Kyma Ship Performance

Similar documents
Kongsberg Maritime. Green Ship paper at Mari-Tech 2010 Montreal 11 June WORLD CLASS through people, technology and dedication

KONGSBERG Vessel performance system Product description

Measures to reduce fuel consumption

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

Gas Fuelled Container Ship

Potential of operational saving measures Orka 2015 Summit Jacob W. Clausen, Head of Advisory

Quick functional presentation

Ahorro de Energía en el Transporte Marítimo

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

Perception is everything make sure that you can discover the illusion

Group. Container Ships Consumption Models. Jean-Baptiste BOUTILLIER - Sadok MALLEK Hamburg, 28/09/2015. Excellence in Shipmanagement

Philip Padfield, CEO. Sustainable shipping. 22nd October

Propulsion Options for the Modern Short Voyage Ferry. The Ferry. A vehicle and passenger ferry. Short. BMT Nigel Gee and Associates Ltd

Indra Nath Bose Head Vessel Performance Management, The Great Eastern Shipping Co. Ltd.,

ONE FLEET SOLUTION. Combining noon reports with automated data. ORKA SUMMIT September September

Reliable, Silent, Efficient. Voith Linear Jet

KEYS TO SMART SHIP OPERATION. MRV and IMO CO2 regulation how to take the challenge in a smart way

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

Tropical Summer Winter. maximum 7 mt (Forklift to be equiped with minimum 4 airtyres) 7 1A 1BC 1D 2AB 2CD 3AB 3CD

Estimating shipping s operational efficiency

Propulsion of VLCC Introduction

ANNEX 5 RESOLUTION MEPC.254(67) Adopted on 17 October GUIDELINES ON SURVEY AND CERTIFICATION OF THE ENERGY EFFICIENCY DESIGN INDEX (EEDI)

Improved Efficiency and Reduced CO 2

Opening keynote: Setting the scene the shipowners and shipmanagers point of view

Energy Efficiency Design Index (EEDI)

ABB's Energy Efficiency and Advisory Systems

Propulsion of 30,000 dwt. Handysize Bulk Carrier

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

DESIGN DATA SHEET CALCULATION OF SURFACE SHIP ENDURANCE FUEL REQUIREMENTS DEPARTMENT OF THE NAVY NAVAL SEA SYSTEMS COMMAND WASHINGTON, DC

Tropical Summer Winter. maximum 5 mt (Forklift to be equiped with minimum 4 airtyres) 8 1AB 1CD 2AB 2CD 3AB 3CD 4AB 4CD

LOMBOK STRAIT 626,011 cbft / 7,341 sqm / 9,681 pallets

Monitoring, Reporting and Reducing Air Emissions from Marine Operations. Till Stoeckenius, ENVIRON Int. Corp. GreenTech June St.

Coriolis Fuel Mass Flow Metering for Fishing Vessels

SANTA LUCIA 463,652 cbft / 5,140 sqm / 5,934 pallets

L58/64, L48/60, V48/ L40/54, L32/40, V32/ L28/32A, V28/32A, L27/ L23/30A, V23/30A, 48 L32/40DG, V32/40DG 49-50

SCHWEIZ REEFER 645,586 cbft / 7,565 sqm / 8,611 pallets

Wärtsilä 46F PRODUCT GUIDE

WE BUILD SOMETHING THAT MAKES A DIFFERENCE

EXPERIMENTAL METHOD OF DETERMINING CHARACTERISTICS OF POWER AND TORQUE ENGINE FOR LOW-POWER UNMANNED AERIAL VEHICLES

Design. Model Tests for the DP System of a Drilling Semi-Submersible

To improve operations, owners need to identify. EMMA Ship Energy Manager. Know, understand and change. Jukka Ignatius, Jan-Erik Räsänen,

Poulsen Hybrid Monorotor

Shipping and Environmental Challenges MARINTEK 1

Optimizing Cargo Heating For Tankers

Presentation on. Energy efficiency measures in shipping from Operation and maintenance perspective

Jan-Erik Räsänen, ABB Marine and Cranes/Tanker day Spore, ABB Marine Energy Efficiency Tanker day Singapore Oct 11th 2013

"The illusion of fuel savings - an urgent need for improved transparency in marine hull coatings"

SOLUTIONS TO ACHIEVE SUSTAINABLE EFFICIENCY

High Accuracy Bunker Blending / Bunker Control

NVC-Design TM. NVC m Purse Seiner/Pelagic Trawler. Fact sheet DESIGN & INTEGRATED SHIP SYSTEM GENERAL INFORMATION.

