Current Development of Shipbuilding Technology - Japan. Dave (Hiroshi) IWAMOTO Chairman of International sub-committee, SAJ

Similar documents
INTERNATIONAL CONFERENCE & EXHIBITION ON

A new re-liquefaction system of MRS-F (Methane Refrigeration System Full re-liquefaction) for LNG Carriers

Dr. Konstantinos Galanis

The latest issues on gas fuelled ship (including New IGF Code)

Vision of the Future Ship

Marine Transportation of LNG. Intertanko Conference March 29, 2004 Bob Curt Ship Acquisition Manager, QatargasII Development

Creating Optimal LNG Storage Solutions. 40 in detail

The future of LNG Carriers

Introduction of Gas Turbine- Powered, LPG Fueled Ship. Byeongyeol Baek Advanced Lead Engineer GE s Marine Solutions March 6 to 7, 2018

Gas - the energy source of the future. Small scale LNG - the regional solution for gas distribution. Oslo 31 May 2013

Matthias Ritters

04 November LNG Ready Capabilities

DESIGN OF THE EVOLUTIONARY LNG CARRIER SAYAENDO

Hydrogen Energy Supply Chain based on Victorian brown coal linked with CCS

CO2-Free Hydrogen Supply Chain

ClassNK Business Planning Department ACADEMY ClassNK Academy Center, South Asia and Oceania

K-Sim Engine Diesel Electric Dual Fuel Cruise Ferry. Evy Kristine Sæter Product Advisor Engine Room Simulator

LNG FUEL PROPULSION IN RMDC PROJECTS

Small scale boil off gas (BOG) re-liquefaction systems

Dual Fuel Container Feeder

Investing/Living under a carbon cloud

Conventional vs. LNG Fuelled RoPax - Case Study -

Costs and benefits of LNG-fuelled container vessels

LNG AND THE FUTURE AAPA MARINE TERMINAL MANAGEMENT TRAINING PROGRAM ANTHONY CHIARELLO PRESIDENT & CEO TOTE

Ballast water management system

Braemar Technical Services

An Outlook for the Maritime Industry Towards 2020

RoRo, Cruise and Naval Conversions

RESOLUTION MEPC.213(63) Adopted on 2 March GUIDELINES FOR THE DEVELOPMENT OF A SHIP ENERGY EFFICIENCY MANAGEMENT PLAN (SEEMP)

Digitalization strategy in Shipping company A case of a Korean shipping company

small to mid-scale LNG solutions LNG-TO-POWER

Design Concept and Features of the Mitsubishi LNG-FPSO (Floating Production, Storage and Offloading Unit)

Capturing growth through global systems integration

KHI Activity for Hydrogen Supply Chain

Energy Saving Device for Ship IHIMU Semicircular Duct

Large Frame Gas Turbines, The Leading Technology of Power Generation Industries

FIRST LNG BUNKERING VESSEL TO SUPPLY THE LNG BUNKERING MARKET FROM ZEEBRUGGE

Introduction of MOL s LNG Bunkering Activities July 26, 2017

Prospects for LNG in the South Baltic Sea Region

NASSCO Shipbuilding & LNG Propulsion. Kevin Mooney, VP of Programs September 18, 2013

Anatomy of LNG Shipping & Operations

ENERGY USE ONBOARD LNG DFDE SHIPS E. E. Attah and R. Bucknall

Development of 1MW high efficiency gas engine cogeneration system

SOME ENERGY-EFFICIENT TECHNOLOGIES IN JAPAN

Magnetically Coupled Submerged Cryogenic Pumps and Expanders for Ammonia Applications

WÄRTSILÄ SHIP POWER JAAKKO ESKOLA SENIOR EVP DEPUTY TO THE CEO PRESIDENT, SHIP POWER

SAMSUNG Energy Plant: All-in-One Solution for Floating Power Plants with Gas-fired Combined Cycle Gas Turbines

WÄRTSILÄ CORPORATION

NORWAY: A Look at Recent LNG Marine Fuel Developments. Dr. Michael Parsons with support from Randolph Helland and Carol Wolosz

The Naming and Delivery Ceremony of Seri Cenderawasih on 20 January 2017 at the HHI Shipyard in Ulsan, South Korea

