Navigant Research » Research http://www.navigantresearch.com Thu, 31 Jul 2014 21:11:59 +0000 en-US hourly 1 http://wordpress.org/?v=3.8.1 Wireless Control Systems for Smart Buildings http://www.navigantresearch.com/research/wireless-control-systems-for-smart-buildings http://www.navigantresearch.com/research/wireless-control-systems-for-smart-buildings#comments Thu, 31 Jul 2014 18:48:18 +0000 http://www.navigantresearch.com/?p=68030 Smart Buildings
While building automation and controls have been used for decades, wireless is becoming the catalyst for enabling more granular and immediate control over building systems. Wireless controls offer economic benefits due to the savings in labor costs for installation and maintenance compared with wired systems. The ability to install sensors and devices in buildings that [...]]]>
Smart Buildings

While building automation and controls have been used for decades, wireless is becoming the catalyst for enabling more granular and immediate control over building systems. Wireless controls offer economic benefits due to the savings in labor costs for installation and maintenance compared with wired systems. The ability to install sensors and devices in buildings that cannot easily be torn apart to put in wiring (such as historical buildings) provides savings in costs, as well.

Wireless controls can be used to link devices found in a variety of building systems, including heating, ventilation, and air conditioning (HVAC), lighting, fire & life safety, and security & access. The use of wireless local networks in consumer and commercial environments has increased dramatically over the past decade. In particular, Wi-Fi technology has enabled users who found traditional networking too costly or complicated to quickly connect existing devices. Yet, although many proponents of wireless technology cite the advantage of being able to easily position and reposition devices, building owners and managers remain skeptical about reliability and security. Navigant Research forecasts that global revenue from wireless nodes for building controls will grow from $84.8 million in 2013 to $434.0 million in 2023.

This Navigant Research report examines the state of the global wireless building controls industry with a focus on commercial buildings and four system types: HVAC, lighting, fire & life safety, and security & access. The study provides an analysis of the market drivers and opportunities, as well as technical challenges, related to wireless building controls. Global market forecasts for wireless node unit shipments and revenue, broken out by region, wireless technology, system, and device, extend through 2023. The report also examines the development of both propriety and standards-based wireless technologies and provides profiles of key industry players, including lighting controls vendors, wireless controls solutions providers, and enabling technology suppliers.

Key Questions Addressed:
  • How many wireless nodes will be deployed in the global wireless building controls market through 2023?
  • How will annual unit shipments of wireless nodes vary by region, wireless technology, and system and device type?
  • What types of devices are likely to be wireless?
  • Which building functions or applications will benefit the most from wireless controls?
  • What are the primary wireless technologies used in wireless building controls installations around the world?
Who needs this report?
  • Building controls integrators
  • Wireless controls vendors
  • Wired building controls manufacturers
  • Building energy management system providers
  • Commercial building managers and operators
  • Industry associations
  • Investor community

Table of Contents

1. Executive Summary

1.1  Wireless Building Controls

1.2  Market Drivers

1.3  Key Technologies

1.4  Opportunities and Challenges

2. Market Issues  

2.1  Overview of Wireless Building Controls

2.2  Market Drivers for Wireless Building Controls

2.2.1   Cost Considerations

   2.2.1.1  Wireless Module Costs

   2.2.1.2  Labor Costs for Pulling Wire

   2.2.1.3  Copper

   2.2.1.4  Operational Disruptions

   2.2.1.5  Technical Support Costs

   2.2.1.6  Cost Analysis of Wired and Wireless Deployments

2.2.2   Flexibility

2.2.3   Layout and Space Design Considerations

2.2.4   Productivity Considerations

2.2.5   Adherence to Building Codes and Green Certifications

   2.2.5.1  California Code of Regulations, Title 24

   2.2.5.2  ANSI/ASHRAE/IES Standard 90.1

2.2.6   New Buildings versus Retrofits

   2.2.6.1  New Buildings

   2.2.6.2  Building Retrofits

      2.2.6.2.1.  Use in Historical Structures or Challenging Installation Environments

2.2.7   Reduction of Maintenance and Operational Costs

2.2.8   Security

2.3  Market Opportunities for Wireless Building Controls

2.3.1   Current Utilization Levels and Scenarios

   2.3.1.1  HVAC

   2.3.1.2  Lighting

   2.3.1.3  Fire & Life Safety

   2.3.1.4  Security & Access Control

2.4  Technical Challenges

2.5  Environmental Considerations

2.6  Future Utilization

2.7  Changes in Wireless Supplier Landscape

3. Technology Issues

3.1  Building Controls Architectures Overview

3.1.1   BASs

3.1.2   BMSs

3.2  Types of Automation Protocols

3.2.1   BACnet

3.2.2   LonWorks

3.2.3   KNX

3.2.4   DALI

3.2.5   Modbus

3.2.6   oBIX

3.2.7   Metasys N2

3.3  Proprietary versus Open Standards

3.3.1    Evolution toward IP Networking

3.3.1.1     Potential IP Standard

3.4  Types of Wireless Communications Architectures and Designs

3.4.1   Point-to-Point

3.4.2   Point-to-Multipoint

3.4.3   Mesh

3.5  Technology Considerations

3.5.1   Data Throughput

3.5.2   Transmit Power and Range

3.5.3   Frequency Ranges

3.5.4   Security

3.5.5   Configurability

3.5.6   Interference with Other Systems

3.5.7   Reliability

3.5.8   Power Consumption

3.5.9   Energy Harvesting Capabilities

3.6  Wireless Technologies Not Suitable for Commercial Building Controls

3.7  Wireless Communications Technologies for Smart Buildings

3.7.1   Sub-GHz Proprietary Solutions

3.7.2   ZigBee

   3.7.2.1  Technology

   3.7.2.2  ZigBee Device Types

   3.7.2.3  Power Consumption

   3.7.2.4  ZigBee Application Profiles

      3.7.2.4.1.   ZBA

   3.7.2.5  ZigBee PRO and Green Power

   3.7.2.6  ZigBee IP

3.7.3   EnOcean

   3.7.3.1  Technology

3.7.4   Wi-Fi

   3.7.4.1  Technology

   3.7.4.2  Challenges

3.7.5   Z-Wave

3.7.6   Bluetooth

3.8  Embedded Modules Controls

3.9  Typical Configuration Scenarios

3.9.1   Separate Systems Using Gateways

3.9.2   Fully Integrated and Interoperable

3.10  Emerging Wireless Technology

4. Key Industry Players 

4.1  Overview

4.2  Leading Wireless Lighting Controls Vendors

4.2.1   Acuity Brands, Inc.

4.2.2   Leviton Manufacturing Co., Inc.

4.2.3   Lutron Electronics Co., Inc.

4.2.4   WattStopper

4.3  Leading Global Equipment and Service Providers

4.3.1   Honeywell International Inc.

4.3.2   Johnson Controls, Inc.

4.3.3   Schneider Electric SA

4.3.4   Siemens Building Technologies

4.3.5   Trane

4.4  Selected Lighting Controls Solutions Providers

4.4.1   Crestron Electronics

4.4.2   Daintree Networks, Inc.

4.4.3   Digital Lumens Inc.

4.4.4   Electronic Theatre Controls, Inc.

4.4.5   Enlighted Inc.

4.4.6   GE Total Lighting Control

4.4.7   Hubbell Building Automation

4.4.8   OSRAM GmbH

4.5  Selected Wireless Controls Providers

4.5.1   Echoflex Solutions

4.5.2   Seldera

4.5.3   Thermokon Sensortechnik

4.5.4   WEMS International

4.6  Enabling Technology Suppliers

4.6.1   EnOcean GmbH

4.6.2   Freescale Semiconductor

4.6.3   GainSpan

4.6.4   NXP Semiconductors (Jennic)

4.6.5   Silicon Laboratories, Inc.

4.7  Industry Associations

5. Market Forecasts 

5.1  Forecast Methodology

5.2  Forecast Assumptions

5.3  Worldwide Forecasts

5.4  North America Forecasts

5.5  Europe Forecasts

5.6  Asia Pacific Forecasts

5.7  Rest of World Forecasts

5.8  Conclusions and Recommendations

6. Company Directory
7. Acronym and Abbreviation List
8. Table of Contents
9. Table of Charts and Figures
10. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • Wireless Node Revenue by System Type, World Markets: 2013-2023
  • Historical Copper Production and Reserves, World Markets: 2004-2013
  • Wireless Node Unit Shipments by System Type, World Markets: 2013-2023
  • Wireless Node Revenue by Region, World Markets: 2013-2023
  • Wireless HVAC Node Unit Shipments by Wireless Technology, World Markets: 2013-2023
  • Wireless Lighting Node Unit Shipments by Wireless Technology, World Markets: 2013-2023
  • Wireless Fire & Life Safety Node Unit Shipments by Wireless Technology, World Markets: 2013-2023
  • Wireless Security & Access Node Unit Shipments by Wireless Technology, World Markets: 2013-2023
  • Wireless Node Unit Shipments by System Type, North America: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, North America: 2013-2023
  • Wireless Node Revenue by Wireless Technology, North America: 2013-2023
  • Wireless Node Unit Shipments by System Type, Europe: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, Europe: 2013-2023
  • Wireless Node Revenue by Wireless Technology, Europe: 2013-2023
  • Wireless Node Unit Shipments by System Type, Asia Pacific: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, Asia Pacific: 2013-2023
  • Wireless Node Revenue by Wireless Technology, Asia Pacific: 2013-2023
  • Wireless Node Unit Shipments by System Type, Rest of World: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, Rest of World: 2013-2023
  • Wireless Node Revenue by Wireless Technology, Rest of World: 2013-2023
  • Meredith College Sensor and Control System Quotes
  • Example HVAC BAS Components
  • Schematic of System Definitions
  • Building Control Networking Layer Comparison
  • BACnet Collapsed Architecture
  • Modbus Protocol Stack
  • IP Stack Overview
  • Standard Network Star Topology
  • ZigBee Network Topology
  • Leviton EnOcean-Powered Wireless Occupancy Sensor
  • Wireless Configuration Scenarios