Project isems ECO-Operation with IT solution

High Accuracy Bunker Blending / Bunker Control

ACS Guidelines No.8. Guidance on Ship Energy Efficiency Management Plan (SEEMP)

Pacific Basin Coal Shipment Comparative Cost Analysis Month - Year

ST. VINCENT AND THE GRENADINES

Initial considerations for operational parameters intended to minimize fuel consumption by ships in real weather conditions

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

People - Ideas - Solutions

Challenges in the implementation of MRV regulation. Yiannis Kokarakis Bureau Veritas

Fuel efficient vessels/ Green Shipping. By Fleet Director Tor Øyvind Ask

MHI-MME WHRS - STG. Environment friendly and economical solution MITSUBISHI HEAVY INDUSTRIES, LTD. All Rights Reserved.

VEGA AZURIT MAIN PARTICULARS:

Technical Publication. Guidelines for the development of ship's Data Collection Plan (SEEMP Part II) /

People - Ideas - Solutions Marine

DIESEL-ELECTRIC PROPULSION

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

Hydrodynamic Optimization of Ships

The Future of Bunker testing; Real Time Quality Monitoring ARACON 2007

WHY YOU SHOULD MEASURE SHAFT POWER AND THRUST. White Paper

A new era in asset protection

Improving Fuel Efficiency through the Supply Chain?

AIR POLLUTION AND ENERGY EFFICIENCY. Update on the proposal for "A transparent and reliable hull and propeller performance standard"

LA10 (480 VAC, 3-phase, 60 Hz)

An update on MTCC Caribbean s Pilot Projects: Preliminary Results of Data Collection Stephan Nanan

MV ENERGY SWAN ST-216-L DESIGN

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

AT 2303 AUTOMOTIVE POLLUTION AND CONTROL Automobile Engineering Question Bank

SHOCK ABSORBER/DAMPER TESTING MACHINE

Based on the findings, a preventive maintenance strategy can be prepared for the equipment in order to increase reliability and reduce costs.

11,000 teu container vessel

Electrofuels for maritime transportation Dr Carlo Raucci

PRIME MOVER CONTROLS INC. MARINE PROPULSION CONTROLS. Series MPC-CP SYSTEM

Condition Based Maintenance for Maximized. October 13-14, 2009

PROPULSION EQUIPMENT DOCUMENTATION SHEET. Propulsion Equipment

SIDDHARTH INSTITUTE OF ENGINEERING & TECHNOLOGY :: PUTTUR (AUTONOMOUS) QUESTION BANK UNIT I I.C ENGINES

Appenidix E: Freewing MAE UAV analysis

Development of Motor-Assisted Hybrid Traction System

Wärtsilä 20 PRODUCT GUIDE

MARPOL Annex VI Emission Control Areas. CDR Ryan Allain U.S. Coast Guard Environmental Standards Division Washington, D.C.

The Mechanics of Tractor - Implement Performance

System of diesel Engine Performance Analysis (2 nd) SEPA II

Basics of Electronic Indicators

KNUD E. HANSEN A/S. Defining the path to Energy saving. March Brian Bender Madsen

ZF Friedrichshafen AG, 2011

Ship Energy Efficiency and Air Pollution. Ernestos Tzannatos Department of Maritime Studies University of Piraeus

History Dr. Richard Passamaneck- Inventor

Journal of Chemical and Pharmaceutical Research, 2014, 6(9): Research Article

Kappel Propellers and Other Efficiency Improving Devices. Presentation by MAN Diesel & Turbo

MAN Diesel's First VTA Application Achieves 10,000 Operating Hours

What is entire PressureNET? What are the features of entire PressureNet? What are the benefits of TPMS? Increased Safety.

