Harilaos N. Psaraftis Laboratory for Maritime Transport School of Naval Architecture and Marine Engineering National Technical University of Athens

Similar documents
Harilaos N. Psaraftis Laboratory for Maritime Transport School of Naval Architecture and Marine Engineering National Technical University of Athens

Shipping and Environmental Challenges MARINTEK 1

USE OF AIS-DATA TO ACHIEVE EFFICIENT SHIPPING SIRI STRANDENES, PROFESSOR NORWEGIAN SCHOOL OF ECONOMICS, BERGEN

Challenges for sustainable freight transport Maritime transport. Elena Seco Gª Valdecasas Director Spanish Shipowners Association - ANAVE

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

Pollution & GHG emissions from ships. Development of market-based. Marine Environment Division - IMO

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

REDUCTION OF GHG EMISSIONS FROM SHIPS. Reducing global ship emissions using a speed-related GHG or compensation fund

Reducing GHG emissions from shipping: to be or not to be. Harilaos N. Psaraftis Professor Technical University of Denmark

Sustainable Development IMO s Contribution Beyond Rio+20

Energy Efficiency Design Index (EEDI)

MARINTEK The Norwegian Marine Technology Research Institute

Residual Fuel Market Issues

GHG EMISSIONS REDUCTIONS UPDATE ON IMO EU MRV REGULATION

Driving Electrification: the Case of Elemed Project

Readily Achievable EEDI Requirements for 2020

IMO s GHG REGULATORY FRAMEWORK UNDER CONSTRUCTION

2018 World Maritime Day Observance. November 14th, 2018 Cozumel, Quintana Roo, Mexico

ENVIRONMENTAL CONSIDERATIONS parts I & II. B.S. Tselentis Department of Maritime Studies University of Piraeus

Consistent implementation of the 2020 sulphur limit and work to further address GHG emissions from international shipping

Journal of ETA Maritime Science

Operational Energy Efficiency In Practice

The use of ECDIS equipment to achieve an optimum value for energy efficiency operation index

Poulsen Hybrid Monorotor

Maritime emissions IMO discussions

Comparative analysis of ship efficiency metrics

The link between economy and environment in the post-crisis era: lessons learned from slow steaming

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

SOLUTIONS TO ACHIEVE SUSTAINABLE EFFICIENCY

SOLUTIONS TO ACHIEVE SUSTAINABLE EFFICIENCY

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

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

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

DSME GreenShip 18,000 TEU Container Carrier. Oh-Yig Kwon / Director Marketing Engineering Team, DSME Seoul May 12, 2011

The Tanker Sustainability Scenarios

The next big thing. Chevron Shipping Company Chevron

Outlook for Marine Bunkers and Fuel Oil to A key to understanding the future of marine bunkers and fuel oil markets

The Third IMO GHG Study 2014

Propulsion of VLCC Introduction

Improving Fuel Efficiency through the Supply Chain?

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

Electrofuels for maritime transportation Dr Carlo Raucci

CHAPTER 1 SHIP EMISSIONS, COSTS AND THEIR TRADEOFFS. Harilaos N. Psaraftis and Christos A. Kontovas

The Study on Impacts of Market-based Measures for Greenhouse Gas Emission Reduction on Maritime Transport Costs

SHIP ENERGY EFFICIENCY MANAGEMENT PLAN SEEMP. Edilberto Peralta Operations Manager Central and South America

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

Competitive Edge through Environmental Performance

ABB's Energy Efficiency and Advisory Systems

Tackling maritime GHG emissions at international and European level

Emission control at marine terminals

INDUSTRY'S PERSPECTIVE ON THE COMPLIANCE WITH THE LOW SULPHUR REQUIREMENTS. Pulp and paper industries' views and assessment

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

Delivering Sustainability. West Coast Collaborative Partners Meeting 5/31/2012 Lee Kindberg Director, Environment & Sustainability

EURONAV TALKS IMO 2020 FROM THE VIEW OF A SHIPOWNER JUNE

Availability of Low Sulphur Marine Fuels: Prospects & Issues

Design efficiency of ships historical developments and impact of the EEDI. Greentech 2015 Seattle

EU MRV Regulatory update & the IMO Data Collection System

Trade Logistics and the 2030 Agenda for Sustainable Development

The Tanker & Dry Cargo Outlook

Assessment of Fuel Oil Availability. Jasper Faber, The Hague, 3 October 2016

Shinichiro OTSUBO, Ph.D.