List of Tables

  • Frequency Ranges Used in Building Wireless Systems
  • Comparison of Wireless Communications Protocols
  • Acuity Brands SWOT Analysis
  • Leviton SWOT Analysis
  • Lutron SWOT Analysis
  • WattStopper SWOT Analysis
  • Industry Associations
  • Wireless Node Unit Shipments by Region, World Markets: 2013-2023
  • Wireless Node Revenue by Region, World Markets: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology and System Type, World Markets: 2013-2023
  • Wireless Node Revenue by Wireless Technology and System Type, World Markets: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, World Markets: 2013-2023
  • Wireless Node Revenue by Wireless Technology, World Markets: 2013-2023
  • Wireless Controls Penetration Rate by Region, World Markets: 2013-2023
  • Wireless Node Unit Shipments by System Type, North America: 2013-2023
  • Wireless Node Unit Shipments by Device Type and System Type, North America: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology and System Type, North America: 2013-2023
  • Wireless Node Unit Revenue by Wireless Technology and System Type, North America: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, North America: 2013-2023
  • Wireless Node Revenue by Wireless Technology, North America: 2013-2023
  • Wireless Node Unit Shipments by System Type, Europe: 2013-2023
  • Wireless Node Unit Shipments by Device Type and System Type, Europe: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology and System Type, Europe: 2013-2023
  • Wireless Node Unit Revenue by Wireless Technology and System Type, Europe: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, Europe: 2013-2023
  • Wireless Node Revenue by Wireless Technology, Europe: 2013-2023
  • Wireless Node Unit Shipments by System Type, Asia Pacific: 2013-2023
  • Wireless Node Unit Shipments by Device Type and System Type, Asia Pacific: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology and System Type, Asia Pacific: 2013-2023
  • Wireless Node Unit Revenue by Wireless Technology and System Type, Asia Pacific: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, Asia Pacific: 2013-2023
  • Wireless Node Revenue by Wireless Technology, Asia Pacific: 2013-2023
  • Wireless Node Unit Shipments by System Type, Rest of World: 2013-2023
  • Wireless Node Unit Shipments by Device Type and System Type, Rest of World: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology and System Type, Rest of World: 2013-2023
  • Wireless Node Unit Revenue by Wireless Technology and System Type, Rest of World: 2013-2023
  • Wireless Node Unit Shipments by Wireless Technology, Rest of World: 2013-2023
  • Wireless Node Revenue by Wireless Technology, Rest of World: 2013-2023
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Transportation Forecast: Global Fuel Consumption http://www.navigantresearch.com/research/transportation-forecast-global-fuel-consumption http://www.navigantresearch.com/research/transportation-forecast-global-fuel-consumption#comments Fri, 25 Jul 2014 16:55:33 +0000 http://www.navigantresearch.com/?p=67902 Transportation Forecast
Reducing the transportation sector’s dependence on oil has long been a policy goal of governments globally. The sector’s overwhelming dependence on the resource results in major costs that affect energy security, environmental security, and economic stability for nations globally. More than 1.2 billion vehicles are on the world’s roads today, with nearly 98% being powered [...]]]>
Transportation Forecast

Reducing the transportation sector’s dependence on oil has long been a policy goal of governments globally. The sector’s overwhelming dependence on the resource results in major costs that affect energy security, environmental security, and economic stability for nations globally. More than 1.2 billion vehicles are on the world’s roads today, with nearly 98% being powered by blends of gasoline or diesel. Governments have initiated a number of policies aimed at reducing oil consumption, including subsidizing alternative fuels and alternative fuel vehicles (AFVs), biofuels mandates, and higher fuel economy requirements for new vehicles.

Markets for both vehicles and fuels have gradually begun to respond to these government programs, and alternative fuels are beginning to have an impact on global oil demand. The shape and form of road transportation alternative fuels markets vary by region, largely influenced by government regulations, local resources, infrastructure, and fuel prices. For instance, markets for liquefied petroleum gas (LPG) are particularly strong in Eastern Europe, Turkey, and South Korea, but relatively mute elsewhere. As such, no one alternative fuel has been pinpointed as the perfect alternative fuel solution. Navigant Research forecasts that annual energy consumption in the global road transportation sector will grow from 81.1 quadrillion Btu in 2014 to 101.7 quadrillion Btu in 2035.

This Navigant Research report analyzes the global road transportation fuels market by alternative fuel and vehicle segment (light duty vehicles and medium and heavy duty vehicles). Analysis and data are provided for the following fuels: gasoline, diesel, ethanol, biodiesel, drop-in biofuels, natural gas, LPG, electricity, and hydrogen. Global market forecasts for energy, oil, and fuel consumption, segmented by country and vehicle segment, extend through 2035.

Key Questions Addressed:
  • What is the overall impact of alternative fuels and alternative fuel vehicles on the global fuels supply and market?
  • What impact are advances in vehicle fuel economy having on the conventional fuels (gasoline and diesel) supply and markets?
  • What are the fastest-growing alternative fuels by region?
  • What are the major factors and variables in assessing demand for road transportation fuels?
  • What are the market drivers and challenges for each fuel type?
Who needs this report?
  • Utilities
  • Electric vehicle supply equipment (EVSE) providers and manufacturers
  • Oil & gas companies
  • Biofuels producers
  • Natural gas and hydrogen infrastructure developers
  • Battery suppliers
  • Government agencies
  • Investor community

Table of Contents

1. Executive Summary

1.1  Market Overview

1.2  Scope

1.3  Market Forecasts

2. Market Forecasts

2.1  Introduction

2.2  Methodology

2.2.1   Major Variables

   2.2.1.1  Fuel Price

   2.2.1.2  VMT

   2.2.1.3  Fuel Economy

   2.2.1.4  Biofuels Penetration

2.2.2   Conversions

2.3  Oil

2.4  Gasoline

2.5  Diesel

2.6  Biofuels

2.6.1   Ethanol

2.6.2   Biodiesel

2.6.3   Drop-In

2.7  Natural Gas

2.8  LPG

2.9  Electricity

2.10 Hydrogen

2.11 Conclusions and Recommendations

3. Acronym and Abbreviation List
4. Table of Contents
5. Table of Charts and Figures
6. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • Annual Road Transportation Sector Energy Consumption by Fuel Type, World Markets: 2015-2035
  • Sales Weighted Average Fuel Retail Price, World Markets: 2014-2035
  • Annual Road Transportation Sector Oil Consumption by Region, World Markets: 2015-2035
  • Annual Road Transportation Sector Gasoline Consumption by Region, World Markets: 2015-2035
  • Annual Road Transportation Sector Diesel Consumption by Region, World Markets: 2015-2035
  • Annual Road Transportation Sector Biofuels Consumption by Fuel Type, World Markets: 2015-2035
  • Annual Road Transportation Sector Natural Gas Consumption by Region, World Markets: 2015-2035
  • Annual Road Transportation Sector LPG Consumption by Region, World Markets: 2015-2035
  • Annual Road Transportation Sector Electricity Consumption by Region, World Markets: 2015-2035
  • Annual Road Transportation Sector Hydrogen Consumption by Region, World Markets: 2015-2035
  • Navigant Research Global Fuel Consumption Forecast Model

List of Tables

  • Gasoline Price by Country, World Markets: 2014-2035
  • Diesel Price by Country, World Markets: 2014-2035
  • Residential Electricity Rates by Country, World Markets: 2014-2035
  • CNG Price by Country, World Markets: 2014-2035
  • LPG Price by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Energy Consumption by Country, World Markets: 2014-2035
  • Annual LDV Energy Consumption by Country, World Markets: 2014-2035
  • Annual MHDV Energy Consumption by Country, World Markets: 2014-2035
  • Annual Fuel Consumption by Fuel Type, World Markets: 2014-2035
  • Annual Road Transportation Sector Oil Consumption by Country, World Markets: 2014-2035
  • Annual LDV Oil Consumption by Country, World Markets: 2014-2035
  • Annual MHDV Oil Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Gasoline Consumption by Country, World Markets: 2014-2035
  • Annual LDV Gasoline Consumption by Country, World Markets: 2014-2035
  • Annual MHDV Gasoline Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Diesel Consumption by Country, World Markets: 2014-2035
  • Annual LDV Diesel Consumption by Country, World Markets: 2014-2035
  • Annual MHDV Diesel Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Ethanol Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Biodiesel Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Drop-In Biofuels Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Natural Gas Consumption by Country, World Markets: 2014-2035
  • Annual LDV Natural Gas Consumption by Country, World Markets: 2014-2035
  • Annual MHDV Natural Gas Consumption by Country, World Markets: 2014-2035
  • Annual MHDV LNG Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector LPG Consumption by Country, World Markets: 2014-2035
  • Annual LDV LPG Consumption by Country, World Markets: 2014-2035
  • Annual MHDV LPG Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Electricity Consumption by Country, World Markets: 2014-2035
  • Annual LDV Electricity Consumption by Country, World Markets: 2014-2035
  • Annual MHDV Electricity Consumption by Country, World Markets: 2014-2035
  • Annual Road Transportation Sector Hydrogen Consumption by Country, World Markets: 2014-2035
  • Annual LDV Hydrogen Consumption by Country, World Markets: 2014-2035
  • Annual MHDV Hydrogen Consumption by Country, World Markets: 2014-2035
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Autonomous Vehicles http://www.navigantresearch.com/research/autonomous-vehicles http://www.navigantresearch.com/research/autonomous-vehicles#comments Wed, 09 Jul 2014 13:37:07 +0000 http://www.navigantresearch.com/?p=67287 Smart Transportation
Combinations of advanced driver assistance features that can enable semi-autonomous driving are now being brought to market for the first time. Increasing volumes and technology improvements mean that it is feasible to install the multiple sensors necessary for such capability thanks to cost reductions. Simple automated driving functions such as keeping in lane while adjusting [...]]]>
Smart Transportation

Combinations of advanced driver assistance features that can enable semi-autonomous driving are now being brought to market for the first time. Increasing volumes and technology improvements mean that it is feasible to install the multiple sensors necessary for such capability thanks to cost reductions. Simple automated driving functions such as keeping in lane while adjusting speed to the vehicle in front are currently being introduced. The industry consensus is that the first more comprehensive self-driving features will be brought to market by 2020, but significant hurdles remain. However, the obstacles are not all technological. Due to advances in computing power and software development, challenges such as image processing and sensor fusion are now ready for production use, and supervised decision-making software is being trialed on public roads. While more testing is still needed to develop robustness, the biggest practical hurdles before rollout to the public are those of liability, regulation, and legislation. In the long term, the technology has the potential to institute major changes in personal mobility, particularly in large cities. Navigant Research forecasts that 94.7 million autonomous-capable vehicles will be sold annually around the world by 2035. This Navigant Research report analyzes the emerging global market for advanced driver assistance systems (ADAS) leading to semi-autonomous and autonomous driving. The study provides a discussion of the benefits of self-driving vehicles and barriers to implementation. Global market forecasts for autonomous-capable vehicle sales and volumes of key autonomous driving features and associated revenue, segmented by region and feature, extend through 2035. The report also provides a review of the core driver assistance technologies that make self-driving vehicles possible, as well as in-depth profiles of the leading industry players.

