India : Energy-Efficient Street Lighting--Implementation and Financing Solutions
There has been a clear need for energy-efficient (EE) technologies that can be applicable in the municipal street lighting sector. The objective of this manual is to support the preparation and implementation of street lighting projects in India, u...
Main Author: | |
---|---|
Format: | Report |
Language: | English en_US |
Published: |
Washington, DC
2015
|
Subjects: | |
Online Access: | http://documents.worldbank.org/curated/en/2015/06/24724149/india-energy-efficient-street-lighting-implementation-financing-solutions http://hdl.handle.net/10986/22275 |
id |
okr-10986-22275 |
---|---|
recordtype |
oai_dc |
repository_type |
Digital Repository |
institution_category |
Foreign Institution |
institution |
Digital Repositories |
building |
World Bank Open Knowledge Repository |
collection |
World Bank |
language |
English en_US |
topic |
PUBLIC UTILITIES UTILITY BILL CARBON DIOXIDE ESP KILOWATT-HOUR QUALITY ENERGY GREENHOUSE GAS EMISSIONS ELECTRICITY TARIFF BUILDING MATERIALS TRAFFIC DENSITY VEHICLES ACTIVITIES ENERGY COST SAVINGS GENERATION COLLECTION SYSTEM LOCAL TRAFFIC WIND CLEAN ENERGY EMISSIONS COLLECTION METHODS ENERGY PRODUCTS ROADWAY GAS RENEWABLE ENERGY PRODUCTS COMPACT FLUORESCENT LAMPS TRAFFIC SAFETY STANDARDS PRICE EFFICIENCY IMPROVEMENT PEAK DEMAND RESIDENTIAL APPLICATIONS VOLTAGE ROUTES AIRPORTS DISTRIBUTION OF ELECTRICITY RENEWABLE ENERGY PRODUCT CONSUMPTION OF POWER GREENHOUSE GAS ELECTRICITY CONSUMPTION DRIVERS ELECTRIC UTILITY STREET LIGHTING PETROLEUM ENERGY POLICIES OIL PRICES ROAD EFFICIENCY IMPROVEMENTS COSTS PEDESTRIAN TRAFFIC OIL TRAINING EFFICIENT LIGHTING TRANSPORT ENERGY SOURCES SUSTAINABLE ENERGY POWER SECTOR ENERGY REQUIREMENTS RAW MATERIALS PETROLEUM EXPORTING COUNTRIES ENERGY SUPPLY PHOTOVOLTAIC APPLICATIONS PEAK HOURS OPTIONS WATER ROAD USERS ENERGY RESOURCES ENERGY AUDIT ELECTRICITY SUPPLY HIGH ENERGY POLLUTION APPLIANCE STANDARDS GAS EMISSIONS MODAL SHIFT CARBON EMISSIONS INFRASTRUCTURE EMISSIONS REDUCTIONS ENERGY SAVINGS TRAFFIC CONTROL ENERGY CONSUMPTION EMISSION INITIATIVES MINOR STREETS CONVENTIONAL LIGHTING HEAT POLICIES CLIMATE CHANGE BALANCE UTILITIES FLUORESCENT LAMPS POWER ELECTRICITY ENVIRONMENTAL IMPACTS ARTERIAL ROADS UTILITY PAYMENTS CITY STREETS HEAT RESISTANT PUBLIC TRANSPORT ELECTRICITY TARIFFS VEHICULAR TRAFFIC VALUE OF ENERGY SIGNALS ENERGY BILLS ENERGY USE ELECTRIC BILLS STREETS PILOT PROJECTS OM ROADS ENERGY EFFICIENCY ENERGY DEMAND ENERGY SYSTEMS RAILWAYS CARBON DIOXIDE EMISSION POWER CONSUMPTION ENERGY CONSERVATION INVESTMENT SOLAR LANTERNS ENERGY DEVELOPMENT ACCIDENTS PEAK VALUE PEDESTRIAN TARIFF ENERGY MANAGEMENT FATALITIES FUEL CARBON FINANCING AVAILABILITY FACILITIES URBAN STREET INVESTMENTS PEAK TRAFFIC PEDESTRIANS SODIUM RENEWABLE ENERGY ELECTRICITY DISTRIBUTION NOISE ROAD TRANSPORT SAFETY ENERGY USAGE ENERGY COSTS FUEL COST PRICES APPROACH ELECTRICAL POWER AMBIENT TEMPERATURE STREETLIGHTS OPEN CIRCUIT VOLTAGE ROAD TRAFFIC ENERGY |
spellingShingle |
