Understanding the Differences between Cookstoves
The growing interest in clean cooking, with its potential benefits for human health, environmental protection, and climate change, has prompted development specialists to reconsider the quality and performance of cook stoves. Governments, donors, and development organizations want to ensure that the cook stoves they promote meet standards that will yield the greatest possible benefits over time, when adopted and used properly. Households need to understand differences in cook stove performance if they are to select those that represent the best value for money. In this context, the report presents problems of traditional cook stoves; benefits of fuel-efficient cook stoves; potential benefits of advanced combustion cook stoves; and can cook stove performance be measured?
id |
dig-okr-1098618411 |
---|---|
record_format |
koha |
spelling |
dig-okr-10986184112021-06-14T10:18:46Z Understanding the Differences between Cookstoves Ekouevi, Koffi Freeman, Kate Kennedy Soni, Ruchi ACCESS TO ELECTRICITY AGRICULTURAL WASTE AIR AIR POLLUTION AIR QUALITY AVAILABILITY BENZENE BIOMASS BIOMASS FUELS BIOMASS GASIFIER BIOMASS STOVE BIOMASS STOVES BLACK CARBON BOTTOM LINE BURN FUEL CARBON CREDITS CARBON DIOXIDE CARBON FINANCING CARBON MONOXIDE CEMENT CHARCOAL CLEAN DEVELOPMENT CLEAN FUELS CLIMATE CLIMATE CHANGE CLIMATE CHANGE IMPACT CLIMATE CHANGE MITIGATION CLIMATE CHANGES CLIMATE SYSTEM CLOUDS CO CO2 COAL COMBUSTION COMBUSTION CHAMBER COMBUSTION CHAMBERS COMBUSTION EFFICIENCY COMBUSTION OF FUELS COOKING CORN DEFORESTATION DIESEL DUNG DUST EFFICIENT STOVES ELECTRICITY ELECTRICITY SUPPLY EMISSION EMISSION RATES EMISSION-REDUCTION EMISSIONS REDUCTIONS ENERGY DEVELOPMENT ENERGY ECONOMIST ENERGY EFFICIENCY ENERGY PRACTICE ENERGY PROJECTS ENERGY SECTOR ENERGY SYSTEMS ENERGY TECHNOLOGIES ENERGY USE ENVIRONMENTAL PROTECTION FLUE GASES FOREST FOREST RESOURCES FORMALDEHYDE FOSSIL FOSSIL FUEL FOSSIL FUEL COMBUSTION FOSSIL FUELS FUEL CONSUMPTION FUEL EFFICIENCY FUEL QUALITY FUEL REQUIREMENTS FUEL TYPE FUEL USE FUELS GAS GASES GASIFIER GENERATION GENERATION CAPACITY GREENHOUSE GREENHOUSE GASES GREENHOUSE-GAS GREENHOUSE-GAS EMISSIONS HARMFUL EMISSIONS HEALTH HAZARD HEAT HEAT TRANSFER HOT GASES HUMAN HEALTH HYDROCARBONS PARTICLES PARTICULATE PARTICULATE MATTER PARTICULATES PELLETS PETROLEUM POLLUTANTS PROPANE RENEWABLE ENERGY RENEWABLE PORTFOLIO STANDARD RENEWABLE SOURCES RICE HUSKS SMOKE SOLID FUELS SOURCE OF ELECTRICITY SUSTAINABLE DEVELOPMENT SUSTAINABLE ENERGY TEMPERATURE THERMAL EFFICIENCY UTILITIES WIND WIND POWER WIND POWER CAPACITY WOOD The growing interest in clean cooking, with its potential benefits for human health, environmental protection, and climate