Key Questions Addressed:
  • What are the key technologies for autonomous driving?
  • Which will be the first self-driving features to come to market?
  • When will the first autonomous vehicles be available?
  • What are the major benefits of autonomous vehicles?
  • How fast will the market for autonomous driving technologies grow?
  • How much revenue can be expected from autonomous driving features?
  • Who are the key players working on autonomous driving technologies?
Who needs this report?
  • Automotive industry suppliers
  • Vehicle manufacturers
  • City managers
  • Fleet managers
  • Insurance companies
  • Government agencies
  • Investor community

Table of Contents

1. Executive Summary

1.1  Self-Driving Vehicles

1.2  Market Drivers

1.3  Technology Issues

1.4  Forecast Highlights

2. Market Drivers  

2.1  Vision for the Long Term

2.1.1   Consumer Market

2.1.2   Fleet Market

2.1.3   Neighborhood Delivery

2.1.4   Evolution

2.1.5   Revolution

2.2  Benefits of Fully Autonomous Vehicles

2.2.1   Traffic Flow

2.2.2   Eliminating Collisions

2.2.3   Productivity

2.2.4   Carsharing

2.2.5   Smart Cities

2.3  Barriers to Implementation

2.3.1   Customer Concerns

2.3.2   Legislation and Government Activity

2.3.3   Insurance and Liability

2.3.4   OEMs Adopting a New Business Model

3. Technology Issues

3.1  Underlying Technology

3.1.1   Advanced Driver Assistance Systems

3.1.2   Vehicle-to-X

3.1.3   Navigation Systems

3.2  Levels of Autonomy

3.2.1   Adaptive Speed Control

3.2.2   Automatic Emergency Braking

3.2.3   Automatic Lane Maintain

3.2.4   Freeway Driving Mode

3.2.5   Traffic Jam Mode

3.2.6   Autonomous Parking System

3.2.7   Self-Driving Mode

3.2.8   Autonomous Driving

3.3  High-Level Software

3.4  Hardware Demands

3.5  Pilot Programs and Testing

3.5.1   Milton Keynes

3.5.2   Gothenburg

3.5.3   Michigan

3.5.4   Netherlands

3.5.5   New York

3.5.6   Human Factors of Automated Driving

3.5.7   Google

3.5.8   Zoox

4. Key Industry Players

4.1  OEMs

4.1.1   Audi AG

4.1.2   BMW AG

4.1.3   Daimler AG

4.1.4   Fiat Chrysler Automobiles NV

4.1.5   Ford Motor Company

4.1.6   GM

4.1.7   Honda Motor Company

4.1.8   Hyundai

4.1.9   Mazda

4.1.10   Mitsubishi Motors Corp.

4.1.11   Nissan Motor Company

4.1.12   PSA Peugeot Citroën

4.1.13   Renault S.A.

4.1.14   Tesla Motors

4.1.15   Toyota Motor Corp.

4.1.16   Volvo Car Corp.

4.1.17   VW

4.2  Major Suppliers

4.2.1   Aisin

4.2.2   Autoliv Inc.

4.2.3   Continental AG

4.2.4   Delphi Automotive

4.2.5   DENSO Corp.

4.2.6   Harman International Industries

4.2.7   Hella KGaA Hueck & Co.

4.2.8   Magna International

4.2.9   Robert Bosch GmbH

4.2.10   TRW Automotive

4.2.11   Valeo

4.3  Computer Hardware and Software Companies

4.3.1   Altera Corp.

4.3.2   Autotalks

4.3.3   Cisco Systems

4.3.4   Cohda Wireless

4.3.5   Covisint

4.3.6   Freescale Semiconductor

4.3.7   Google Inc.

4.3.8   Intel

4.3.9   Microsoft

4.3.10   Mobileye

4.3.11   Nvidia

4.3.12   QNX Software Systems Ltd.

4.3.13   Texas Instruments

4.4  Other Industry Participants

4.4.1   2getthere

4.4.2   Connected Vehicle Trade Association

4.4.3   Freie Universität Berlin

4.4.4   Kungliga Tekniska Högskolan

4.4.5   Ultra Global

4.4.6   Other Organizations

5. Market Forecasts  

5.1  Global Forecasts

5.2  Regional Forecasts

5.3  Technology Forecasts

5.3.1   ASC

5.3.2   AEB

5.3.3   ALM

5.3.4   FDM

5.3.5   TJM

5.3.6   APS

5.3.7   SDM

5.3.8   Autonomous Driving

5.4  Market Value

5.5  Conclusions and Recommendations

6. Company Directory
7. Acronym and Abbreviation List
8. Table of Contents
9. Table of Charts and Figures
10. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • Autonomous-Capable Vehicle Sales by Region, World Markets: 2015-2035
  • Annual Light Duty Vehicle Sales by Region, World Markets: 2015-2035
  • Autonomous-Capable Vehicle Penetration Rate by Region, World Markets: 2015-2035
  • Take Rate Percentage by Autonomous Driving Feature, World Markets: 2012-2035
  • ASC Fitments by Region, World Markets: 2015-2035
  • AEB Fitments by Region, World Markets: 2015-2035
  • ALM Fitments by Region, World Markets: 2015-2035
  • FDM Fitments by Region, World Markets: 2015-2035
  • TJM Fitments by Region, World Markets: 2015-2035
  • APS Fitments by Region, World Markets: 2015-2035
  • SDM Fitments by Region, World Markets: 2015-2035
  • Autonomous Driving Fitments by Region, World Markets: 2015-2035
  • Autonomous Driving Features Value by Region, World Markets: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, North America: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Western Europe: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Eastern Europe: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Asia Pacific: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Latin America: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Middle East & Africa: 2015-2035
  • ADAS Applications

List of Tables

  • Autonomous-Capable Vehicle Sales by Region, World Markets: 2015-2035
  • ADAS in Production by Country, United States and United Kingdom: 2014 Models*
  • Estimated Market Price by Autonomous Driving Feature, World Markets: 2015
  • Autonomous Driving Features Market Percentage by Region, World Markets: 2015-2035
  • Autonomous Driving Features Value by Region, World Markets: 2015-2035
  • Annual Light Duty Vehicle Market Percentage by Region, World Markets: 2015-2035
  • Annual Light Duty Vehicle Sales by Region, World Markets: 2015-2035
  • Autonomous-Capable Vehicle Sales by Region, World Markets: 2015-2035
  • Autonomous-Capable Vehicle Penetration Rate by Region, World Markets: 2015-2035
  • Adaptive Speed Control Fitments by Region, World Markets: 2015-2035
  • Automatic Emergency Braking Fitments by Region, World Markets: 2015-2035
  • Automatic Lane Maintain Fitments by Region, World Markets: 2015-2035
  • Freeway Driving Mode Fitments by Region, World Markets: 2015-2035
  • Traffic Jam Mode Fitments by Region, World Markets: 2015-2035
  • Autonomous Parking System Fitments by Region, World Markets: 2015-2035
  • Self-Driving Mode Fitments by Region, World Markets: 2015-2035
  • Autonomous Driving Fitments by Region, World Markets: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, North America: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Western Europe: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Eastern Europe: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Asia Pacific: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Latin America: 2015-2035
  • Autonomous Driving Feature Fitments by Feature, Middle East & Africa: 2015-2035
  • Other Organizations Active in Some Aspect of Autonomous Driving
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Navigant Research Leaderboard Report: Building Energy Management Systems http://www.navigantresearch.com/research/navigant-research-leaderboard-report-building-energy-management-systems http://www.navigantresearch.com/research/navigant-research-leaderboard-report-building-energy-management-systems#comments Mon, 07 Jul 2014 23:10:03 +0000 http://www.navigantresearch.com/?p=67244 Smart Buildings
The competitive landscape for building energy management systems (BEMSs) has heated up in recent years.  Software developers aim to take advantage of a confluence of technology and market factors driving interest in sophisticated energy management systems.  On the technology side, the advent of cloud-based software as a service (SaaS) platforms has facilitated scalable solutions upon [...]]]>
Smart Buildings

The competitive landscape for building energy management systems (BEMSs) has heated up in recent years.  Software developers aim to take advantage of a confluence of technology and market factors driving interest in sophisticated energy management systems.  On the technology side, the advent of cloud-based software as a service (SaaS) platforms has facilitated scalable solutions upon which new analytics can be added over time.  On the customer side, a rise in demand for systems that reduce operating costs, control corporate carbon emissions, and increase visibility into operations has led BEMS vendors to continue to innovate to meet the evolving market demand.

Navigant Research Leaderboard Report: Building Energy Management Systems

Given this confluence of market factors, the BEMS market is poised for significant growth in the coming years.  Software offerings will continue to form the foundation of this market, but the services and hardware associated with these offerings will experience growth, as well.  Meanwhile, the promise of data-driven energy management solutions has attracted a wide range of new and traditional players to the global market, each of which leverages a combination of tested technologies and innovative analytics capabilities to gain a foothold in this intensely competitive market.  Navigant Research forecasts that the global BEMS market will grow from $2.4 billion in 2014 to $5.6 billion in 2020.

This Navigant Research Leaderboard Report examines the strategy and execution of 14 leading players with BEMS platforms that provide enterprise-level energy management and sophisticated data analytics offerings.  These BEMS vendors are rated on ten criteria: vision, go-to-market strategy, partnership strategy, technology & solution portfolio, geographic coverage, user interface, breath/depth of applications, technology openness & interoperability, customer acquisition & partnerships, and scalability & staying power.  Using Navigant Research’s proprietary Leaderboard methodology, vendors are profiled, rated, and ranked with the goal of providing industry participants with an objective assessment of these companies’ relative strengths and weaknesses in the growing BEMS market.