PUBLIC UTILITIES UTILITY BILL CARBON DIOXIDE ESP KILOWATT-HOUR QUALITY ENERGY GREENHOUSE GAS EMISSIONS ELECTRICITY TARIFF BUILDING MATERIALS TRAFFIC DENSITY VEHICLES ACTIVITIES ENERGY COST SAVINGS GENERATION COLLECTION SYSTEM LOCAL TRAFFIC WIND CLEAN ENERGY EMISSIONS COLLECTION METHODS ENERGY PRODUCTS ROADWAY GAS RENEWABLE ENERGY PRODUCTS COMPACT FLUORESCENT LAMPS TRAFFIC SAFETY STANDARDS PRICE EFFICIENCY IMPROVEMENT PEAK DEMAND RESIDENTIAL APPLICATIONS VOLTAGE ROUTES AIRPORTS DISTRIBUTION OF ELECTRICITY RENEWABLE ENERGY PRODUCT CONSUMPTION OF POWER GREENHOUSE GAS ELECTRICITY CONSUMPTION DRIVERS ELECTRIC UTILITY STREET LIGHTING PETROLEUM ENERGY POLICIES OIL PRICES ROAD EFFICIENCY IMPROVEMENTS COSTS PEDESTRIAN TRAFFIC OIL TRAINING EFFICIENT LIGHTING TRANSPORT ENERGY SOURCES SUSTAINABLE ENERGY POWER SECTOR ENERGY REQUIREMENTS RAW MATERIALS PETROLEUM EXPORTING COUNTRIES ENERGY SUPPLY PHOTOVOLTAIC APPLICATIONS PEAK HOURS OPTIONS WATER ROAD USERS ENERGY RESOURCES ENERGY AUDIT ELECTRICITY SUPPLY HIGH ENERGY POLLUTION APPLIANCE STANDARDS GAS EMISSIONS MODAL SHIFT CARBON EMISSIONS INFRASTRUCTURE EMISSIONS REDUCTIONS ENERGY SAVINGS TRAFFIC CONTROL ENERGY CONSUMPTION EMISSION INITIATIVES MINOR STREETS CONVENTIONAL LIGHTING HEAT POLICIES CLIMATE CHANGE BALANCE UTILITIES FLUORESCENT LAMPS POWER ELECTRICITY ENVIRONMENTAL IMPACTS ARTERIAL ROADS UTILITY PAYMENTS CITY STREETS HEAT RESISTANT PUBLIC TRANSPORT ELECTRICITY TARIFFS VEHICULAR TRAFFIC VALUE OF ENERGY SIGNALS ENERGY BILLS ENERGY USE ELECTRIC BILLS STREETS PILOT PROJECTS OM ROADS ENERGY EFFICIENCY ENERGY DEMAND ENERGY SYSTEMS RAILWAYS CARBON DIOXIDE EMISSION POWER CONSUMPTION ENERGY CONSERVATION INVESTMENT SOLAR LANTERNS ENERGY DEVELOPMENT ACCIDENTS PEAK VALUE PEDESTRIAN TARIFF ENERGY MANAGEMENT FATALITIES FUEL CARBON FINANCING AVAILABILITY FACILITIES URBAN STREET INVESTMENTS PEAK TRAFFIC PEDESTRIANS SODIUM RENEWABLE ENERGY ELECTRICITY DISTRIBUTION NOISE ROAD TRANSPORT SAFETY ENERGY USAGE ENERGY COSTS FUEL COST PRICES APPROACH ELECTRICAL POWER AMBIENT TEMPERATURE STREETLIGHTS OPEN CIRCUIT VOLTAGE ROAD TRAFFIC ENERGY World Bank India : Energy-Efficient Street Lighting--Implementation and Financing Solutions |
geographic_facet |
South Asia India |
description |
There has been a clear need for
energy-efficient (EE) technologies that can be applicable in
the municipal street lighting sector. The objective of this
manual is to support the preparation and implementation of
street lighting projects in India, using performance
contracting and other public private partnership-based
delivery approaches. This manual draws upon global best
practices, including practices that have been tried and
presented within India and South Asia; and draws from their
failures and successes to document the major lessons
learned. The manual provides a brief overall background of
EE in India, the kind of barriers faced in the
implementation of EE projects, and the kind of prevalent
policy environment for EE in the country. The manual is
divided into eight sections. Section one provides an
overview of EE street lighting, its components, Indian
standards for outdoor lighting, the key lamp technologies,
and the potential for intelligent street lighting systems.