LNG PUMPS FOR FLOATING STORAGE AND REGAS UNIT

Natural Gas. and the Liquefaction Process

Liquefied Natural Gas: A Marine Fuel for Canada s West Coast

THE TRANSFER OF LNG IN OFFSHORE CONDITIONS. SAME SONG NEW SOUND

Methods for Reducing Frequency and Voltage Variations on DP Vessels

Wärtsilä NACOS VALMATIC Platinum. Integrated Automation System

Society for Gas as a Marine Fuel

LNG as a marine fuel in BC. West Coast Marine LNG Workshop 26 th June 2012

Small Scale LNG From Concept to Reality. Chris Johnson, General Manager, LNG New Markets, Shell

SANY ASPHALT BATCHING PLANT

Ship Energy Efficiency Management Plan (SEEMP) Guidance Notes for Ship Owners and Ship Operators. Asia Pacific Ship Registry

Truckin with Aluminum Aluminum Welding from A to Z

Conceptual Design of CO 2 Transportation System for CCS

LNG bunkering Why, How and When. Nigel Draffin Technical Manager LQM Petroleum Services Inc.

GAZOCEAN Pioneer in Maritime Transportation of Liquefied gas

Norwegian LNG Network

NEW BUILD m Deck Cargo Barge Listing ID: 3022

Investor Presentation

ECO INSTRUMENT (NS M)

BOIL-OFF GAS MANAGEMENT LNG TERMINAL TECHNOLOGIES

On board LNG reliquefaction technology: a comparative study

A smart LNG Offloading to Conventional LNG Carriers in Severe Open Sea Environments

Operating Status of Uprating Gas Turbines and Future Trend of Gas Turbine Development

Improving energy efficiency in the merchant shipping industry

AIR POLLUTION AND ENERGY EFFICIENCY STUDY SERIES

ABS TECHNICAL PAPERS 2007

TRAINING CATALOGUE. Academy Korea SAFER, SMARTER, GREENER

LNG BUNKERING. Advancements & Challenges. HHP Summit Jay Gottlieb Houston, TX USA. President Sept 2012 Argent Marine Companies

The MAGALOG Project LNG-fueled shipping in the Baltic Sea

NOVEL SCHEME FOR SMALL SCALE LNG PRODUCTION in POLAND. W.H. Isalski

High Bridge Combined Cycle Plant

EXECUTIVE SUMMARY OFFSHORE & TRANSPORT DAMEN OFFSHORE SERIES - ANCHOR HANDLING TUG SUPPLIER

The world s first commercial LNG fuel tank made of high manganese austenitic steel

Future sustainable EU energy systems and the case of Cyprus

Smart Ship Applications

Shipboard Energy Efficiency: Regulations, Standards & Opportunities

Developments in the Use of New Technology for Surveys/Inspections Regime

Trial Operation Results of Steam Cooled M501H Type Gas Turbine

CROWN EMMA 547,680 cbft / 6,228 sqm / 6,638 pallets

Noriyuki Kokubun a, Kiyohiko Ko b and Masahiko Ozaki c *

Ship Design and System Integration

COMPLETING THE LNG VALUE CHAIN

IMO REQUIREMENTS FROM JULY 2015 TO JULY 2018 INCLUSIVE

AN APPROACH TO OPTIMISE THE SELECTION OF LNG CARRIERS PROPULSION SYSTEM

Addressing GHG emissions from international maritime transport ICAO/IMO Side Event UNFCCC COP 20

Development of dual fuel LNG hopper dredgers

Teknologi Pemrosesan Gas (TKK 564) Instructor: Dr. Istadi ( )

ENVIRONMENTAL SCIENCE

VALMATIC. Integrated Automation System. Exceeding expectations...

LNG Fuelled Vessels:

Transcription:

Current Development of Shipbuilding Technology - Japan Dave (Hiroshi) IWAMOTO Chairman of International sub-committee, SAJ

Contents : - Environmentally Friendly Ship e Future Series (IHIMU) - LNG-Fuelled Large Container Vessel (IHIMU) - Concept Design of LNG Bunkering Ship (Kawasaki HI) - Development of the Algorithm for Accuracy Evaluation System for Curved Shell Plates by Laser Scanner (Sumitomo HI-ME) - New Generation LNG Carrier Double Eco MAX (Mitsui E.S.) - World s Largest Roll-on/Roll-off ship TONSBERG *Ship of the Year Award 2011* (Mitsubishi HI) - Next Generation Spherical Tank type LNG C SAYAENDO (Mitsubishi HI) - 6400RT Car Carrier with Hybrid Power Supply system (Mitsubishi HI) - Hybrid Turbocharger (Universal Shipbuilding) - Energy Saving Device (Universal ShipbuildingI) 6 th ASEF, 22-23 November 2012, Guangzhou China 2