Top 10 Vendors:

1. Schneider Electric

2. Siemens

3. Elster EnergyICT

4. Johnson Controls, Inc.

5. Verisae

6. IBM

7. Cylon Active Energy

8. C3 Energy

9. GridPoint

10. Ecova

Key Questions Addressed:
  • Which vendors are Leaders, Contenders, and Challengers in the global building energy management system (BEMS) market?
  • What distinguishes various BEMS vendors from a technology perspective?
  • Which business models have enabled BEMS vendors to achieve the best traction?
  • How does proprietary hardware affect the soundness of a BEMS vendor’s business model?
  • Which vendors have made the most progress in securing partnerships and customers for their BEMS offerings?
Who needs this report?
  • BEMS software vendors
  • Heating, ventilation, and air conditioning (HVAC) equipment vendors
  • Lighting system vendors
  • Building automation system (BAS) vendors
  • Energy service companies (ESCOs)
  • Utilities
  • Government agencies
  • Investor community

Table of Contents

1. Executive Summary

1.1  Market Introduction

1.2  Criteria Overview

1.3  The Navigant Research Leaderboard Grid

2. Market Overview  

2.1  Market Definition

2.2  Market Drivers

2.2.1   The Growth of Smart Building Infrastructure

2.2.2   Corporate Sustainability and Energy Management Initiatives

2.2.3   Energy Efficiency Regulatory Support

2.2.4   Cloud-Based Data Management

2.3  Market Barriers

2.3.1   Lack of Buildings Primed for Smart Building Technology

2.3.2   Split Incentives

2.3.3   Lack of Familiarity with BEMSs and Perceptions of High Cost

2.4  Market Trends

3. The Navigant Research Leaderboard

3.1  The Navigant Research Leaderboard Categories

3.1.1   Leaders

3.1.2   Contenders

3.1.3   Challengers

3.1.4   Followers

3.2  The Navigant Research Leaderboard Grid

4. Company Rankings  

4.1  Leaders

4.1.1   Schneider Electric

4.1.2   Siemens

4.2  Contenders

4.2.1   Elster EnergyICT

4.2.2   Johnson Controls, Inc.

4.2.3   Verisae

4.2.4   IBM

4.2.5   Cylon Active Energy

4.2.6   C3 Energy

4.2.7   GridPoint

4.2.8   Ecova

4.2.9   Honeywell

4.2.10   EnerNOC

4.3  Challengers

4.3.1   Pulse Energy

4.3.2   eSight Energy

4.4  Followers

5. Company Directory
6. Acronym and Abbreviation List
7. Table of Contents
8. Table of Charts and Figures
9. Scope of Study and Methodology

9.1  Scope of Study

9.2  Sources and Methodology

9.2.1   Vendor Selection

9.2.2   Ratings Scale

9.2.2.1  Score Calculations

9.2.3   Criteria Definitions

9.2.3.1  Strategy

9.2.3.2  Execution

List of Charts and Figures

  • The Navigant Research Leaderboard Grid
  • BEMS Revenue by Region, World Markets: 2012-2020
  • Schneider Electric Strategy and Execution Scores
  • Siemens Strategy and Execution Scores
  • Elster EnergyICT Strategy and Execution Scores
  • Johnson Controls Strategy and Execution Scores
  • Verisae Strategy and Execution Scores
  • IBM Strategy and Execution Scores
  • Cylon Active Energy Strategy and Execution Scores
  • C3 Energy Strategy and Execution Scores
  • GridPoint Strategy and Execution Scores
  • Ecova Strategy and Execution Scores
  • Honeywell Strategy and Execution Scores
  • EnerNOC Strategy and Execution Scores
  • Pulse Energy Strategy and Execution Scores
  • eSight Energy Strategy and Execution Scores
  • BEMS Vendors by Focus Area

List of Tables

  • BEMS Revenue by Region, World Markets: 2012-2020
  • The Navigant Research Leaderboard Overall Score
  • Vendor Scores
  • Vendor Scores on Strategy Criteria
  • Vendor Scores on Execution Criteria
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Transportation Forecast: Medium and Heavy Duty Vehicles http://www.navigantresearch.com/research/transportation-forecast-medium-and-heavy-duty-vehicles http://www.navigantresearch.com/research/transportation-forecast-medium-and-heavy-duty-vehicles#comments Tue, 01 Jul 2014 00:09:49 +0000 http://www.navigantresearch.com/?p=66812 Transportation Forecast
The global medium and heavy duty vehicle (MHDV) market is changing rapidly, due to rising fuel costs and environmental concerns that are pushing commercial and government fleet operators to consider investments in fuel efficiency technologies and alternative fuels. Navigant Research projects that today more than 1.2 billion light, medium, and heavy duty vehicles are on [...]]]>
Transportation Forecast

The global medium and heavy duty vehicle (MHDV) market is changing rapidly, due to rising fuel costs and environmental concerns that are pushing commercial and government fleet operators to consider investments in fuel efficiency technologies and alternative fuels. Navigant Research projects that today more than 1.2 billion light, medium, and heavy duty vehicles are on roads, and less than 5% belong to the MHDV segment. Of these vehicles, over 94% utilize a conventional internal combustion engine (ICE) powered by either gasoline or diesel.

Though the MHDV segment commands a small portion of the total vehicle landscape, it consumes a far greater portion of the total fuel and energy consumed in the road transportation sector because of the low average fuel economy and high annual mileage typical of MHDVs. The MHDV markets’ dependency on oil has pushed governments to examine programs that will speed the adoption of alternative fuel technologies. Less expensive alternatives to petroleum-based fuels, such as natural gas, liquefied petroleum gas (LPG – also known as propane or autogas), and electricity, are beginning to make inroads, as fleet managers can see a return on investment in as few as 3 years given the right circumstances. Navigant Research forecasts that global annual MHDV sales and conversions will grow from 4.3 million vehicles in 2014 to 7.1 million in 2035.

This Navigant Research report analyzes the global MHDV market in seven segments: conventional ICE vehicles, hybrid electric vehicles (HEVs), plug-in hybrid electric vehicles (PHEVs), battery electric vehicles (BEVs), natural gas vehicles (NGVs), propane autogas vehicles (PAGVs), and fuel cell vehicles (FCVs). Forecasts for two segments fueled primarily by petroleum derivatives (ICE vehicles and HEVs) are broken out by region and by fuel: gasoline or diesel. Global market forecasts for sales and conversions and the number of vehicles in use, segmented by country, drivetrain, and primary fuel, extend through 2035.

Key Questions Addressed:
  • What are the markets for each alternative fuel: electricity, hydrogen, natural gas, and liquefied petroleum gas?
  • What are the best opportunities for alternative fuel technologies within the medium and heavy duty vehicle (MHDV) classes?
  • What impacts will natural gas, propane autogas, plug-in electric, and fuel cell vehicles have on the energy industry?
  • What will the global MHDV fleet look like in 2035?
  • How will the many end uses of commercial MHDVs present opportunities for alternatives such as liquefied natural gas?
Who needs this report?
  • Automotive OEMs
  • EV supply equipment (EVSE) providers and manufacturers
  • Oil & gas companies
  • Natural gas and hydrogen infrastructure developers
  • Battery suppliers
  • Utilities
  • Government agencies
  • Investor community

Table of Contents

1. Executive Summary

1.1  Market Overview

1.2  Scope

1.3  Market Forecasts

2. Market Forecasts

2.1  Scope

2.2  MHDVs

2.2.1   HEVs

2.2.2   PHEVs

2.2.3   BEVs

2.2.4   NGVs

2.2.5   PAGVs

2.2.6   FCVs

2.3  Conclusions and Recommendations

3. Acronym and Abbreviation List
4. Table of Contents
5. Table of Charts and Figures
6. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • MHDVs in Use by Vehicle Drivetrain, World Markets: 2015-2035
  • MHDVs in Use by Primary Fuel, World Markets: 2015-2035
  • Annual MHDV Sales and Conversions by Primary Fuel, World Markets: 2015-2035
  • Annual MHDV Sales and Conversions by Vehicle Drivetrain, World Markets: 2015-2035
  • Annual MHDV Sales and Conversions by Region, World Markets: 2015-2035
  • Annual MHD HEV Sales by Region, World Markets: 2015-2035
  • Annual MHD PHEV Sales by Region, World Markets: 2015-2035
  • Annual MHD BEV Sales by Region, World Markets: 2015-2035
  • Annual MHD NGV Sales and Conversions by Region, World Markets: 2015-2035
  • Annual MHD PAGV Sales and Conversions by Region, World Markets: 2015-2035
  • Annual MHD FCV Sales by Region, World Markets: 2015-2035
  • MHDVs in Use by Region, World Markets: 2015-2035
  • MHD HEVs in Use by Region, World Markets: 2015-2035
  • MHD PHEVs in Use by Region, World Markets: 2015-2035
  • MHD BEVs in Use by Region, World Markets: 2015-2035
  • MHD NGVs in Use by Region, World Markets: 2015-2035
  • MHD PAGVs in Use by Region, World Markets: 2015-2035
  • MHD FCVs in Use by Region, World Markets: 2015-2035
  • Annual MHD Conventional ICE Vehicle Sales by Region, World Markets: 2015-2035
  • MHD Conventional ICE Vehicles in Use by Region, World Markets: 2015-2035

List of Tables

  • Annual MHDV Sales and Conversions by Country, World Markets: 2014-2035
  • MHDVs in Use by Country, World Markets: 2014-2035
  • Annual MHD HEV Sales by Country, World Markets: 2014-2035
  • Annual MHD Hybrid Electric Diesel Vehicle Sales by Country, World Markets: 2014-2035
  • Annual MHD Hybrid Electric Gasoline Vehicle Sales by Country, World Markets: 2014-2035
  • MHD HEVs in Use by Country, World Markets: 2014-2035
  • MHD Hybrid Electric Diesel Vehicles in Use by Country, World Markets: 2014-2035
  • MHD Hybrid Electric Gasoline Vehicles in Use by Country, World Markets: 2014-2035
  • Annual MHD PHEV Sales by Country, World Markets: 2014-2035
  • Annual MHD Plug-In Hybrid Electric Diesel Vehicle Sales by Country, World Markets: 2014-2035
  • Annual MHD Plug-In Hybrid Electric Gasoline Vehicle Sales by Country, World Markets: 2014-2035
  • MHD PHEVs in Use by Country, World Markets: 2014-2035
  • MHD Plug-In Hybrid Electric Diesel Vehicles in Use by Country, World Markets: 2014-2035
  • MHD Plug-In Hybrid Electric Gasoline Vehicles in Use by Country, World Markets: 2014-2035
  • Annual MHD BEV Sales by Country, World Markets: 2014-2035
  • MHD BEVs in Use by Country, World Markets: 2014-2035
  • Annual MHD NGV Sales and Conversions by Country, World Markets: 2014-2035
  • Annual MHD CNG Vehicle Sales and Conversions by Country, World Markets: 2014-2035
  • Annual HD LNG Vehicle Sales by Country, World Markets: 2014-2035
  • MHD NGVs in Use by Country, World Markets: 2014-2035
  • MHD CNG Vehicles in Use by Country, World Markets: 2014-2035
  • MHD LNG Vehicles in Use by Country, World Markets: 2014-2035
  • Annual MHD PAGV Sales and Conversions by Country, World Markets: 2014-2035
  • MHD PAGVs in Use by Country, World Markets: 2014-2035
  • Annual MHD FCV Sales by Country, World Markets: 2014-2035
  • MHD FCVs in Use by Country, World Markets: 2014-2035
  • Annual MHD Conventional ICE Vehicle Sales by Country, World Markets: 2014-2035
  • Annual MHD Conventional Diesel Vehicle Sales by Country, World Markets: 2014-2035
  • Annual MHD Conventional Gasoline Vehicle Sales by Country, World Markets: 2014-2035
  • MHD Conventional Vehicles in Use by Country, World Markets: 2014-2035
  • MHD Conventional Diesel Vehicles in Use by Country, World Markets: 2014-2035
  • MHD Conventional Gasoline Vehicles in Use by Country, World Markets: 2014-2035
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Global Building Stock Database http://www.navigantresearch.com/research/global-building-stock-database http://www.navigantresearch.com/research/global-building-stock-database#comments Mon, 30 Jun 2014 23:59:58 +0000 http://www.navigantresearch.com/?p=66828 Smart Buildings
Commercial, residential, and industrial buildings are responsible for 47% of global greenhouse gas emissions and 49% of the world’s energy consumption. Much of this energy is consumed needlessly and can be reduced through cost-effective measures. Knowledge of the size and composition of the global building stock is essential for understanding the built environment and the [...]]]>
Smart Buildings

Commercial, residential, and industrial buildings are responsible for 47% of global greenhouse gas emissions and 49% of the world’s energy consumption. Much of this energy is consumed needlessly and can be reduced through cost-effective measures. Knowledge of the size and composition of the global building stock is essential for understanding the built environment and the potential market for new energy efficiency technologies, as well as the impact those technologies can have in helping achieve significant reductions in energy consumption and carbon emissions.