Section two highlights the financial models for
implementation of street lighting projects. Section three
describes the essentials of undertaking a detailed energy
audit to develop robust baselines. Section four focuses on
procurement and contracting. Section five describes
methodologies for developing monitoring and verification (M
and V) protocols for EE Street lighting projects. Section
six brings together the useful tools and matrices in
implementation of street lighting projects. Section seven
lists the key stakeholders involved in India in such
projects and their potential role. Section eight provides
details on international and Indian case studies on
implementing EE in street lighting and key lessons from
these case examples. |
format |
Report |
author |
World Bank |
author_facet |
World Bank |
author_sort |
World Bank |
title |
India : Energy-Efficient Street Lighting--Implementation and Financing Solutions |
title_short |
India : Energy-Efficient Street Lighting--Implementation and Financing Solutions |
title_full |
India : Energy-Efficient Street Lighting--Implementation and Financing Solutions |
title_fullStr |
India : Energy-Efficient Street Lighting--Implementation and Financing Solutions |
title_full_unstemmed |
India : Energy-Efficient Street Lighting--Implementation and Financing Solutions |
title_sort |
india : energy-efficient street lighting--implementation and financing solutions |
publisher |
Washington, DC |
publishDate |
2015 |
url |
http://documents.worldbank.org/curated/en/2015/06/24724149/india-energy-efficient-street-lighting-implementation-financing-solutions http://hdl.handle.net/10986/22275 |
_version_ |
1764450681834438656 |
spelling |
okr-10986-222752021-04-23T14:04:08Z India : Energy-Efficient Street Lighting--Implementation and Financing Solutions World Bank PUBLIC UTILITIES UTILITY BILL CARBON DIOXIDE ESP KILOWATT-HOUR QUALITY ENERGY GREENHOUSE GAS EMISSIONS ELECTRICITY TARIFF BUILDING MATERIALS TRAFFIC DENSITY VEHICLES ACTIVITIES ENERGY COST SAVINGS GENERATION COLLECTION SYSTEM LOCAL TRAFFIC WIND CLEAN ENERGY EMISSIONS COLLECTION METHODS ENERGY PRODUCTS ROADWAY GAS RENEWABLE ENERGY PRODUCTS COMPACT FLUORESCENT LAMPS TRAFFIC SAFETY STANDARDS PRICE EFFICIENCY IMPROVEMENT PEAK DEMAND RESIDENTIAL APPLICATIONS VOLTAGE ROUTES AIRPORTS DISTRIBUTION OF ELECTRICITY RENEWABLE ENERGY PRODUCT CONSUMPTION OF POWER GREENHOUSE GAS ELECTRICITY CONSUMPTION DRIVERS ELECTRIC UTILITY STREET LIGHTING PETROLEUM ENERGY POLICIES OIL PRICES ROAD EFFICIENCY IMPROVEMENTS COSTS PEDESTRIAN TRAFFIC OIL TRAINING EFFICIENT LIGHTING TRANSPORT ENERGY SOURCES SUSTAINABLE ENERGY POWER SECTOR ENERGY REQUIREMENTS RAW MATERIALS PETROLEUM EXPORTING COUNTRIES ENERGY SUPPLY PHOTOVOLTAIC APPLICATIONS PEAK HOURS OPTIONS WATER ROAD USERS ENERGY RESOURCES ENERGY AUDIT ELECTRICITY SUPPLY HIGH ENERGY POLLUTION APPLIANCE STANDARDS GAS EMISSIONS MODAL SHIFT CARBON EMISSIONS INFRASTRUCTURE EMISSIONS REDUCTIONS ENERGY SAVINGS TRAFFIC CONTROL ENERGY CONSUMPTION EMISSION INITIATIVES MINOR