IHIMU Environmentally Friendly Ship efuture Series 30% reduction of GHG is attained by integrating the technology of IHIMU efuture 13000C (Container Vessel) efuture 310T (VLCC) efuture 56B (Bulk Carrier) 6 th ASEF, 22-23 November 2012, Guangzhou China 3

efuture 13000C - Twin-skeg Hull Form - Tip Raked Propeller and Rudder Bulb - Front Bonnet - Waste Heat Recovery System - Photovoltaic Panel and Lithium Ion Batteries Waste Heat Recovery System Steam Demands Drum AMP (Shore power) Tip Raked Propeller and Rudder Bulb EGE Electricity Demands SCR Power Exh. Gas Turbine G ~ / - G ~ Elect. Battery - / ~ - / ~ Photovol taic power Wave power Turbocharger w/ Variable Nozzle Area Steam Turbine ~ G ~ Diesel Generators M/G ~ 2-stroke Main Engine G ~ G ~ M/G ~ 2-stroke Main Engine 6 th ASEF, 22-23 November 2012, Guangzhou China 4

efuture 310T, efuture56b - Advanced Contra Rotating Propeller - Tip Raked Propeller, Rudder Bulb and Semicircular Duct - Waste Heat Recovery System - Whaleback Bow - AR Vane 6 th ASEF, 22-23 November 2012, Guangzhou China 5

LNG-Fuelled Large Container Vessel (1) Approval in Principle IHIMU has obtained GL AIP for LNG Fuelled 13,000 TEU efuture Container Ship Concept - Service route : Far East - North Europe - Fuel : LNG for ECA abt.2,000miles, Fuel Oil for Global abt.18,000miles - LNG tank room and compressor room are arranged to minimize container losses ECA Service Route LNG Fuelled 13,000TEU Container Ship 6 th ASEF, 22-23 November 2012, Guangzhou China 6

LNG-Fuelled Large Container Vessel (2) Main dimensions Loa: 330.0 m, Bm: 48.2 m, Dm: 27.0 m Minimized Container Loss Fuel Gas Supply System -Submerged type LNG transfer pump is provided inside of tank -Fuel gas supply system is arranged on the tank top -High / Low pressure LNG supply system can be available -Boil off rate can be adjustable Propulsion Plant Fuel Gas Supply System IHI-SPB Tank LNG Transfer Pump 6 th ASEF, 22-23 November 2012, Guangzhou China 7

Concept Design of LNG Bunkering Ship (1) Basic idea of LNG bunkering ship Kawasaki s small scale LNG carrier Special equipment onboard (in comparison with small scale LNG carrier) Design issues 1. LNG tank 2. Propulsion system 3. LNG bunkering interface with LNG receiving ships 4. Special equipment onboard 6 th ASEF, 22-23 November 2012, Guangzhou China 8

Concept Design of LNG Bunkering Ship (2) Design issues and solutions 1. LNG tank Tank type : Type B or Type C? Material : Aluminum or Stainless steel or 9% nickel steel? Requirement : Flexibility in partial cargo loading 2. Propulsion system Low cost and weight, etc. Engine type : DFD mechanical or DFDE or Gas engine etc Requirement: High efficiency Redundancy, etc. 3. LNG bunkering interface with LNG receiving ships By Loading arm or By Flexible hose? 4. Special equipment onboard Transferring boil-off gas to main engine(s) Bunkering LNG fuel to receiving ship 6 th ASEF, 22-23 November 2012, Guangzhou China 9

Concept Design of LNG Bunkering Ship (3) 6,000m 3 type LNG fuel bunkering ship Loa : about 120.0 m Lpp : 114.0 m Bm : 18.8 m Dm : 9.5 m Design draft : 5.6 m LNG tank : 3,000 m 3 x 2 6 th ASEF, 22-23 November 2012, Guangzhou China 10

DEVELOPMENT OF THE ALGORITHM FOR ACCURACY EVALUATION SYSTEM FOR CURVED SHELL PLATES BY LASER SCANNER (1) N.Nakagaki, A.Sugawara, Sumitomo Heavy Industries Marine & Engineering Co.,Ltd., Japan K.Hiekata, H.Yamato, M.Enomoto and K.Takahashi, The University of Tokyo, Japan Curved shell plates are deformed plastically by application of heat, and water-cooled based on wooden bending templates. The accuracy of the measurement depends on experience of craftsman. wooden bending templates 6 th ASEF, 22-23 November 2012, Guangzhou China 11