Transcription:

Kyma Ship Performance K Y M A Kyma Ship Performance - The most sophisticated solution for overall vessel performance monitoring. Instant performance information Fuel reporting Speed loss and performance analysis Sea trial reports Daily and voyage reports Transfer of data to main office EEOI calculation Trim Optimization Statistical analysis of historical data Kyma a.s Aasamyrane 88 B N-5116 Ulset Bergen, Norway Tel. +47 555314 Fax. +47 555317 E-mail: mail@kyma.no Web : www.kyma.no

KYMA a.s have been working with ship performance systems for more than 3 years and are one of the leading suppliers within this field of technology Propulsion economy is based on fuel efficiency and ship reliability. To achieve an optimum result you need the best balance between fuel consumption, power output and ship speed. This can be obtained from accurate information provided by high quality instrumentation. Kyma Performance Monitoring provides bridge and engine officers with vital propulsion data for cost-effective operation of the ship. Reduced fuel consumption As fuel consumption is a major cost factor, the use of Kyma Performance Monitoring can contribute significantly to an improved bottom line. Hull fouling and propeller roughness indication Kyma Performance Monitoring makes it possible to evaluate the economic impact of reduced propeller efficiency and increased hull resistance. It can show the effect of any action taken to improve hull or propeller smoothness. Performance evaluation Contracts for new buildings are based on performance estimates from model tank testing. Kyma Performance Monitoring can confirm precisely to the contract performance parameters or to any specified deviations. Environmental information Emission calculation of CO2 and SO2 is included in Ship Performance and EEOI will be continuously calculated. Trim optimization Kyma Ship Performance can be used to optimize vessel operation by the use of empirical data. In order to optimize ship trim for a given power and draft the functions LOGGING HISTORY and TRIAL are included in the KSP program. Diagnostic Toolbox An optional trend analysis toolbox is available for detailed statistical analysis of speed loss and performance information. Overload protection Early warning signals provide a further benefit for the continuous monitoring of propulsion components. These can indicate the overload stress of components and thus prevent unexpected breakdown.

A separate Kyma Office Application is available for fleet performance evaluation Fleet Performance Summary: Vessel Name Voyage ID Last updated Performance Status M/V Vessel 1 Voyage 11 22.1.21 23:59:59 M/V Vessel 2 Voyage 121 21.1.21 23:59:59 M/V Vessel 3 Voyage 89 23.1.21 23:59:59 M/V Vessel 4 Voyage 76B 22.1.21 23:59:59 M/V Vessel 5 Voyage 14A 2.1.21 23:59:59 Diagnostic Toolbox The Diagnostic Toolbox is an efficient tool giving the operator and ship owner a clear indication of vessel condition related to hull, machinery or propeller by the use of coloured flags for performance status indication. Performance status ok Performance to be observed Performance not ok

Kyma Ship Performance - Instant Values A wide range of output information is available from the system computer. All output may be presented in SI or metric units as required. a) Numerical All logged and calculated parameters can be output to computer monitor and printer. Typical updating time is 15 sec. The following real-time values are available: Revolutions rpm Shaft Torque knm Shaft Thrust kn Shaft Power kw Ship speed by log Ship speed by GPS M/E specific fuel consumption g/kwhr Propulsion efficiency m/kwhr Ship overall efficiency kg/nm M/E fuel consumption kg/hr G/E s fuel consumption kg/hr Aux. Boiler s fuel consumption kg/hr Type of F.O. in use (HFO or MDO) - Fuel Temperature at flow meters C o HFO density at 15 C kg/l MDO density at 15 C kg/l HFO low calorific value (LCV) kj/kg MDO low calorific value (LCV) kj/kg CO2 emissions ton/ day Energy Efficiency Operational Index, EEOI (CO2 Index) g CO2 /ton, nm SO2 emissions ton/day Wind speed, rel. Wind speed, true Wind direction, rel. Deg GPS position, latitude Deg.Min.Sec GPS position, longitude Deg.Min.Sec GPS, ship course Deg Draft fwd/aft m Draft MS, port /starboard m Trim/List m b) Graphic mode Presentation of performance curves where the actual condition is indicated as a plot in the graph with numerical indication and deviation from the performance curve. Performance curves are derived from model tank data or sea trial data. Shaft Power versus Revolutions Shaft Power versus Ship Speed Daily Fuel Consumption versus Ship Speed Specific Fuel Rate versus Shaft Power Trend curves: Long-term trend capability over the life of the vessel of selected vessel performance data subject to change over time, such as speed loss due to hull fouling and increase of main engine specific fuel rate. Short-term trending of any five selectable parameters on a selectable time basis of up to 14 days. Resolution is 1 sample pr 15 sec.