change, has prompted development specialists to reconsider the quality and performance of cook stoves. Governments, donors, and development organizations want to ensure that the cook stoves they promote meet standards that will yield the greatest possible benefits over time, when adopted and used properly. Households need to understand differences in cook stove performance if they are to select those that represent the best value for money. In this context, the report presents problems of traditional cook stoves; benefits of fuel-efficient cook stoves; potential benefits of advanced combustion cook stoves; and can cook stove performance be measured? 2014-05-27T20:04:07Z 2014-05-27T20:04:07Z 2014-05-15 Brief http://documents.worldbank.org/curated/en/2014/01/19539994/understanding-differences-between-cook-stoves http://hdl.handle.net/10986/18411 English en_US Live Wire, 2014/7 CC BY 3.0 IGO http://creativecommons.org/licenses/by/3.0/igo/ Washington, DC: World Bank Publications & Research :: Brief Publications & Research |
institution |
Banco Mundial |
collection |
DSpace |
country |
Estados Unidos |
countrycode |
US |
component |
Bibliográfico |
access |
En linea |
databasecode |
dig-okr |
tag |
biblioteca |
region |
America del Norte |
libraryname |
Biblioteca del Banco Mundial |
language |
English en_US |
topic |
ACCESS TO ELECTRICITY AGRICULTURAL WASTE AIR AIR POLLUTION AIR QUALITY AVAILABILITY BENZENE BIOMASS BIOMASS FUELS BIOMASS GASIFIER BIOMASS STOVE BIOMASS STOVES BLACK CARBON BOTTOM LINE BURN FUEL CARBON CREDITS CARBON DIOXIDE CARBON FINANCING CARBON MONOXIDE CEMENT CHARCOAL CLEAN DEVELOPMENT CLEAN FUELS CLIMATE CLIMATE CHANGE CLIMATE CHANGE IMPACT CLIMATE CHANGE MITIGATION CLIMATE CHANGES CLIMATE SYSTEM CLOUDS CO CO2 COAL COMBUSTION COMBUSTION CHAMBER COMBUSTION CHAMBERS COMBUSTION EFFICIENCY COMBUSTION OF FUELS COOKING CORN DEFORESTATION DIESEL DUNG DUST EFFICIENT STOVES ELECTRICITY ELECTRICITY SUPPLY EMISSION EMISSION RATES EMISSION-REDUCTION EMISSIONS REDUCTIONS ENERGY DEVELOPMENT ENERGY ECONOMIST ENERGY EFFICIENCY ENERGY PRACTICE ENERGY PROJECTS ENERGY SECTOR ENERGY SYSTEMS ENERGY TECHNOLOGIES ENERGY USE ENVIRONMENTAL PROTECTION FLUE GASES FOREST FOREST RESOURCES FORMALDEHYDE FOSSIL FOSSIL FUEL FOSSIL FUEL COMBUSTION FOSSIL FUELS FUEL CONSUMPTION FUEL EFFICIENCY FUEL QUALITY FUEL REQUIREMENTS FUEL TYPE FUEL USE FUELS GAS GASES GASIFIER GENERATION GENERATION CAPACITY GREENHOUSE GREENHOUSE GASES GREENHOUSE-GAS GREENHOUSE-GAS EMISSIONS HARMFUL EMISSIONS HEALTH HAZARD HEAT HEAT TRANSFER HOT GASES HUMAN HEALTH HYDROCARBONS PARTICLES PARTICULATE PARTICULATE MATTER PARTICULATES PELLETS PETROLEUM POLLUTANTS PROPANE RENEWABLE ENERGY RENEWABLE PORTFOLIO STANDARD RENEWABLE SOURCES