Over the next 10 years, the global building stock will continue to grow due to a number of factors. Perhaps most dramatic is the continuing trend of urbanization worldwide. In addition, construction markets, though weakened from pre-recession levels, continue to add new commercial and residential floor space to the global building stock. Further economic growth, particularly in developing countries, will also bolster demand for more building space to support a rising middle class with services. Although all regions will see considerable growth in the building stock during the next decade, Asia Pacific will account for the majority of new additions. Navigant Research forecasts that the global building stock will grow from 138.2 billion m2 in 2013 to 171.3 billion m2 in 2023.

This Navigant Research report provides data on the size and growth of the global building stock from 2013 to 2023. Included in the study is a qualitative description of the key drivers and trends related to the building stock and an explanation of the methodology used to build the data set. The building stock data covers eight commercial building types (office, retail, education, healthcare, hotels & restaurants, institutional/assembly, warehouse, and transport) and two residential building types (single-family detached and multi-unit residential) for seven regions worldwide. This report is intended to provide a comprehensive picture of the global commercial and residential building stock.

Key Questions Addressed:
  • What is the total size of the building stock today and how will it grow between now and 2023?
  • How much space is dedicated to commercial end uses such as office, retail, and education?
  • What are the main indicators and trends that dictate the size and composition of the global building stock?
  • Which commercial building types will see the strongest growth over time?
  • Which regions will witness the most growth in the commercial building stock?
  • How does the composition of residential buildings vary from country to country?
  • How do living patterns vary from region to region and how do these differences influence the size of the residential building stock?
Who needs this report?
  • Lighting equipment vendors
  • HVAC equipment vendors
  • Green building design and construction firms
  • Energy service companies (ESCOs)
  • International real estate companies
  • Energy sector trade associations and advocacy groups
  • Government agencies, regulators, and policymakers
  • Investor community

Table of Contents

1. Executive Summary

1.1  Overview

1.2  Scope of Coverage and Methodology

1.3  Changes from Previous Versions of This Report

1.4  Global Forecast

2. Market Issues

2.1  Methodology

2.1.1  Literature Review of Secondary Resources

2.1.2  Quantitative Model

2.1.2.1  Key Building Stock Growth Metrics

2.1.2.2  Other Building Stock Growth Metrics

2.1.2.3  Changes from Previous Versions of This Report

2.1.2.4  Commercial Building Types

2.1.2.4.1.  Office

2.1.2.4.2.  Retail

2.1.2.4.3.  Education

2.1.2.4.4.  Healthcare

2.1.2.4.5.  Hotels & Restaurants

2.1.2.4.6.  Institutional/Assembly

2.1.2.4.7.  Warehouse

2.1.2.4.8.  Transport

2.1.2.5  Residential Building Types

2.1.2.5.1.  Single-Family Detached

2.1.2.5.2.  Multi-Unit Residential

2.1.3  Building Stock Patterns

2.1.3.1  Geographic Segmentation

2.1.3.2  Definition of Gross Floor Area

2.1.3.3  Time Period

2.1.3.4  Units

2.1.3.5  Building Stock Growth

2.1.3.6  Vacancy

3. Forecasts

3.1  Overview

3.2  North America

3.2.1  United States

3.2.1.1  Commercial Buildings

3.2.1.2  Residential Buildings

3.2.2  Canada

3.2.2.1  Commercial Buildings

3.2.2.2  Residential Buildings

3.2.3  North America Overview

3.2.3.1  Commercial Buildings

3.2.3.2  Residential Buildings

3.3  Western Europe

3.3.1  France

3.3.1.1  Commercial Buildings

3.3.1.2  Residential Buildings

3.3.2  Germany

3.3.2.1  Commercial Buildings

3.3.2.2  Residential Buildings

3.3.3  United Kingdom

3.3.3.1  Commercial Buildings

3.3.3.2  Residential Buildings

3.3.4  Western Europe Overview

 3.4  Eastern Europe

3.4.1  Russia

3.4.1.1  Commercial Buildings

3.4.1.2  Residential Buildings

3.4.2  Eastern Europe Overview

3.4.2.1  Commercial Buildings

3.4.2.2  Residential Buildings

3.5  Asia Pacific

3.5.1  China

3.5.2  Japan

3.5.2.1  Commercial Buildings

3.5.2.2  Residential Buildings

3.5.3  India

3.5.3.1  Commercial Buildings

3.5.3.2  Residential Buildings

3.5.4  South Korea

3.5.4.1  Commercial Buildings

3.5.4.2  Residential Buildings

3.5.5  Australia

3.5.5.1  Commercial Buildings

3.5.5.2  Residential Buildings

3.5.6  Asia Pacific Overview

3.5.6.1  Commercial Buildings

3.5.6.2  Residential Buildings

3.6  Latin America

3.6.1  Brazil

3.6.1.1  Commercial Buildings

3.6.1.2  Residential Buildings

3.6.2  Latin America Overview

3.6.2.1  Commercial Buildings

3.6.2.2  Residential Buildings

3.6.3  Middle East Overview

3.6.3.1  Commercial Buildings

3.6.3.2  Residential Buildings

3.7  Africa

3.7.1  South Africa

3.7.1.1  Commercial Buildings

3.7.1.2  Residential Buildings

3.7.2  Africa Overview

3.7.2.1  Commercial Buildings

3.7.2.2  Residential Buildings

4. Appendix A: Countries and Other Political Entities by Region

4.1 North America

4.2 Western Europe

4.3 Eastern Europe

4.4 Asia Pacific

4.5 Latin America

4.6 Middle East

4.7 Africa

5. Acronym and Abbreviation List
6. Table of Contents
7. Table of Charts and Figures
8. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • Total Building Stock by Region, World Markets: 2013-2023
  • Share of Gross Domestic Product by Region, World Markets: 2013
  • Total Building Space per Capita by Region, World Markets: 2013
  • Population by Region, World Markets: 2013 and 2023
  • Commercial Building Stock by Building Type, United States: 2013-2023
  • Residential Building Stock by Building Type, United States: 2013-2023
  • Commercial Building Stock by Building Type, Canada: 2013-2023
  • Residential Building Stock by Building Type, Canada: 2013-2023
  • Commercial Building Stock by Building Type: North America 2013-2023
  • Residential Building Stock by Building Type, North America: 2013-2023
  • Commercial Building Stock by Building Type, France: 2013-2023
  • Residential Building Stock by Building Type, France: 2013-2023
  • Commercial Building Stock by Building Type, Germany: 2013-2023
  • Residential Building Stock by Building Type, Germany: 2013-2023
  • Commercial Building Stock by Building Type, United Kingdom: 2013-2023
  • Residential Building Stock by Building Type, United Kingdom: 2013-2023
  • Commercial Building Stock by Building Type, Western Europe: 2013-2023
  • Residential Building Stock by Building Type, Western Europe: 2013-2023
  • Commercial Building Stock by Building Type, Russia: 2013-2023
  • Residential Building Stock by Building Type, Russia: 2013-2023
  • Commercial Building Stock by Building Type, Eastern Europe: 2013-2023
  • Residential Building Stock by Building Type, Eastern Europe: 2013-2023
  • Commercial Building Stock by Building Type, China: 2013-2023
  • Residential Building Stock by Building Type, China: 2013-2023
  • Commercial Building Stock by Building Type, Japan: 2013-2023
  • Residential Building Stock by Building Type, Japan: 2013-2023
  • Commercial Building Stock by Building Type, India: 2013-2023
  • Residential Building Stock by Building Type, India: 2013-2023
  • Commercial Building Stock, South Korea: 2013-2023
  • Residential Building Stock by Building Type, South Korea: 2013-2023
  • Commercial Building Stock by Building Type, Australia: 2013-2023
  • Residential Building Stock by Building Type, Australia: 2013-2023
  • Commercial Building Stock by Building Type, Asia Pacific: 2013-2023
  • Residential Building Stock by Building Type, Asia Pacific: 2013-2023
  • Commercial Building Stock by Building Type, Brazil: 2013-2023
  • Residential Building Stock by Building Type, Brazil: 2013-2023
  • Commercial Building Stock by Building Type, Latin America Total: 2013-2023
  • Residential Building Stock by Building Type, Latin America: 2013-2023
  • Commercial Building Stock by Building Type, United Arab Emirates: 2013-2023
  • Residential Building Stock by Building Type, United Arab Emirates: 2013-2023
  • Commercial Building Stock by Building Type, Middle East: 2013-2023
  • Residential Building Stock by Building Type, Middle East: 2013-2023
  • Commercial Building Stock by Building Type, South Africa: 2013-2023
  • Residential Building Stock by Building Type, South Africa: 2013-2023
  • Commercial Building Stock by Building Type, Africa: 2013-2023
  • Residential Building Stock by Building Type, Africa: 2013-2023