DEVELOPMENT OF THE ALGORITHM FOR ACCURACY EVALUATION SYSTEM FOR CURVED SHELL PLATES BY LASER SCANNER (2) The laser scanner is able to measure a multiple number of points at a time. It requires a little measurement cost in range of desired accuracy. Type Scan rate Laser Class Range Distance Error FARO Photon 80 Phase-based 120,000 points/sec Accuracy (±2mm @25m distance) able to get whole surface at one time 3R 0.6m-76m ±2mm at 25m Output: Point Cloud Data 6 th ASEF, 22-23 November 2012, Guangzhou China 12

DEVELOPMENT OF THE ALGORITHM FOR ACCURACY EVALUATION SYSTEM FOR CURVED SHELL PLATES BY LASER SCANNER (3) Improve the accuracy evaluation system for curved shell plates using laser scanners Employ new algorithm based on ICP(Iterative Closest Point) for comparison of measured data and design data calculation and visualization of the error Verify the proposed system in practical use through experiments at a shipyard. 6 th ASEF, 22-23 November 2012, Guangzhou China 13

DEVELOPMENT OF THE ALGORITHM FOR ACCURACY EVALUATION SYSTEM FOR CURVED SHELL PLATES BY LASER SCANNER (4) An accuracy evaluation system for curved panel plates using design data and point cloud data was developed. Validity of the proposed system in practical use is demonstrated. - ICP algorithm is used for registration, and it made the process of calculation simple and robust. 99.7% (-3 σ to 3σ range) of all the points is within the -0.932mm to +0.929mm range. a b heating log correspondence between the heating log and the result figure of our system 6 th ASEF, 22-23 November 2012, Guangzhou China 14

Mitsui New Generation LNG Carrier Economical & Ecological LNG Carrier evolves the LNGC market!! 6 th ASEF, 22-23 November 2012, Guangzhou China 15

Technical Feature of Double Eco Max Excellent hull form and highly efficient propeller is applied Cargo Capacity -> max. 180,000 cm3 with MOSS spherical or stretched 4 tanks Propulsion system -> MEGI Slow Speed Dual Fuel Engine Highly efficient engine with proven technology Boil off gas -> 0.1 % /day boil off TiG Panel System environmental friendly material is applied. Boil off gas Treatment -> Reliquefaction system 100% gas recovery even at lower main engine low load operation with High Pressure Fuel Supply System to MEGI (Hamworthy) 6 th ASEF, 22-23 November 2012, Guangzhou China 16

Fuel consumption index Comparison of fuel consumption between propulsion systems Cargo Cap. (Cub.m, 100%) L OA x B x D(m) 155K (STR) d(m) 11.3 11.8 11.5 BOR (%/day) 147K 180K 289.5 x 49.0 x 26.5 300.0 x 52.5 x 28.0 0.15 0.10 Prop. Plant CST AST CST CST AST ME-GI GI+RL D+RL DFDE Shaft No. 1 2 150.0 100.0 50.0 0.0 Comparison of fuel consumption at same design ship speed (Index 100=147K(CST), HFO base) Abbreviations - Conventional steam turbine (CST) - Advanced Re-heat steam turbine (AST) - Dual fuel slow speed gas injection diesel engine (ME-GI) - ME-GI with Re-liquefaction system (GI+RL) - Oil burning slow speed diesel with Re-liquefaction system (D+RL) - Dual fuel diesel electric propulsion (DFDE) 6 th ASEF, 22-23 November 2012, Guangzhou China 17

Fuel consumption Schematic Diagram of the BOG Treatment / Propulsion System Additional fuel (FO or Forcing gas) Diesel generator Fuel oil Fuel gas GCU Natural BOG Re-liquefaction Fuel Cargo Machinery room Ship speed Boil of gas Low speed Diesel engine Cargo tank Spray pump 6 th ASEF, 22-23 November 2012, Guangzhou China 18

