Publication: Energy Efficient Inland Water Transport in Bangladesh
dc.contributor.author | World Bank | |
dc.date.accessioned | 2017-06-15T20:31:33Z | |
dc.date.available | 2017-06-15T20:31:33Z | |
dc.date.issued | 2011 | |
dc.description.abstract | IWT is more energy efficient that modes like road or rail. The bigger capacity of IWT units means that the sector is able to ship more tons per kilometer per unit of fuel than what is possible with other modes. This benefits the climate and makes the sector relatively cost-efficient. Even so, few countries fully exploit the potential benefits of IWT and in many countries the share of road transport is increasing at the cost of IWT. There are various possible reasons for this trend. Among the main reasons given by shippers to avoid IWT are advantages of road transport such as speed of delivery and flexibility, limitations imposed by IWT infrastructure (water levels, bridge clearances, port access) and underdeveloped intermodal facilities (transshipment from IWT to truck for pre- and end-haulage). For shippers these arguments are more important than the potential reduction of transport costs and CO2 emissions. Chapter two compares the global energy-efficiency of IWT with that of other transport modes. It also discusses the reasons for differences between modes and the implications of each for CO2 emissions. Chapter three deal with the varying energy-performance of IWT vessels in various regions in the world. Chapter four explores several energy efficiency benchmarking methods. The conclusions of part A are presented in chapter five. | en |
dc.identifier | http://documents.worldbank.org/curated/en/403571468209055949/Energy-efficient-Inland-Water-Transport-IWT-in-Bangladesh | |
dc.identifier.doi | 10.1596/27229 | |
dc.identifier.uri | https://hdl.handle.net/10986/27229 | |
dc.language | English | |
dc.language.iso | en_US | |
dc.publisher | Washington, DC | |
dc.rights | CC BY 3.0 IGO | |
dc.rights.holder | World Bank | |
dc.rights.uri | http://creativecommons.org/licenses/by/3.0/igo | |
dc.subject | ABS | |
dc.subject | AIR | |
dc.subject | AIR POLLUTANTS | |
dc.subject | AIR QUALITY | |
dc.subject | ALLOCATION | |
dc.subject | ALTERNATIVE FUELS | |
dc.subject | APPROACH | |
dc.subject | AVAILABILITY | |
dc.subject | BATTERIES | |
dc.subject | BIO-DIESEL | |
dc.subject | BORDER TRAFFIC | |
dc.subject | BRIDGE | |
dc.subject | CALCULATION | |
dc.subject | CARBON | |
dc.subject | CARBON CONTENT | |
dc.subject | CARBON EMISSIONS | |
dc.subject | CARBON FOOTPRINT | |
dc.subject | CARBON FUELS | |
dc.subject | CARS | |
dc.subject | CLIMATE | |
dc.subject | CLIMATE CHANGE | |
dc.subject | CLIMATE CHANGE IMPACTS | |
dc.subject | CO | |
dc.subject | CO2 | |
dc.subject | COAL | |
dc.subject | COLORS | |
dc.subject | COMBUSTION | |
dc.subject | COMPRESSED NATURAL GAS | |
dc.subject | COST-BENEFIT | |
dc.subject | COST-BENEFIT ANALYSIS | |
dc.subject | CROSSING | |
dc.subject | DEMAND CURVE | |
dc.subject | DIESEL | |
dc.subject | DIESEL ENGINE | |