List of Tables

  • Fastest-Growing Megacities by Annual Growth Rate, World Markets: 2010-2025
  • Gross Domestic Product by Region, World Markets: 2013
  • Total Building Space per Capita by Region, World Markets: 2013
  • Population by Region, World Markets: 2013 and 2023
  • Building Stock by Building Type, North America: 2013-2023
  • Building Stock by Building Type, United States: 2013-2023
  • Building Stock by Building Type, Canada: 2013-2023
  • Building Stock by Building Type, Greenland: 2013-2023
  • Building Stock by Building Type, Western Europe: 2013-2023
  • Building Stock by Building Type, France: 2013-2023
  • Building Stock by Building Type, Germany: 2013-2023
  • Building Stock by Building Type, United Kingdom: 2013-2023
  • Building Stock by Building Type, Italy: 2013-2023
  • Building Stock by Building Type, Spain: 2013-2023
  • Building Stock by Building Type, Rest of Western Europe (excl. France, Germany, United Kingdom, Italy, and Spain): 2013-2023
  • Building Stock by Building Type, Andorra: 2013-2023
  • Building Stock by Building Type, Austria: 2013-2023
  • Building Stock by Building Type, Belgium: 2013-2023
  • Building Stock by Building Type, Cyprus: 2013-2023
  • Building Stock by Building Type, Denmark: 2013-2023
  • Building Stock by Building Type, Faroe Islands: 2013-2023
  • Building Stock by Building Type, Finland: 2013-2023
  • Building Stock by Building Type, Gibraltar: 2013-2023
  • Building Stock by Building Type, Greece: 2013-2023
  • Building Stock by Building Type, Guernsey: 2013-2023
  • Building Stock by Building Type, Iceland: 2013-2023
  • Building Stock by Building Type, Ireland: 2013-2023
  • Building Stock by Building Type, Isle of Man: 2013-2023
  • Building Stock by Building Type, Jersey: 2013-2023
  • Building Stock by Building Type, Liechtenstein: 2013-2023
  • Building Stock by Building Type, Luxembourg: 2013-2023
  • Building Stock by Building Type, Malta: 2013-2023
  • Building Stock by Building Type, Monaco: 2013-2023
  • Building Stock by Building Type, The Netherlands: 2013-2023
  • Building Stock by Building Type, Norway: 2013-2023
  • Building Stock by Building Type, Portugal: 2013-2023
  • Building Stock by Building Type, San Marino: 2013-2023
  • Building Stock by Building Type, Sweden: 2013-2023
  • Building Stock by Building Type, Switzerland: 2013-2023
  • Building Stock by Building Type, Eastern Europe: 2013-2023
  • Building Stock by Building Type, Russia: 2013-2023
  • Building Stock by Building Type, Albania: 2013-2023
  • Building Stock by Building Type, Belarus: 2013-2023
  • Building Stock by Building Type, Bosnia and Herzegovina: 2013-2023
  • Building Stock by Building Type, Bulgaria: 2013-2023
  • Building Stock by Building Type, Croatia: 2013-2023
  • Building Stock by Building Type, Czech Republic: 2013-2023
  • Building Stock by Building Type, Estonia: 2013-2023
  • Building Stock by Building Type, Georgia: 2013-2023
  • Building Stock by Building Type, Hungary: 2013-2023
  • Building Stock by Building Type, Latvia: 2013-2023
  • Building Stock by Building Type, Lithuania: 2013-2023
  • Building Stock by Building Type, Macedonia: 2013-2023
  • Building Stock by Building Type, Moldova: 2013-2023
  • Building Stock by Building Type, Montenegro: 2013-2023
  • Building Stock by Building Type, Poland: 2013-2023
  • Building Stock by Building Type, Romania: 2013-2023
  • Building Stock by Building Type, Serbia: 2013-2023
  • Building Stock by Building Type, Slovakia: 2013-2023
  • Building Stock by Building Type, Slovenia: 2013-2023
  • Building Stock by Building Type, Ukraine: 2013-2023
  • Building Stock by Building Type, Asia Pacific: 2013-2023
  • Building Stock by Building Type, China: 2013-2023
  • Building Stock by Building Type, Japan: 2013-2023
  • Building Stock by Building Type, India: 2013-2023
  • Building Stock by Building Type, South Korea: 2013-2023
  • Building Stock by Building Type, Australia: 2013-2023
  • Building Stock by Building Type, Rest of Asia Pacific (excl. China, Japan, India, South Korea, and Australia): 2013-2023
  • Building Stock by Building Type, Afghanistan: 2013-2023
  • Building Stock by Building Type, American Samoa: 2013-2023
  • Building Stock by Building Type, Armenia: 2013-2023
  • Building Stock by Building Type, Azerbaijan: 2013-2023
  • Building Stock by Building Type, Bangladesh: 2013-2023
  • Building Stock by Building Type, Bhutan: 2013-2023
  • Building Stock by Building Type, Brunei: 2013-2023
  • Building Stock by Building Type, Burma: 2013-2023
  • Building Stock by Building Type, Cambodia: 2013-2023
  • Building Stock by Building Type, Hong Kong: 2013-2023
  • Building Stock by Building Type, Macau: 2013-2023
  • Building Stock by Building Type, Comoros: 2013-2023
  • Building Stock by Building Type, Cook Islands: 2013-2023
  • Building Stock by Building Type, Fiji: 2013-2023
  • Building Stock by Building Type, French Polynesia: 2013-2023
  • Building Stock by Building Type, Indonesia: 2013-2023
  • Building Stock by Building Type, Kazakhstan: 2013-2023
  • Building Stock by Building Type, Kiribati: 2013-2023
  • Building Stock by Building Type, North Korea: 2013-2023
  • Building Stock by Building Type, Kyrgyzstan: 2013-2023
  • Building Stock by Building Type, Laos: 2013-2023
  • Building Stock by Building Type, Malaysia: 2013-2023
  • Building Stock by Building Type, Maldives: 2013-2023
  • Building Stock by Building Type, Marshall Islands: 2013-2023
  • Building Stock by Building Type, Mayotte: 2013-2023
  • Building Stock by Building Type, Micronesia: 2013-2023
  • Building Stock by Building Type, Mongolia: 2013-2023
  • Building Stock by Building Type, Nauru: 2013-2023
  • Building Stock by Building Type, Nepal: 2013-2023
  • Building Stock by Building Type, New Caledonia: 2013-2023
  • Building Stock by Building Type, New Zealand: 2013-2023
  • Building Stock by Building Type, Norfolk Island: 2013-2023
  • Building Stock by Building Type, Northern Mariana Islands: 2013-2023
  • Building Stock by Building Type, Pakistan: 2013-2023
  • Building Stock by Building Type, Palau: 2013-2023
  • Building Stock by Building Type, Papua New Guinea: 2013-2023
  • Building Stock by Building Type, Philippines: 2013-2023
  • Building Stock by Building Type, Samoa: 2013-2023
  • Building Stock by Building Type, Singapore: 2013-2023
  • Building Stock by Building Type, Solomon Islands: 2013-2023
  • Building Stock by Building Type, Sri Lanka: 2013-2023
  • Building Stock by Building Type, Tajikistan: 2013-2023
  • Building Stock by Building Type, Thailand: 2013-2023
  • Building Stock by Building Type, Timor-Leste: 2013-2023
  • Building Stock by Building Type, Tonga: 2013-2023
  • Building Stock by Building Type, Turkmenistan: 2013-2023
  • Building Stock by Building Type, Tuvalu: 2013-2023
  • Building Stock by Building Type, Uzbekistan: 2013-2023
  • Building Stock by Building Type, Vanuatu: 2013-2023
  • Building Stock by Building Type, Vietnam: 2013-2023
  • Building Stock by Building Type, Wallis and Futuna: 2013-2023
  • Building Stock by Building Type, Latin America: 2013-2023
  • Building Stock by Building Type, Brazil: 2013-2023
  • Building Stock by Building Type, Mexico: 2013-2023
  • Building Stock by Building Type, Argentina: 2013-2023
  • Building Stock by Building Type, Rest of Latin America (excl. Brazil, Mexico, and Argentina): 2013-2023
  • Building Stock by Building Type, Anguilla: 2013-2023
  • Building Stock by Building Type, Antigua and Barbuda: 2013-2023
  • Building Stock by Building Type, Aruba: 2013-2023
  • Building Stock by Building Type, The Bahamas: 2013-2023
  • Building Stock by Building Type, Barbados: 2013-2023
  • Building Stock by Building Type, Belize: 2013-2023
  • Building Stock by Building Type, Bermuda: 2013-2023
  • Building Stock by Building Type, Bolivia: 2013-2023
  • Building Stock by Building Type, British Virgin Islands: 2013-2023
  • Building Stock by Building Type, Cayman Islands: 2013-2023
  • Building Stock by Building Type, Chile: 2013-2023
  • Building Stock by Building Type, Colombia: 2013-2023
  • Building Stock by Building Type, Costa Rica: 2013-2023
  • Building Stock by Building Type, Cuba: 2013-2023
  • Building Stock by Building Type, Dominica: 2013-2023
  • Building Stock by Building Type, Dominican Republic: 2013-2023
  • Building Stock by Building Type, Ecuador: 2013-2023
  • Building Stock by Building Type, El Salvador: 2013-2023
  • Building Stock by Building Type, Falkland Islands: 2013-2023
  • Building Stock by Building Type, Grenada: 2013-2023
  • Building Stock by Building Type, Guatemala: 2013-2023
  • Building Stock by Building Type, Guyana: 2013-2023
  • Building Stock by Building Type, Haiti: 2013-2023
  • Building Stock by Building Type, Honduras: 2013-2023
  • Building Stock by Building Type, Jamaica: 2013-2023
  • Building Stock by Building Type, Montserrat: 2013-2023
  • Building Stock by Building Type, Netherlands Antilles: 2013-2023
  • Building Stock by Building Type, Nicaragua: 2013-2023
  • Building Stock by Building Type, Panama: 2013-2023
  • Building Stock by Building Type, Paraguay: 2013-2023
  • Building Stock by Building Type, Peru: 2013-2023
  • Building Stock by Building Type, Puerto Rico: 2013-2023
  • Building Stock by Building Type, Saint Helena: 2013-2023
  • Building Stock by Building Type, Saint Kitts and Nevis: 2013-2023
  • Building Stock by Building Type, Saint Lucia: 2013-2023
  • Building Stock by Building Type, St. Pierre & Miquelon: 2013-2023
  • Building Stock by Building Type, Saint Vincent and the Grenadines: 2013-2023
  • Building Stock by Building Type, Taiwan: 2013-2023
  • Building Stock by Building Type, Suriname: 2013-2023
  • Building Stock by Building Type, Trinidad and Tobago: 2013-2023
  • Building Stock by Building Type, Turks and Caicos Islands: 2013-2023
  • Building Stock by Building Type, Uruguay: 2013-2023
  • Building Stock by Building Type, Venezuela: 2013-2023
  • Building Stock by Building Type, Virgin Islands of the United States: 2013-2023
  • Building Stock by Building Type, Middle East: 2013-2023
  • Building Stock by Building Type, United Arab Emirates: 2013-2023
  • Building Stock by Building Type, Turkey: 2013-2023
  • Building Stock by Building Type, Saudi Arabia: 2013-2023
  • Building Stock by Building Type, Bahrain: 2013-2023
  • Building Stock by Building Type, Iran: 2013-2023
  • Building Stock by Building Type, Iraq: 2013-2023
  • Building Stock by Building Type, Israel: 2013-2023
  • Building Stock by Building Type, Jordan: 2013-2023
  • Building Stock by Building Type, Kuwait: 2013-2023
  • Building Stock by Building Type, Lebanon: 2013-2023
  • Building Stock by Building Type, Oman: 2013-2023
  • Building Stock by Building Type, Palestine: 2013-2023
  • Building Stock by Building Type, Qatar: 2013-2023
  • Building Stock by Building Type, Syria: 2013-2023
  • Building Stock by Building Type, Yemen: 2013-2023
  • Building Stock by Building Type, Africa: 2013-2023
  • Building Stock by Building Type, South Africa: 2013-2023
  • Building Stock by Building Type, Algeria: 2013-2023
  • Building Stock by Building Type, Angola: 2013-2023
  • Building Stock by Building Type, Benin: 2013-2023
  • Building Stock by Building Type, Botswana: 2013-2023
  • Building Stock by Building Type, Burkina Faso: 2013-2023
  • Building Stock by Building Type, Burundi: 2013-2023
  • Building Stock by Building Type, Cameroon: 2013-2023
  • Building Stock by Building Type, Cape Verde: 2013-2023
  • Building Stock by Building Type, Central African Republic: 2013-2023
  • Building Stock by Building Type, Chad: 2013-2023
  • Building Stock by Building Type, Democratic Republic of the Congo: 2013-2023
  • Building Stock by Building Type, Congo (Brazzaville): 2013-2023
  • Building Stock by Building Type, Cote d’Ivoire: 2013-2023
  • Building Stock by Building Type, Djibouti: 2013-2023
  • Building Stock by Building Type, Egypt: 2013-2023
  • Building Stock by Building Type, Equatorial Guinea: 2013-2023
  • Building Stock by Building Type, Eritrea: 2013-2023
  • Building Stock by Building Type, Ethiopia: 2013-2023
  • Building Stock by Building Type, Gabon: 2013-2023
  • Building Stock by Building Type, The Gambia: 2013-2023
  • Building Stock by Building Type, Ghana: 2013-2023
  • Building Stock by Building Type, Guinea: 2013-2023
  • Building Stock by Building Type, Guinea-Bissau: 2013-2023
  • Building Stock by Building Type, Kenya: 2013-2023
  • Building Stock by Building Type, Lesotho: 2013-2023
  • Building Stock by Building Type, Liberia: 2013-2023
  • Building Stock by Building Type, Libya: 2013-2023
  • Building Stock by Building Type, Madagascar: 2013-2023
  • Building Stock by Building Type, Malawi: 2013-2023
  • Building Stock by Building Type, Mali: 2013-2023
  • Building Stock by Building Type, Mauritania: 2013-2023
  • Building Stock by Building Type, Mauritius: 2013-2023
  • Building Stock by Building Type, Morocco: 2013-2023
  • Building Stock by Building Type, Mozambique: 2013-2023
  • Building Stock by Building Type, Namibia: 2013-2023
  • Building Stock by Building Type, Niger: 2013-2023
  • Building Stock by Building Type, Nigeria: 2013-2023
  • Building Stock by Building Type, Rwanda: 2013-2023
  • Building Stock by Building Type, Sao Tome and Principe: 2013-2023
  • Building Stock by Building Type, Senegal: 2013-2023
  • Building Stock by Building Type, Seychelles: 2013-2023
  • Building Stock by Building Type, Sierra Leone: 2013-2023
  • Building Stock by Building Type, Somalia: 2013-2023
  • Building Stock by Building Type, Sudan and South Sudan: 2013-2023
  • Building Stock by Building Type, Swaziland: 2013-2023
  • Building Stock by Building Type, Tanzania: 2013-2023
  • Building Stock by Building Type, Togo: 2013-2023
  • Building Stock by Building Type, Tunisia: 2013-2023
  • Building Stock by Building Type, Uganda: 2013-2023
  • Building Stock by Building Type, Western Sahara: 2013-2023
  • Building Stock by Building Type, Zambia: 2013-2023
  • Building Stock by Building Type, Zimbabwe: 2013-2023
  • Total Building Stock by Building Type, World Markets: 2013-2023
  • Total Building Stock by Region, World Markets: 2013-2023
  • Countries of North America
  • Countries of Western Europe
  • Countries of Eastern Europe
  • Countries of Asia Pacific
  • Countries of Latin America
  • Countries of the Middle East
  • Countries of Africa
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Dynamic Volt/VAR Control Architectures http://www.navigantresearch.com/research/dynamic-voltvar-control-architectures http://www.navigantresearch.com/research/dynamic-voltvar-control-architectures#comments Sat, 28 Jun 2014 03:28:33 +0000 http://www.navigantresearch.com/?p=66662 Smart Utilities
Today’s utility is challenged to modernize its grid to survive the present while being old-fashioned enough to ensure high quality and reliability in power delivery. In a smart distribution utility, energy is carefully managed to support smooth operation of critical infrastructure while facilitating a clean, economic, and safe environment in which to live, work, and [...]]]>
Smart Utilities