RICE HUSKS SMOKE SOLID FUELS SOURCE OF ELECTRICITY SUSTAINABLE DEVELOPMENT SUSTAINABLE ENERGY TEMPERATURE THERMAL EFFICIENCY UTILITIES WIND WIND POWER WIND POWER CAPACITY WOOD ACCESS TO ELECTRICITY AGRICULTURAL WASTE AIR AIR POLLUTION AIR QUALITY AVAILABILITY BENZENE BIOMASS BIOMASS FUELS BIOMASS GASIFIER BIOMASS STOVE BIOMASS STOVES BLACK CARBON BOTTOM LINE BURN FUEL CARBON CREDITS CARBON DIOXIDE CARBON FINANCING CARBON MONOXIDE CEMENT CHARCOAL CLEAN DEVELOPMENT CLEAN FUELS CLIMATE CLIMATE CHANGE CLIMATE CHANGE IMPACT CLIMATE CHANGE MITIGATION CLIMATE CHANGES CLIMATE SYSTEM CLOUDS CO CO2 COAL COMBUSTION COMBUSTION CHAMBER COMBUSTION CHAMBERS COMBUSTION EFFICIENCY COMBUSTION OF FUELS COOKING CORN DEFORESTATION DIESEL DUNG DUST EFFICIENT STOVES ELECTRICITY ELECTRICITY SUPPLY EMISSION EMISSION RATES EMISSION-REDUCTION EMISSIONS REDUCTIONS ENERGY DEVELOPMENT ENERGY ECONOMIST ENERGY EFFICIENCY ENERGY PRACTICE ENERGY PROJECTS ENERGY SECTOR ENERGY SYSTEMS ENERGY TECHNOLOGIES ENERGY USE ENVIRONMENTAL PROTECTION FLUE GASES FOREST FOREST RESOURCES FORMALDEHYDE FOSSIL FOSSIL FUEL FOSSIL FUEL COMBUSTION FOSSIL FUELS FUEL CONSUMPTION FUEL EFFICIENCY FUEL QUALITY FUEL REQUIREMENTS FUEL TYPE FUEL USE FUELS GAS GASES GASIFIER GENERATION GENERATION CAPACITY GREENHOUSE GREENHOUSE GASES GREENHOUSE-GAS GREENHOUSE-GAS EMISSIONS HARMFUL EMISSIONS HEALTH HAZARD HEAT HEAT TRANSFER HOT GASES HUMAN HEALTH HYDROCARBONS PARTICLES PARTICULATE PARTICULATE MATTER PARTICULATES PELLETS PETROLEUM POLLUTANTS PROPANE RENEWABLE ENERGY RENEWABLE PORTFOLIO STANDARD RENEWABLE SOURCES RICE HUSKS SMOKE SOLID FUELS SOURCE OF ELECTRICITY SUSTAINABLE DEVELOPMENT SUSTAINABLE ENERGY TEMPERATURE THERMAL EFFICIENCY UTILITIES WIND WIND POWER WIND POWER CAPACITY WOOD |
spellingShingle |
ACCESS TO ELECTRICITY AGRICULTURAL WASTE AIR AIR POLLUTION AIR QUALITY AVAILABILITY BENZENE BIOMASS BIOMASS FUELS BIOMASS GASIFIER BIOMASS STOVE BIOMASS STOVES BLACK CARBON BOTTOM LINE BURN FUEL CARBON CREDITS CARBON DIOXIDE CARBON FINANCING CARBON MONOXIDE CEMENT CHARCOAL CLEAN DEVELOPMENT CLEAN FUELS CLIMATE CLIMATE CHANGE CLIMATE CHANGE IMPACT CLIMATE CHANGE MITIGATION CLIMATE CHANGES CLIMATE SYSTEM CLOUDS CO CO2 COAL COMBUSTION COMBUSTION CHAMBER COMBUSTION CHAMBERS COMBUSTION EFFICIENCY COMBUSTION OF FUELS COOKING CORN DEFORESTATION DIESEL DUNG DUST EFFICIENT STOVES ELECTRICITY ELECTRICITY SUPPLY EMISSION EMISSION RATES EMISSION-REDUCTION EMISSIONS REDUCTIONS ENERGY DEVELOPMENT ENERGY ECONOMIST ENERGY EFFICIENCY ENERGY PRACTICE ENERGY PROJECTS ENERGY SECTOR ENERGY SYSTEMS ENERGY TECHNOLOGIES ENERGY USE ENVIRONMENTAL PROTECTION FLUE GASES FOREST FOREST RESOURCES FORMALDEHYDE FOSSIL FOSSIL FUEL FOSSIL FUEL COMBUSTION FOSSIL FUELS FUEL CONSUMPTION