EXPANSION OF THE PANAMA CANAL AND ITS IMPACT ON TANKERS. José Ramón Arango S. Liquid Bulk Segment October 4th 2017

IMO 2020: Implications for Crude Oil Prices. Philip K. Verleger. PKVerleger LLC and Colorado School of Mines July 2018

Going Slow to Reduce Emissions. Can the current surplus of maritime transport capacity be turned into an opportunity to reduce GHG emissions?

CO 2 Emission Statistics for the World Commercial Fleet

Philip Padfield, CEO. Sustainable shipping. 22nd October

The Continuing Journey to 2020 and the 0.5% Sulphur Limit For Marine Fuel

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

Strategic Approach for Shipping Modernization In the Thailand

11,000 teu container vessel

Smarter. Steaming Ahead. Policy options, costs and benefits of regulated slow steaming. Smarter Steaming Ahead 1

HYDREX WHITE PAPER N 12

Update on Environment Issues Asian Regional Panel Meeting

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

Preliminary Report of MEPC 71

WORKING PAPER SERIES 2017: 4. CO 2 Emissions. from International. Maritime Shipping. Niels Freese

Colloque ENSM, Marseille, January 2012

Marine Money Japan Ship Finance Forum

Latest Issues Affecting Shipping

Martin Stopford President, Clarkson Research

- 1 - Agenda item 10(e) Emissions from fuel used for international aviation and maritime transport

Aging of the light vehicle fleet May 2011

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

Impact on Shipping Emissions on the Port and the City of Hamburg

MDT TIER III options with low sulphur fuels

SABOA CONFERENCE : Availability and Price Trends of Fuel Over the Next 20 Years March

Perception is everything make sure that you can discover the illusion

EEDI. SOx PM2.5. The importance of enforcement. Partnerskab for grøn Skibsfart

Dr Diamantis Andriotis, Technical Manager, Stealth Maritime Corporation SA

Maritime Transport and the Climate Change Challenge

Enforcement - the way to cleaner shipping and a fair business

Greenhouse Gas Emissions from Ships. Abatement policy options for the EU

TCO 2. Ole Graa Jakobsen. Senior Director Head of Ship Engineering Maersk Maritime Technology. CIMAC CIRCLE 2010 SMM Hamburg

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

HARMFUL AQUATIC ORGANISMS IN BALLAST WATER

The potential for costeffective. commercial aviation. CO 2 abatement in. Brian Pearce. July 2013

Propulsion of 30,000 dwt. Handysize Bulk Carrier

Technical Report TR-22. Appendix Q

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

External Costs of Maritime Shipping in Europe

Transcription:

Harilaos N. Psaraftis Laboratory for Maritime Transport School of Naval Architecture and Marine Engineering National Technical University of Athens Greece

*Psaraftis, H.N. and C.A. Kontovas (2009), CO2 Emissions Statistics for the World Commercial Fleet, WMU Journal of Maritime Affairs, 8:1, pp. 1-25. 2

Speed reduction An obvious way to reduce emissions Killing 3 birds with one stone? Pay less for fuel Reduce CO2 (and other) emissions Help sustain a volatile market 3

Dual targetting OPERATIONAL STRATEGIC (DESIGN) Operate existing ships at reduced speed (derate engines) Slow steaming kits Design new ships that cannot go very fast (have smaller engines) 4

How much slower? From 20-25 knots, go down to 14-18 New Maersk 18,000 TEU ships: 19 knots Project ULYSSES: Go 5-6 knots! 5

Some basics Ships do not trade at predetermined speeds. Those who pay for the fuel, that is, the ship owner if the ship is in the spot market on voyage charter, or the charterer if the ship is on time or bareboat charter, will choose an optimal speed as a function of (a) bunker price, and (b) the state of the market and specifically the spot rate 6

7

Basics ii Even though the owner s and time charterer s speed optimization problems may seem at first glance different, for a given ship the optimal speed (and hence fuel consumption) is in both cases the same. In that sense, from an emissions standpoint, it makes no difference who is paying for the fuel, the owner, the time charterer, or the bareboat charterer. 8

Owner in spot market OBJECTIVE: Maximize average per day profits s: spot rate ($/tonne) C: payload (tonnes) p: fuel price F(v): fuel consumption at speed v D: route r-trip distance E: OPEX ($/day) 9

Time charterer OBJECTIVE: Minimize average per day costs R: demand requirements (tonnes/day) T: time charter rate ($/day) 10