Today’s utility is challenged to modernize its grid to survive the present while being old-fashioned enough to ensure high quality and reliability in power delivery. In a smart distribution utility, energy is carefully managed to support smooth operation of critical infrastructure while facilitating a clean, economic, and safe environment in which to live, work, and play. Grid modernization is arguably the single most important focus for any utility as aging and congestion lead to power quality issues and more frequent outages.

Advanced, controllable dynamic Volt/VAR control architecture (DVCA) technologies and various Volt/VAR devices and control solutions can serve as oil in the machinery. They can keep transformers, generators, transmission lines, and distribution systems from overheating, reducing the risk of being retired or upgraded before the end of their intended lifespan. In areas with growing penetration of distributed energy resources (DER), Volt/VAR control (VVC) is emerging as an ancillary service to be provided by microgrids, power factor correction (PFC) systems, distributed PV, and electric vehicle (EV) chargers. Navigant Research forecasts that global annual DVCA revenue will grow from $734.1 million in 2014 to $2.9 billion in 2023.

This Navigant Research report analyzes the global market for DVCA solutions and components, with a focus on communications, VVC devices, distribution management system (DMS) VVC applications, and VVC analytics. The study provides an analysis of the market issues, including trends, drivers, and benefits, related to DVCA solutions. Global market forecasts for revenue, segmented by region, solution type, and component segment, extend through 2023. The report also examines the key technologies, as well as the competitive landscape, associated with DVCA systems and solutions for the medium-voltage and low-voltage distribution grid.

Key Questions Addressed:
  • What are the components of dynamic Volt/VAR control architecture (DVCA) solutions?
  • What factors and drivers will contribute to market growth for DVCA components?
  • How do DVCA control objectives differ by region?
  • What are the primary benefits of DVCA technologies?
  • How are DVCA solutions evolving to support the modernized grid?
  • Which power system vendors and power companies are active in the emerging DVCA arena?
Who needs this report?
  • Power system vendors
  • Power companies
  • System component manufacturers
  • Utilities
  • Government agencies and regulators
  • Investor community

Table of Contents

1. Executive Summary

1.1  Modernize to Survive the Present

1.2  Market Trends and Forecast

2. Market Issues

2.1  Future Grid Specifications

2.2  DVCA Integrates Systems to Solve Complex Problems

2.2.1   North American versus Other Regional Grid Design Models

2.3  Detailed Market Drivers

2.3.1   Rightsizing the Grid

2.3.2   Strengthening the Grid for Meaningful Integration of DG

2.3.3   Load Growth

2.4  DVCA Benefits

2.4.1   Capacity Reductions through VAR Management

2.4.2   Fuel Cost Reductions through VAR Improvement

2.5  Regional Experiences with DVCA

2.5.1   North America

2.5.1.1  Lessons from U.S. DOE-Backed Volt/VAR Projects

2.5.1.2  Case Study: Duke Energy Ohio

2.5.1.3  Target High-Value Feeders

2.5.2   Europe

3. Technology Issues

3.1  DVCA Components Overview

3.2  DVCAs

3.2.1   Next-Generation Big Data Analytics

3.2.2   Cloud Computing

3.2.3   Pervasive Wireless Sensors and Monitoring

3.2.4   Digital and Solid-State Replacement Technologies

3.2.5   Standardized Communication Technologies and Protocols

3.3  Key Existing Technologies

3.3.1   Distribution SCADA

3.3.2   FAN Communications

3.4  Management of Voltage in MV and LV Substations

3.4.1   Substation Voltage Regulation

3.5  Major DVCA Solutions

3.5.1   VAR Control

3.5.2   VVC

3.5.3   IVVC

3.5.4   DVO

3.5.5   CVR

3.5.6   GVVC

3.5.7   DVVC

3.6  DVCA Roadmap

4. Key Industry Players

4.1  Introduction

4.2  Power System Vendors

4.2.1   ABB

4.2.2   Alstom Group

4.2.3   Beckwith Electric

4.2.4   Cooper Power Systems (Eaton Corporation)

4.2.5   Dominion Voltage, Inc.

4.2.6   Efacec Advanced Control Systems

4.2.7   GE Digital Energy

4.2.8   GRIDiant

4.2.9   Gridco Systems

4.2.10   IUS Technologies

4.2.11   S&C Electric Company

4.2.12   Schneider Electric

4.2.13   Schweitzer Engineering Laboratories

4.2.14   Siemens

4.2.15   Utilidata

4.2.16   Silver Spring Networks

4.2.17   Varentec

4.3  Power Companies

4.3.1   AEP

4.3.2   Dominion Virginia Power

4.3.3   Duke Energy/Progress Energy

4.3.4   Exelon/PECO

4.3.5   Portland General Electric

4.3.6   Southern California Edison

4.3.7   Tennessee Valley Authority

5. Market Forecasts  

5.1  Introduction

5.2  Forecast Methodology

5.3  Global Revenue Forecast

5.4  Revenue Forecast by Component Segment

5.4.1   North America

5.4.2   Europe

5.4.3   Asia Pacific

5.4.4   Rest of World

5.5  Conclusions and Recommendations

6. Company Directory
7. Acronym and Abbreviation List
8. Table of Contents
9. Table of Charts and Figures
10. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • Cumulative DVCA Revenue by Solution Type, World Markets: 2014-2023
  • DVCA Revenue by Region, World Markets: 2014-2023
  • DVCA Revenue by Solution Type, World Markets: 2014-2023
  • DVCA Revenue by Component Segment, World Markets: 2014-2023
  • DVCA Revenue by Component Segment, North America: 2014-2023
  • DVCA Revenue by Solution Type, North America: 2014-2023
  • DVCA Revenue by Component Segment, Western Europe: 2014-2023
  • DVCA Revenue by Solution Type, Western Europe: 2014-2023
  • DVCA Revenue by Component Segment, Eastern Europe: 2014-2023
  • DVCA Revenue by Solution Type, Eastern Europe: 2014-2023
  • DVCA Revenue by Component Segment, Asia Pacific: 2014-2023
  • DVCA Revenue by Solution Type, Asia Pacific: 2014-2023
  • DVCA Revenue by Component Segment, Latin America: 2014-2023
  • DVCA Revenue by Solution Type, Latin America: 2014-2023
  • DVCA Revenue by Component Segment, Middle East & Africa: 2014-2023
  • DVCA Revenue by Solution Type, Middle East & Africa: 2014-2023
  • Simplified European and North American Distribution Network Architectures
  • CVR Benefit Compression
  • Distribution Grid Schematic Featuring Grid Edge Control
  • Utility Systems Communication Architecture in the Big Data Analytics Era
  • Illustration of a Typical SCADA Architecture
  • Example LTC
  • Example Pole-Mounted Capacitor Banks and Controller Packages
  • Example of DVO Technologies in a Pole-Mount Application
  • Illustration of CVR Configuration