FUEL EFFICIENCY FUEL QUALITY FUEL REQUIREMENTS FUEL TYPE FUEL USE FUELS GAS GASES GASIFIER GENERATION GENERATION CAPACITY GREENHOUSE GREENHOUSE GASES GREENHOUSE-GAS GREENHOUSE-GAS EMISSIONS HARMFUL EMISSIONS HEALTH HAZARD HEAT HEAT TRANSFER HOT GASES HUMAN HEALTH HYDROCARBONS PARTICLES PARTICULATE PARTICULATE MATTER PARTICULATES PELLETS PETROLEUM POLLUTANTS PROPANE RENEWABLE ENERGY RENEWABLE PORTFOLIO STANDARD RENEWABLE SOURCES RICE HUSKS SMOKE SOLID FUELS SOURCE OF ELECTRICITY SUSTAINABLE DEVELOPMENT SUSTAINABLE ENERGY TEMPERATURE THERMAL EFFICIENCY UTILITIES WIND WIND POWER WIND POWER CAPACITY WOOD ACCESS TO ELECTRICITY AGRICULTURAL WASTE AIR AIR POLLUTION AIR QUALITY AVAILABILITY BENZENE BIOMASS BIOMASS FUELS BIOMASS GASIFIER BIOMASS STOVE BIOMASS STOVES BLACK CARBON BOTTOM LINE BURN FUEL CARBON CREDITS CARBON DIOXIDE CARBON FINANCING CARBON MONOXIDE CEMENT CHARCOAL CLEAN DEVELOPMENT CLEAN FUELS CLIMATE CLIMATE CHANGE CLIMATE CHANGE IMPACT CLIMATE CHANGE MITIGATION CLIMATE CHANGES CLIMATE SYSTEM CLOUDS CO CO2 COAL COMBUSTION COMBUSTION CHAMBER COMBUSTION CHAMBERS COMBUSTION EFFICIENCY COMBUSTION OF FUELS COOKING CORN DEFORESTATION DIESEL DUNG DUST EFFICIENT STOVES ELECTRICITY ELECTRICITY SUPPLY EMISSION EMISSION RATES EMISSION-REDUCTION EMISSIONS REDUCTIONS ENERGY DEVELOPMENT ENERGY ECONOMIST ENERGY EFFICIENCY ENERGY PRACTICE ENERGY PROJECTS ENERGY SECTOR ENERGY SYSTEMS ENERGY TECHNOLOGIES ENERGY USE ENVIRONMENTAL PROTECTION FLUE GASES FOREST FOREST RESOURCES FORMALDEHYDE FOSSIL FOSSIL FUEL FOSSIL FUEL COMBUSTION FOSSIL FUELS FUEL CONSUMPTION FUEL EFFICIENCY FUEL QUALITY FUEL REQUIREMENTS FUEL TYPE FUEL USE FUELS GAS GASES GASIFIER GENERATION GENERATION CAPACITY GREENHOUSE GREENHOUSE GASES GREENHOUSE-GAS GREENHOUSE-GAS EMISSIONS HARMFUL EMISSIONS HEALTH HAZARD HEAT HEAT TRANSFER HOT GASES HUMAN HEALTH HYDROCARBONS PARTICLES PARTICULATE PARTICULATE MATTER PARTICULATES PELLETS PETROLEUM POLLUTANTS PROPANE RENEWABLE ENERGY RENEWABLE PORTFOLIO STANDARD RENEWABLE SOURCES RICE HUSKS SMOKE SOLID FUELS SOURCE OF ELECTRICITY SUSTAINABLE DEVELOPMENT SUSTAINABLE ENERGY TEMPERATURE THERMAL EFFICIENCY UTILITIES WIND WIND POWER WIND POWER CAPACITY WOOD Ekouevi, Koffi Freeman, Kate Kennedy Soni, Ruchi Understanding the Differences between Cookstoves |
description |
The growing interest in clean cooking,
with its potential benefits for human health, environmental
protection, and climate change, has prompted development
specialists to reconsider the quality and performance of
cook stoves. Governments, donors, and development
organizations want to ensure that the cook stoves they
promote meet standards that will yield the greatest possible
benefits over time, when adopted and used properly.