Kyma Ship Performance : Trial Report Vessel : M/V Kyma Demo Voyage : Test Demo Report period from 6.3.2 15:37:16 to 6.3.2 16:37:16 Sea state : Notes : Calm sea, no wind Test report Trial Period 6.1 min Wind True Speed 15.7 Knots Wind Relative Direction 5 Deg Ship Mean Draft 18.1 m Ship Trim.4 m Ship Course (from GPS) Deg Propulsion Power 275 SHP Propeller Speed 72. rpm Shaft Torque 234. Tm FO Gravity at 15.6 C.94 FO Lower Heating Value 1184 kcal/kg M/E Fuel Oil Consumption 3999 kg/hr M/E Fuel Temp. at Meter 89 C Ship Speed by Log 15.2 Knots Ship Speed by GPS 14.9 Knots Ship performance data Reference Fuel LHV for corrected data 12 kcal/kg Ship overall efficiency 263.1 kg/mile Specific fuel rate, Actual 145.4 g/shphr Specific fuel rate, Corrected 145.2 g/shphr Propulsion efficiency 1.2 m/shphr Change of actual fuel consumption relative to reference condition. Change in overall efficiency 12.76 MT/day - Change in specific fuel rate 4.15 MT/day - Change in propulsion efficiency 8.79 MT/day - Other factors (wind, sea, trim etc.) -.18 MT/day

Kyma Ship Performance : Trial Report Vessel : M/V Kyma Demo Voyage : Test Demo Report period from 6.3.2 15:37:16 to 6.3.2 16:37:16 Sea state : Notes : Calm sea, no wind Test report M/E Fuel Mass [kg/hr] 8 7 5 7 6 5 6 5 5 5 4 5 4 3 5 3 2 5 2 1 5 1 5 5 6 7 8 Fuel Consumption vs. Ship Speed 9 1 11 12 13 14 15 Ship Speed Log [Knots] 16 17 18 19 2 M/E Fuel Mass : 532 kg/hr 4 Shaft Power vs. Revolutions 35 M/E Shaft Power [SHP] 3 25 2 15 1 5 16 18 2 22 24 26 28 3 32 34 36 38 4 42 44 46 48 5 52 54 56 58 6 62 64 66 68 7 72 74 76 78 8 82 84 M/E Shaft Speed [rpm] M/E Shaft Speed : -1.1 rpm M/E Shaft Power : 1269 SHP

Kyma Ship Performance : Trial Report Vessel : M/V Kyma Demo Voyage : Test Demo Report period from 6.3.2 15:37:16 to 6.3.2 16:37:16 Sea state : Notes : Calm sea, no wind Test report 4 Shaft Power vs. Ship Speed 35 M/E Shaft Power [SHP] 3 25 2 15 1 5 5 6 7 8 9 1 11 12 13 14 Ship Speed Log [Knots] 15 16 17 18 19 2 Ship Speed Log : -.6 Knots M/E Shaft Power : 2518 SHP M/E Sp.Fuel Rate [g/shphr] 2 19 18 17 16 15 14 13 12 11 1 9 8 1 2 3 M/E Sp.Fuel Rate : 6.3 g/shphr 4 5 6 7 8 Specific Fuel Rate vs. Shaft Power 9 1 11 12 13 14 15 16 17 18 19 2 21 22 23 24 25 26 27 28 29 3 31 32 33 34 35 36 37 38 39 4 M/E Shaft Power [SHPx1]