dc.subject | DIESEL ENGINE TECHNOLOGY | |
dc.subject | DIESEL ENGINES | |
dc.subject | DIESEL FUEL | |
dc.subject | DIESEL OIL | |
dc.subject | DISCOUNT RATE | |
dc.subject | DOMESTIC AVIATION | |
dc.subject | ECONOMIES OF SCALE | |
dc.subject | EFFICIENCY GAINS | |
dc.subject | EFFICIENCY IMPROVEMENTS | |
dc.subject | ELECTRIC POWER | |
dc.subject | ELECTRICITY | |
dc.subject | EMISSION | |
dc.subject | EMISSION DATA | |
dc.subject | EMISSION FACTOR | |
dc.subject | EMISSION FACTORS | |
dc.subject | EMISSION LEVEL | |
dc.subject | EMISSION LEVELS | |
dc.subject | EMISSIONS | |
dc.subject | EMISSIONS FROM TRANSPORT | |
dc.subject | ENERGY BALANCE | |
dc.subject | ENERGY CONSUMPTION | |
dc.subject | ENERGY EFFICIENCY | |
dc.subject | ENERGY EFFICIENCY IMPROVEMENTS | |
dc.subject | ENERGY SAVINGS | |
dc.subject | ENERGY SOURCES | |
dc.subject | ENVIRONMENTAL PERFORMANCE | |
dc.subject | EXHAUST EMISSIONS | |
dc.subject | EXHAUST GAS | |
dc.subject | EXHAUST GASES | |
dc.subject | EXTERNALITIES | |
dc.subject | FEASIBILITY | |
dc.subject | FERRIES | |
dc.subject | FINANCIAL ANALYSIS | |
dc.subject | FLEET STRUCTURE | |
dc.subject | FLEETS | |
dc.subject | FOSSIL | |
dc.subject | FOSSIL FUEL | |
dc.subject | FREIGHT | |
dc.subject | FREIGHT FLOWS | |
dc.subject | FREIGHT TRANSPORT | |
dc.subject | FUEL | |
dc.subject | FUEL CHAIN | |
dc.subject | FUEL CONSUMPTION | |
dc.subject | FUEL COST | |
dc.subject | FUEL COST SAVINGS | |
dc.subject | FUEL COSTS | |
dc.subject | FUEL ECONOMY | |
dc.subject | FUEL EFFICIENCY | |
dc.subject | FUEL EFFICIENCY IMPROVEMENT | |
dc.subject | FUEL EXTRACTION | |
dc.subject | FUEL PRICE | |
dc.subject | FUEL PRICE INCREASE | |
dc.subject | FUEL PRICES | |
dc.subject | FUEL SAVINGS | |
dc.subject | FUEL STORAGE | |
dc.subject | FUEL SUPPLY | |
dc.subject | FUEL TANKS | |
dc.subject | FUEL TYPE | |
dc.subject | FUEL TYPES | |
dc.subject | FUEL USE | |
dc.subject | GAS OIL | |
dc.subject | GASES | |
dc.subject | GHG | |
dc.subject | GLOBAL GREENHOUSE GAS | |
dc.subject | GREENHOUSE | |
dc.subject | GREENHOUSE GAS | |
dc.subject | GREENHOUSE GAS EMISSIONS | |
dc.subject | GREENHOUSE GAS EMISSIONS FROM TRANSPORT | |
dc.subject | HYDROGEN | |
dc.subject | IMPROVING ENERGY EFFICIENCY | |
dc.subject | INLAND WATERWAY | |
dc.subject | INLAND WATERWAY TRANSPORT | |
dc.subject | INLAND WATERWAYS | |
dc.subject | INTERNATIONAL AVIATION | |
dc.subject | INTERNATIONAL TRANSPORT | |
dc.subject | IPCC | |
dc.subject | KILOWATT-HOUR | |
dc.subject | LAND TRANSPORT | |
dc.subject | LNG | |
dc.subject | LOAD FACTOR | |
dc.subject | LOAD FACTORS | |
dc.subject | LOWER EMISSIONS | |
dc.subject | MARITIME TRANSPORT | |
dc.subject | MODAL SHARE | |
dc.subject | MODAL SHARES | |
dc.subject | MODAL SHIFT | |
dc.subject | MODAL SPLIT | |
dc.subject | MODE OF TRANSPORT | |
dc.subject | MODES OF TRANSPORT | |
dc.subject | NATURAL GAS | |
dc.subject | NEGATIVE IMPACT | |
dc.subject | NOX | |
dc.subject | OIL CRISIS | |
dc.subject | PASSENGER TRANSPORT | |
dc.subject | PASSENGERS | |
dc.subject | PM10 | |