VLCC results Route: Gulf-Japan Optimize both laden and ballast speeds 11

VLCC cont d Include cargo inventory costs 12

Effect of fuel price on emissions 13

parenthesis A Levy on fuel will take care of slow steaming automatically- this will not happen with any of the other proposed market based measures (ETS, hybrid MBMs, etc) At the STRATEGIC level, this will also push to improve ship design (better hulls, engines, propellers, etc) 14

Is slow steaming being practised today? OF COURSE! Practically 0 tanker and bulk carrier lay up 0.2 mm tons of bulkers laid up out of 564.1 mm afloat* 2.6 mm tons of tankers out of 440.1 mm tons afloat* *Clarksons Shipping Intelligence Weekly, 2011-06-03, 15

16

Container sector For Maersk Line slow steaming is here to stay because it remains a win-win-win situation. It is better for our customers, better for the environment, and better for our business, (Eivind Kolding, Maersk Line CEO). 17

Technological advances Modern ships consume significantly less fuel for same speed than ships 10 years ago Electronically controlled engines can make these ships go slower than their older counterparts What has changed in 10 years? Fuel price. 18

Possible barrier to slow steaming Some spot charter agreements force ships to sail a specific speed (which may be higher than the optimal one) Result: ships go faster in laden leg and slower in ballast leg (whereas the reverse is typically the case if speeds are chosen freely) MORE CO2! Market imperfection: Possible issue for regulatory action? 19

Regulating speed 2 ways to regulate speed: (A) Indirect way: Via EEDI (B) Direct way: Mandate it (set a speed limit) 20

Regulating speed 2 ways to regulate speed: (A) Indirect way: Via EEDI (B) Direct way: Mandate it (set a speed limit) 21

(B) Setting a speed limit If speed limit is ABOVE optimal slow steaming speed, superfluous If speed limit is BELOW optimal slow steaming speed, distortions may occur SHORT TERM: higher freight rates LONG TERM: build more ships than you need 22

Parenthesis: direct speed limits at IMO Proposal by Clean Ship Coalition at MEPC 61: Speed reduction should be pursued as a regulatory option in its own right and not only as possible consequences of market-based instruments or the EEDI. The proposal was NOT supported: The Committee agreed that speed considerations would be addressed indirectly through the EEDI, the SEEMP and by a possible market-based mechanism and, therefore, decided that no further investigation of speed reductions as a separate regulatory path was needed. 23

Speed limits distortions Building more ships to match demand throughput Increasing cargo inventory costs due to delayed delivery Increasing freight rates due to a reduction in ton-mile capacity Inducing reverse modal shifts to land-based modes (mainly road) Implications on SAFETY. 24

More ships to match demand throughput Total fuel cost is still lower, BUT: More ships means more CO2 due to shipbuilding and scrapping (life cycle analysis) It also means more maritime traffic, with negative implications on safety More crews to fly around (more aviation CO2) Etc etc 25

Possible modal shifts: Tran-siberian railway example. Psaraftis, H.N., Kontovas, C.A. (2010) Balancing the Economic and Environmental Performance of Maritime Transportation, Transportation Research D 15, 458-462 26

Trans-siberian railway Far East to Europe by boat 43,000 km 7.8 gr CO2/tkm at full speed Reduce speed by 40% 2.8 gr CO2/tkm at reduced speed 150,000 tons of cargo produce 18,000 tons of CO2 Far East to Europe by rail 12,000 km Cargo arrives 26 days earlier Lower inventory costs 18 gr CO2/tkm 150,000 tons of cargo produce 32,000 tons of CO2 27

Net result TOTAL ΔCO2 may be >0 or <0, depending on scenario Result unclear for more complex network scenarios Reducing CO2 in one mode may result in more CO2 overall NOTE: SHORT SEA SHIPPING MAY ALSO SUFFER FROM SPEED REDUCTION, AS CARGOES MAY SHIFT TO ROAD (RESULT: MORE CO2)- EU TRANSPORT POLICY IS JUST THE OPPOSITE 28

Last but not least: safety Setting speed limits will reduce installed engine power But a ship needs to have adequate power to maintain speed in bad weather, manoeuvering, etc IACS et al submission at MEPC 62 (minimum power requirements) ICS submission at MEPC 62 (minimum safe speed of 14 knots) 29

Main conclusion Slow steaming and speed limits are 2 different things If you want to reduce speed (as a means to reduce emissions): Do NOT put a speed limit. Increase the price of fuel. 30

Thank you very much! www.martrans.org 31