Households need to understand differences in cook stove
performance if they are to select those that represent the
best value for money. In this context, the report presents
problems of traditional cook stoves; benefits of
fuel-efficient cook stoves; potential benefits of advanced
combustion cook stoves; and can cook stove performance be measured? |
format |
Brief |
topic_facet |
ACCESS TO ELECTRICITY AGRICULTURAL WASTE AIR AIR POLLUTION AIR QUALITY AVAILABILITY BENZENE BIOMASS BIOMASS FUELS BIOMASS GASIFIER BIOMASS STOVE BIOMASS STOVES BLACK CARBON BOTTOM LINE BURN FUEL CARBON CREDITS CARBON DIOXIDE CARBON FINANCING CARBON MONOXIDE CEMENT CHARCOAL CLEAN DEVELOPMENT CLEAN FUELS CLIMATE CLIMATE CHANGE CLIMATE CHANGE IMPACT CLIMATE CHANGE MITIGATION CLIMATE CHANGES CLIMATE SYSTEM CLOUDS CO CO2 COAL COMBUSTION COMBUSTION CHAMBER COMBUSTION CHAMBERS COMBUSTION EFFICIENCY COMBUSTION OF FUELS COOKING CORN DEFORESTATION DIESEL DUNG DUST EFFICIENT STOVES ELECTRICITY ELECTRICITY SUPPLY EMISSION EMISSION RATES EMISSION-REDUCTION EMISSIONS REDUCTIONS ENERGY DEVELOPMENT ENERGY ECONOMIST ENERGY EFFICIENCY ENERGY PRACTICE ENERGY PROJECTS ENERGY SECTOR ENERGY SYSTEMS ENERGY TECHNOLOGIES ENERGY USE ENVIRONMENTAL PROTECTION FLUE GASES FOREST FOREST RESOURCES FORMALDEHYDE FOSSIL FOSSIL FUEL FOSSIL FUEL COMBUSTION FOSSIL FUELS FUEL CONSUMPTION FUEL EFFICIENCY FUEL QUALITY FUEL REQUIREMENTS FUEL TYPE FUEL USE FUELS GAS GASES GASIFIER GENERATION GENERATION CAPACITY GREENHOUSE GREENHOUSE GASES GREENHOUSE-GAS GREENHOUSE-GAS EMISSIONS HARMFUL EMISSIONS HEALTH HAZARD HEAT HEAT TRANSFER HOT GASES HUMAN HEALTH HYDROCARBONS PARTICLES PARTICULATE PARTICULATE MATTER PARTICULATES PELLETS PETROLEUM POLLUTANTS PROPANE RENEWABLE ENERGY RENEWABLE PORTFOLIO STANDARD RENEWABLE SOURCES RICE HUSKS SMOKE SOLID FUELS SOURCE OF ELECTRICITY SUSTAINABLE DEVELOPMENT SUSTAINABLE ENERGY TEMPERATURE THERMAL EFFICIENCY UTILITIES WIND WIND POWER WIND POWER CAPACITY WOOD |
author |
Ekouevi, Koffi Freeman, Kate Kennedy Soni, Ruchi |
author_facet |
Ekouevi, Koffi Freeman, Kate Kennedy Soni, Ruchi |
author_sort |
Ekouevi, Koffi |
title |
Understanding the Differences between Cookstoves |
title_short |
Understanding the Differences between Cookstoves |
title_full |
Understanding the Differences between Cookstoves |
title_fullStr |
Understanding the Differences between Cookstoves |
title_full_unstemmed |
Understanding the Differences between Cookstoves |
title_sort |
understanding the differences between cookstoves |
publisher |
Washington, DC: World Bank |
publishDate |
2014-05-15 |
url |
http://documents.worldbank.org/curated/en/2014/01/19539994/understanding-differences-between-cook-stoves http://hdl.handle.net/10986/18411 |
work_keys_str_mv |
AT ekouevikoffi understandingthedifferencesbetweencookstoves AT freemankatekennedy understandingthedifferencesbetweencookstoves AT soniruchi understandingthedifferencesbetweencookstoves |
_version_ |
1756573594342653952 |