Advantage of MEGI adoption by MES 1. Long run records of 12K80MCGI-S(prototype of MEGI) about 20000 hours operation during 1994/2003 2. Technical advantage of MEGI can be highly achieved 1) Lower SFOC 2) Direct propeller drive 3) No knocking 4) No methane slip 5) Identical performance of oil & gas burning 3. Risk analysis is on going by MES including Fuel gas supply system 4. Full Scale Test of MEGI at MES to be planed in March 2013 at Tamano Works 5. Long experience and technical service are utilized as one of top supplier of MAN DIESEL TURBO engines 6 th ASEF, 22-23 November 2012, Guangzhou China 19

The Ship of the Year Award 2011 - the world s largest roll-on/roll-off ship TØNSBERG - Particulars of the ship Lpp x B x D x d : 250m x 32.26m x 33.22m x 11.0m Service Speed : abt. 20.25 kn Gross Tonnage : 74,622 6 th ASEF, 22-23 November 2012, Guangzhou China 20

Capable of carrying high and heavy cargoes Construction Machinery Max. weight 70 t MAFI trailers Max. weight 140 t Heavy lift trailers Max. weight 505 t Railcars with/without boogies 6 th ASEF, 22-23 November 2012, Guangzhou China 21

Overall Layout & Special Features Overall Layout Jumbo Stern Ramp 505 tons of capacity 12m width Hoistable deck by electric motor winch 6 th ASEF, 22-23 November 2012, Guangzhou China 22

Next Generation Spherical Tank type LNGC - SAYAENDO - Particulars of Continuous Tank Cover LNGC Cargo Tank Capacity : abt. 155,000 m3 Service Speed : abt.19.5 kn Main Engine : Reheat Steam Turbine (UST) 6 th ASEF, 22-23 November 2012, Guangzhou China 23

SAYAENDO Concept - Nickname SAYAENDO - Proven Moss spherical tank type - Light structure weight - Better propulsion performance - Better maintainability SAYAENDO Continuous Tank Cover LNGC (Perspective Image) Conventional Tank Cover Moss LNGC 6 th ASEF, 22-23 November 2012, Guangzhou China 24

Overall Layout & Technical Evaluations Overall Layout Structural Assessment A conventional tank cover contributes little to structural strength The SAYAENDO continuous tank cover offers high structural strength Larger deck surface that supports strength Improved structural depth Wind Tunnel Tests Improved wind resistance 6 th ASEF, 22-23 November 2012, Guangzhou China 25

6400RT Car Carrier with Hybrid Power Supply system Hybrid Power Supply system 160kW Solar Generation system 2.2MWh(Potential Power) Lithium-ion Batteries Diesel powered generators Vessel under way Electricity generated by Solar Generation system stored in Lithium-ion Batteries Vessel while rest in port Electricity stored in Lithium-ion Batteries supplied for all of vessel s power needs ZERO EMISSION while rest in port The vessel was jointly developed by MOL, MHI and Panasonic, subsidized by the Ministry of Land, Infrastructure, Transport and Tourism as a project to help reduce CO2 emissions from ocean-going vessels, and received support from Nippon Kaiji Kyokai as a cooperative development project to reduce greenhouse gases produced by ocean shipping operations. 6 th ASEF, 22-23 November 2012, Guangzhou China 26

6400RT Car Carrier with Hybrid Power Supply system 6 th ASEF, 22-23 November 2012, Guangzhou China 27

HYBRID TURBOCHARGER CROSS-SECTIONAL DIAGRAM 6 th ASEF, 22-23 November 2012, Guangzhou China 28

HYBRID TURBOCHARGER SYSTEM OVERVIEW FLUCTUATED AC POWER SUPPLY AC 0 ~ 400V / 0 ~ 400Hz Converter Hybrid Turbocharger Main Switchboard Inverter PM Generator Junction box with MCCB Main Engine Converter & Inverter REGULATED AC POWER SUPPLY AC 450V / 60Hz Hybrid Turbocharger Main Switchboard 6 th ASEF, 22-23 November 2012, Guangzhou China 29

Energy Saving Device Text (Calibri 18 point) Energy 6 th ASEF, 22-23 November 2012, Guangzhou China 30

Bow Shape Improvement Conventional Full Hull Form Ship Sharpen Bow Ship To sharpen the bow shape in order to reduce the diffraction wave 6 th ASEF, 22-23 November 2012, Guangzhou China 31

Performance in Waves Ax-Bow / LEADGE-Bow Ordinary Bow Ax-Bow LEADGE-Bow 6 th ASEF, 22-23 November 2012, Guangzhou China 32

Thank you very much 6 th ASEF, 22-23 November 2012, Guangzhou China 33