dc.subject | POLICY MAKERS | |
dc.subject | PORT ACCESS | |
dc.subject | POWER | |
dc.subject | POWER CONSUMPTION | |
dc.subject | POWER CURVE | |
dc.subject | POWER DEMAND | |
dc.subject | POWER GENERATION | |
dc.subject | PRESENT VALUE | |
dc.subject | PRIMARY ENERGY | |
dc.subject | PROPULSION SYSTEM | |
dc.subject | RAIL | |
dc.subject | RAIL FREIGHT | |
dc.subject | RAIL NETWORKS | |
dc.subject | RAIL TRANSPORT | |
dc.subject | RAILWAY | |
dc.subject | RAILWAY LINE | |
dc.subject | RAIN | |
dc.subject | ROAD | |
dc.subject | ROAD CONGESTION | |
dc.subject | ROAD TRANSPORT | |
dc.subject | ROAD TRANSPORT EMISSIONS | |
dc.subject | ROADS | |
dc.subject | ROUTE | |
dc.subject | ROUTES | |
dc.subject | SAFETY | |
dc.subject | SENSITIVITY ANALYSES | |
dc.subject | SHALLOW WATERS | |
dc.subject | SPEEDS | |
dc.subject | TAILPIPE EMISSIONS | |
dc.subject | TAX | |
dc.subject | TAX POLICIES | |
dc.subject | TRAINS | |
dc.subject | TRANSPORT | |
dc.subject | TRANSPORT CORRIDORS | |
dc.subject | TRANSPORT COSTS | |
dc.subject | TRANSPORT DEMAND | |
dc.subject | TRANSPORT EMISSIONS | |
dc.subject | TRANSPORT MODE | |
dc.subject | TRANSPORT MODES | |
dc.subject | TRANSPORT OPERATORS | |
dc.subject | TRANSPORT RESEARCH | |
dc.subject | TRANSPORT SECTOR | |
dc.subject | TRANSPORT SECTOR EMISSIONS | |
dc.subject | TRANSPORTATION | |
dc.subject | TRIP | |
dc.subject | TRIPS | |
dc.subject | TRUCKS | |
dc.subject | TUNNEL | |
dc.subject | TYPE OF TRANSPORT | |
dc.subject | VEHICLE | |
dc.subject | VEHICLE FLEET | |
dc.subject | VEHICLE SIZE | |
dc.subject | VEHICLES | |
dc.subject | WIND | |
dc.subject | WINDS | |
dc.title | Energy Efficient Inland Water Transport in Bangladesh | en |
dc.type | Working Paper | en |
dc.type | Document de travail | fr |
dc.type | Documento de trabajo | es |
dspace.entity.type | Publication | |
okr.crossref.title | Energy Efficient Inland Water Transport in Bangladesh | |
okr.date.disclosure | 2013-10-17 | |
okr.date.doiregistration | 2025-05-05T11:42:31.674330Z | |
okr.doctype | Publications & Research::Working Paper | |
okr.doctype | Publications & Research | |
okr.docurl | http://documents.worldbank.org/curated/en/403571468209055949/Energy-efficient-Inland-Water-Transport-IWT-in-Bangladesh | |
okr.guid | 403571468209055949 | |
okr.identifier.externaldocumentum | 000333037_20131017143439 | |
okr.identifier.internaldocumentum | 18407178 | |
okr.identifier.report | 81569 | |
okr.imported | true | |
okr.language.supported | en | |
okr.pdfurl | http://documents.worldbank.org/curated/en/403571468209055949/pdf/815690WP0Trans00Box379840B00PUBLIC0.pdf | en |
okr.region.administrative | South Asia | |
okr.region.country | Bangladesh | |
okr.topic | Environment::Climate Change Mitigation and Green House Gases | |
okr.topic | Transport::Transport Economics Policy & Planning | |
okr.topic | Energy::Energy Conservation & Efficiency | |
okr.topic | Water Resources::Water and Industry | |
okr.unit | Transport Unit (TWITR) |
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