technical quality

Technical Information

SFOC Optimisation with Low Load or Part Load Exhaust Gas Bypass (LL-EGB, PL-EGB)

AIR POLLUTION AND ENERGY EFFICIENCY. Report of the Working Group on Air Pollution and Energy Efficiency. Part 2

Author s Name Name of the Paper Session. PDynamic. Positioning Committee. Marine Technology Society

DNV GL. Global maritime advisory group uses Simcenter STAR-CCM+ to increase hull efficiency by 36 percent without sacrificing capacity

Improving Propulsion Efficiency with SISTEMAR CLT Propellers

SCD SCHOTTEL COMBI DRIVE

Your Partner in Consulting Date: 6 th March 2013 Presenter : Khorshed Alam. FutureShip Singapore Consulting Status Review 14/03/13 No.

Three-phase motors for marine use

Bulker and Tanker in Open Water and in Ice Dipl.-Ing. F. Mewis, HSVA Dipl.-Ing. J.-H. Hellmann, HSVA

M/V Paul Candies PERFORMANCE GENERAL HELIDECK MAIN ENGINES AND PROPULSION MAIN DIMENSIONS TONNAGE CAPABILITIES

Outline Specification. Of a 5,500 tons. IMO II Chemical Tanker

KAWASAKI Environment-friendly New engine technology

GASEOUS FUELS SAFETY ASPECTS

Aqua-Manoeuvra Systems A Division of Innovative Technologies Ltd.

HELGA II, a part of LNG in Baltic Sea Ports II

Feasibility of Electric Propulsion for Semi-submersible Heavy Lift Vessels

Reliable, Silent, Efficient. Voith Linear Jet

Practical Cradle to Grave Solutions for Sustainable Shipping. Ken Harford, P.Eng.

Poulsen Hybrid Monorotor

STUDY ON PROPULSION ALTERNATIVES FOR WINMOS ACTIVITY 2.2

Transcription:

PRESS RELEASE The technical papers and discussions around the Ultra Large Container Carriers have so far been based on extrapolation of the post PANAMAX Container Carriers, hence the number of uncertainties and unknowns have grown exponential. To reduce the guesswork Bureau Veritas therefore decided to have a professionally developed conceptional design made, to be used as the foundation for future engineering and Rule development work. Close to 600 engineering hours have been spent by Knud E. Hansen A/S only on this conceptional design. Statements in the press such as: The twin-screw approach is the easier solution but capital costs and running costs increase significantly, is not only an over-simplification, but also indicates little understanding for the facts of life and the complexities involved. 12,500 TEU Ultra Large Container Vessel When the classification society Bureau Veritas contracted with Knud E. Hansen A/S of Denmark, to draw up a design of an Ultra Large Container Carrier, it was the first time, to our knowledge, that a conceptional design of such a large and complex ship has been made outside the big shipyards. With the exception of the number of containers, the speed and not to exceed Suez-max dimensions, all other variables had to be fixed by the Designer. Figure 1. Side view of the 12500 TEU Container Vessel PRESS RELEASE 12500 TEU ULTRA LARGE CONTAINER VESSEL Page 1

STRUCTURE In order to be able to analyse such a big ship structure, the conceptional design was to include lines, weights, capacities, stability, several loading conditions, speed and power predictions, general arrangement, container arrangement, study of various midship section solutions, midship section, sections in engine room, longitudinal strength and local scantlings calculations, in other words a design which is complete enough to obtain reliable and realistic results, thus eliminating the guesswork. The design work was also subject to the relative construction cost. Several midship cross sections were evaluated versus longitudinal strength requirements. One of the limiting parameters was that 70 mm is the maximum plate thickness which can be production welded with today s technology. In the attempt to reduce the longitudinal strength requirements, the main dimensions of the vessel also caused concern. When the length was reduced and the vessel made wider to fit the same number of containers, reducing the longitudinal strength requirements by 5 %, then the power requirement increased by 10% in order to maintain the speed. Consequently deepening the vessel was the answer to gain more strength. Solution C was finally chosen (see figure 2). The torsional strength of the vessel was also a major concern, hence the two independent deckhouse structures. Figure 2. Various midship sections PRESS RELEASE 12500 TEU ULTRA LARGE CONTAINER VESSEL Page 2

PROPULSION Regarding propulsion, several options had to be evaluated: One propeller, transmitting all the required power through several possible drive trains were all discarded due to excessive propeller loads. One propeller without rudder but in combination with two pods was possible but found too expensive. A two-propeller solution with two identical engines was finally selected, when price, redundancy, manoeuvrability, spare parts, etc. was weighted and considered. Figure 3. Speed & power curve for a 12500 TEU Container Vessel With these large and fast vessels, redundancy in the power plant might become mandatory or at least emerge as requirements from the owners and underwriters. The same might be true regarding increase in manoeuvrability, and hence this has been taken into account in the design. It is indeed interesting to note that a vessel with two engines and two propellers, as the subject design, may still maintain a speed in the vicinity of 20 knots on one engine only. This is not only an efficient take-home arrangement, but also a viable emergency solution to keep operating the vessel in case of a major engine failure, while waiting for major replacement parts. The owners and underwriters will appreciate this feature. PRESS RELEASE 12500 TEU ULTRA LARGE CONTAINER VESSEL Page 3