STREETS CONVENTIONAL LIGHTING HEAT POLICIES CLIMATE CHANGE BALANCE UTILITIES FLUORESCENT LAMPS POWER ELECTRICITY ENVIRONMENTAL IMPACTS ARTERIAL ROADS UTILITY PAYMENTS CITY STREETS HEAT RESISTANT PUBLIC TRANSPORT ELECTRICITY TARIFFS VEHICULAR TRAFFIC VALUE OF ENERGY SIGNALS ENERGY BILLS ENERGY USE ELECTRIC BILLS STREETS PILOT PROJECTS OM ROADS ENERGY EFFICIENCY ENERGY DEMAND ENERGY SYSTEMS RAILWAYS CARBON DIOXIDE EMISSION POWER CONSUMPTION ENERGY CONSERVATION INVESTMENT SOLAR LANTERNS ENERGY DEVELOPMENT ACCIDENTS PEAK VALUE PEDESTRIAN TARIFF ENERGY MANAGEMENT FATALITIES FUEL CARBON FINANCING AVAILABILITY FACILITIES URBAN STREET INVESTMENTS PEAK TRAFFIC PEDESTRIANS SODIUM RENEWABLE ENERGY ELECTRICITY DISTRIBUTION NOISE ROAD TRANSPORT SAFETY ENERGY USAGE ENERGY COSTS FUEL COST PRICES APPROACH ELECTRICAL POWER AMBIENT TEMPERATURE STREETLIGHTS OPEN CIRCUIT VOLTAGE ROAD TRAFFIC ENERGY There has been a clear need for energy-efficient (EE) technologies that can be applicable in the municipal street lighting sector. The objective of this manual is to support the preparation and implementation of street lighting projects in India, using performance contracting and other public private partnership-based delivery approaches. This manual draws upon global best practices, including practices that have been tried and presented within India and South Asia; and draws from their failures and successes to document the major lessons learned. The manual provides a brief overall background of EE in India, the kind of barriers faced in the implementation of EE projects, and the kind of prevalent policy environment for EE in the country. The manual is divided into eight sections. Section one provides an overview of EE street lighting, its components, Indian standards for outdoor lighting, the key lamp technologies, and the potential for intelligent street lighting systems. Section two highlights the financial models for implementation of street lighting projects. Section three describes the essentials of undertaking a detailed energy audit to develop robust baselines. Section four focuses on procurement and contracting. Section five describes methodologies for developing monitoring and verification (M and V) protocols for EE Street lighting projects. Section six brings together the useful tools and matrices in implementation of street lighting projects. Section seven lists the key stakeholders involved in India in such projects and their potential role. Section eight provides details on international and Indian case studies on implementing EE in street lighting and key lessons from these case examples. 2015-07-21T22:10:29Z 2015-07-21T22:10:29Z 2015-06 Report http://documents.worldbank.org/curated/en/2015/06/24724149/india-energy-efficient-street-lighting-implementation-financing-solutions http://hdl.handle.net/10986/22275 English en_US CC BY 3.0 IGO http://creativecommons.org/licenses/by/3.0/igo/ World Bank Washington, DC Economic & Sector Work Economic & Sector Work :: Energy Study South Asia India |