Another interesting feature is the fact that this 12,500 TEU vessel has similar features as tankers have, when complying with MARPOL, namely double bottom and double sides, throughout the cargo section. Figure 4. Various sections showing the structural design of the vessel The design will be used for analysis of the structural feasibility and optimisation using the advanced BV program VeriStar Hull and for further Rule development. Design Summary Length over all Approx. 400,00 m Length between perpendiculars 378.00 m Breadth moulded 54.20 m Depth, moulded to upper deck 29.00 m Design draught moulded 13.00 m Scantling draught moulded 14.50 m DWT at design draught (13.00 m) Approx. 127,000 t DWT at scantling draught (14.50 m) Approx. 152,000 t Main engines output MCR Approx. 2 x 57 MW Speed in service condition*) 25.50 Knots Range 26,500 Nautical miles Bow thrusters 3 x 2500 kw Generator Capacity 4 x 4000 kw *) The service condition is defined as a condition on design draft (13.00 m) including 15% sea margin and engines running at 85% MCR. PRESS RELEASE 12500 TEU ULTRA LARGE CONTAINER VESSEL Page 4

Classification Bureau Veritas I 3/3 E, Containership, AUT, ACA Container Capacities Container Capacity in the holds is based on 8 layers of ISO 8'-6'' high containers + two layers of 9-6 (total 10 layers). The distribution of containers below deck and on deck can be seen in the table below: TEU's only Combined FEU's TEU's BELOW DECK 6,234 3,117 ON DECK 6,289 3,072 145 GRAND TOTAL 12,523 6,189 145 Reefer plugs: Total 1250 FEU The complete information For additional design information and the design report please click in on Bureau Veritas homepage: www.bureauveritas.com under the subtitle Marine. Or the homepage of Knud E. Hansen A/S: www.knudehansen.com under the subtitle News. Alternatively please contact Knud E. Hansen A/S at phone + 45 32 83 13 91, or fax at + 45 32 83 13 94, or at e-mail at keh@knudehansen.com. PRESS RELEASE 12500 TEU ULTRA LARGE CONTAINER VESSEL Page 5

Seminar on Ultra Large Container Carriers The Danish Society of Naval Architects and Marine Engineers has arranged a half-day seminar in Copenhagen on 5 September 2001, exclusively dealing with Ultra Large Container Carriers. Ultra Large Container Ships Prospects for the future The preliminary agenda is as follows: 12.00-12.30 Registration and coffee 12.30-12.40 Opening of the conference by chairman Hans Otto Kristensen, Danish Society of Naval Architecture and Marine Engineering 12.40-13.30 Mega changes in container shipping, by professor Niko Wijnolst, Delft University, Holland 13.30-14.10 Design of a 12,500 TEU Box ship, by Knud E. Hansen A/S, Denmark 14.10 14.50 Design Philosophy of Ultra Large Container, Bureau Veritas, France 14.50-15.20 Coffee break 15.20-16.00 Development of very large container ships by Dr. Broder Hinrichsen, Germanischer Lloyd, Germany 16.00-16.40 Logistic analysis of 12,500 TEU Ultra Large Container vessels, Lloyds Register of Shipping, United Kingdom. 16.50-17.00 Break 17.00 17.40 Engines for large container ships by Senior Manager Mikael C. Jensen, MAN B&W Diesels A/S 17.40 18.20 Hydrodynamics of Ultra Large Containerships, by Fred Pucill, B. Sc. Senior Naval Architect, Danish Maritime Institute 18.20-18.30 Closing of the conference by Chairman Hans Otto Kristensen, The Danish Society of Naval Architecture and Marine Engineering PRESS RELEASE 12500 TEU ULTRA LARGE CONTAINER VESSEL Page 6

How to register: Send your registration to The Danish Society of Naval Architects and Marine Engineers c/o Lloyds Register, Strandgade 4 C, 1404 Copenhagen K, Denmark or by fax: +45 32 96 18 81. Please register before August 27, 2001 (Limited number of participants: 100). Contact person for the seminar: Hans Otto Kristensen (Danish Shipowners Association). Telephone no. +45 33 11 40 25 286 or +45 40 45 90 20. Knud E. Hansen A/S has provided ships designs and services to owners and shipyards for over 60 years. Our 55 naval architects and marine engineers collectively hold a wealth of knowledge and experience, resulting in innovative and the most over-all economical designs. Further Knud E. Hansen A/S is an independent company, free from economical ties to the marine industry and thus providing unbiased advice, based on sound engineering and economical principles only. PRESS RELEASE 12500 TEU ULTRA LARGE CONTAINER VESSEL Page 7