List of Tables

  • Cumulative DVCA Revenue by Solution Type, World Markets: 2014-2023
  • Dynamic Volt/VAR Control Architectures
  • DVCA Revenue by Region, World Markets: 2014-2023
  • DVCA Revenue by Solution Type, World Markets: 2014-2023
  • DVCA Revenue by Solution Type, North America: 2014-2023
  • DVCA Revenue by Solution Type, Western Europe: 2014-2023
  • DVCA Revenue by Solution Type, Eastern Europe: 2014-2023
  • DVCA Revenue by Solution Type, Asia Pacific: 2014-2023
  • DVCA Revenue by Solution Type, Latin America: 2014-2023
  • DVCA Revenue by Solution Type, Middle East & Africa: 2014-2023
  • DVCA Revenue by Component Segment, World Markets: 2014-2023
  • DVCA Revenue by Component Segment, North America: 2014-2023
  • DVCA Revenue by Component Segment, Western Europe: 2014-2023
  • DVCA Revenue by Component Segment, Eastern Europe: 2014-2023
  • DVCA Revenue by Component Segment, Asia Pacific: 2014-2023
  • DVCA Revenue by Component Segment, Latin America: 2014-2023
  • DVCA Revenue by Component Segment, Middle East & Africa: 2014-2023
]]>
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Smart Cities http://www.navigantresearch.com/research/smart-cities http://www.navigantresearch.com/research/smart-cities#comments Sat, 28 Jun 2014 03:22:30 +0000 http://www.navigantresearch.com/?p=66715 Smart Cities
City leaders all over the world have embraced the smart city concept with enthusiasm. They are heralding innovative projects and laying out a vision for how cities can use technology to meet sustainability goals, boost local economies, and improve services. This commitment to changing how cities operate is driving the continued interest in smart cities. [...]]]>
Smart Cities

City leaders all over the world have embraced the smart city concept with enthusiasm. They are heralding innovative projects and laying out a vision for how cities can use technology to meet sustainability goals, boost local economies, and improve services. This commitment to changing how cities operate is driving the continued interest in smart cities. Moreover, the smart city concept is evolving as more cities set out their own agenda and a growing range of suppliers deliver solutions to meet their emerging needs.

Smart city technologies are being developed to address a range of issues, including energy management, water management, urban mobility, street lighting, and public safety, for example. These innovations are underpinned by general developments in areas such as wireless communications, sensor networks, data analytics, and cloud computing. The smart city concept is also driving new integrated approaches to city operations. Navigant Research forecasts that global smart city technology revenue will grow from $8.8 billion annually in 2014 to $27.5 billion in 2023.

This Navigant Research report examines the evolution of the global smart city market, detailing the impacts on key technology markets, including smart grids, water management, transportation, building energy efficiency, and government services. The study compares different approaches to the smart city and provides comprehensive profiles of noteworthy smart city projects in each major world region. Global forecasts of the size and growth of the market for smart city technologies, segmented by smart city industry sector and region, extend through 2023. The report also examines the significant market drivers and challenges related to smart cities, as well as the competitive landscape.

Key Questions Addressed:
  • What defines the smart city?
  • What are the key policy, technology, and economic issues that are influencing the development of smart cities?
  • Which smart technologies are having the biggest impact on smart cities?
  • How are smart cities shaping technology developments?
  • How do smart city concepts and projects differ around the world?
  • What financing models are being used in smart city development?
  • Who are the key players in the smart city market and how do they relate to each other?
  • How large is the global smart city technology market and how will growth vary by industry sector and region?
Who needs this report?
  • IT, networking, and telecommunications vendors
  • Smart grid hardware and software vendors
  • Building equipment and appliance vendors
  • Smart transportation providers
  • Energy management hardware and software vendors
  • Utilities
  • Government agencies
  • Investor community

Table of Contents

1. Executive Summary

1.1  The Evolution of the Smart City

1.2  Defining the Smart City

1.3  Market Drivers

1.4  The Role of Smart City Technologies

1.5  Emerging Themes

1.6  Market Opportunity

2. Market Issues

2.1  The Evolution of the Smart City Market

2.1.1   The Smart City: A Definition

2.2  Market Drivers

2.2.1   Urbanization

2.2.2   Sustainability

2.2.3   Economic Development

2.2.4   Improving Services and Quality of Life

2.3  The Building Blocks of a Smart City

2.3.1   Smart Energy and Smart Grids: Powering the Smart City

2.3.2   Smart Water: Solving a Global Issue

2.3.3   Smart Transportation: Rethinking Urban Mobility

2.3.4   Smart Buildings: Linking Buildings and Cities

2.3.5   Smart Government: Improving City Services

2.4  Emerging Themes

2.4.1   Focusing on the Role of the Citizen

2.4.2   Resilience

2.4.3   Big Data and the Smart City

2.5  Market Challenges

2.5.1   Finance

2.5.1.1  Developing a Holistic View of the City

2.5.1.2  Multiple Stakeholders

2.5.2   Citizen Engagement and Resistance

2.5.3   Privacy and Security

2.6  Market Dynamics: Leaders, Challengers, and New Entrants

3. Technology Issues

3.1  The Smart City Model

3.2  The Connected City

3.2.1   The SCOS and the IoT

3.2.2   The Communications Infrastructure of the Connected City

3.2.3   Developing a Robust and Scalable Architecture

3.2.4   The Evolution of Smart City Communications

3.3  The Benefits and Challenges of Big Data

3.3.1   The Impact of Big Data

3.3.2   The Importance of Open Data

3.3.3   The Challenges of Big Data

3.3.3.1  Data Integration

3.3.3.2  Balancing Top-Down and Bottom-Up Approaches

3.3.3.3  Lack of Data Skills

3.4  Visualizing the City

3.5  Smart City Standards

3.5.1   The Push for Standards

3.5.2   City Protocol

3.5.3   International Organization for Standardization

3.5.4   European Standards Organizations

3.5.5   United Kingdom: Smart City Framework

3.5.6   Smart Cities Council

4. Regional Trends and Case Studies

4.1  Introduction

4.2  North America

4.2.1   Urbanization Trends

4.2.1.1  United States

4.2.1.2  Canada

4.2.2   Setting an Agenda for Sustainability and Climate Change Action

4.2.3   Smart Grids and Smart Cities

4.2.4   Upgrading the Water Infrastructure

4.2.5   The New Mobility Agenda

4.2.6   New Approaches to Building Design and Management

4.2.7   Renewing City Government

4.2.8   Case Study: San Francisco, California

4.3  Europe

4.3.1   Urbanization Trends

4.3.2   Smart Cities and Europe’s Climate, Energy, and Economic Objectives

4.3.3   Building on Europe’s Cleantech Investments

4.3.4   Europe’s Digital Agenda

4.3.5   Smart Cities and Communities European Innovation Partnership

4.3.6   Other European-Wide Initiatives

4.3.7   National Smart City Trends

4.3.7.1  France

4.3.7.2  Germany

4.3.7.3  Spain

4.3.7.4  United Kingdom

4.3.7.5  Other European Countries

4.3.8   Case Study: Amsterdam, the Netherlands

4.3.9   Case Study: Barcelona, Spain

4.3.10 Case Study: Glasgow, United Kingdom

4.4  Asia Pacific

4.4.1   Urbanization Trends

4.4.2   China

4.4.3   Taiwan

4.4.4   India

4.4.5   Japan

4.4.6   Singapore

4.4.7   South Korea

4.4.8   Case Study: Ningbo, China

4.4.9   Case Study: Yokohama, Japan

4.4.10 Case Study: Christchurch, New Zealand

4.4.11  Case Study: Songdo, South Korea

4.5  Latin America

4.5.1   Urbanization Trends

4.5.2   Smart City Drivers and Case Studies

4.5.3   Case Study: Rio de Janeiro, Brazil

4.6  Middle East

4.6.1   Urbanization Trends

4.6.2   Smart City Drivers and Case Studies

4.7  Africa

4.7.1   Urbanization Trends

4.7.2   Smart City Drivers and Case Studies

5. Key Industry Players

5.1  Introduction

5.2  Global Smart City Providers

5.2.1   Accenture

5.2.2   Cisco Systems

5.2.3   Hitachi

5.2.4   IBM

5.2.5   Microsoft

5.2.6   SAP

5.2.7   Schneider Electric

5.2.8   Siemens

5.2.9   Toshiba

5.3  Other Players

5.3.1   ABB Tropos

5.3.2   AGT International

5.3.3   Atos

5.3.4   Autodesk

5.3.5   Capgemini

5.3.6   Cityzenith

5.3.7   Esri

5.3.8   Firetide

5.3.9   Honeywell International

5.3.10  Huawei

5.3.11  Itron

5.3.12  KT Corp.

5.3.13  Libelium

5.3.14 Living PlanIT

5.3.15 Oracle

5.3.16 Orange Group

5.3.17 OSIsoft

5.3.18 Silver Spring Networks

5.3.19 Urbiotica

5.3.20 Verizon Communications

5.3.21 Worldsensing

6. Market Forecasts   

6.1  Forecast Methodology

6.2  Smart City Market Growth

6.3  Industry Forecasts

6.3.1   Smart Energy

6.3.2   Smart Water

6.3.3   Smart Transportation

6.3.4   Smart Buildings

6.3.5   Smart Government

6.4  Regional Forecasts

6.4.1   North America

6.4.2   Europe

6.4.3   Asia Pacific

6.4.4   Latin America

6.4.5   Middle East & Africa

6.5  Conclusions and Recommendations

7. Company Directory
8. Acronym and Abbreviation List
9. Table of Contents
10. Table of Charts and Figures
11. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • Smart City Technology Annual Revenue by Region, World Markets: 2014-2023
  • Fastest-Growing Megacities by Annual Growth Rate, World Markets: 2010-2025
  • Distribution of Government Expenditures by Level of Government, Select OECD Countries: 2009
  • Smart City Technology Annual Revenue by Region, World Markets: 2014-2023
  • Smart City Technology Cumulative Revenue by Region, World Markets: 2014-2023
  • Smart City Technology Annual Revenue by Industry, World Markets: 2014-2023
  • Smart City Technology Annual Revenue by Industry, North America: 2014-2023
  • Smart City Technology Annual Revenue by Industry, Europe: 2014-2023
  • Smart City Technology Annual Revenue by Industry, Asia Pacific: 2014-2023
  • Smart City Technology Annual Revenue by Industry, Latin America: 2014-2023
  • Smart City Technology Annual Revenue by Industry, Middle East & Africa: 2014-2023
  • Navigant Research Smart City Model
  • Number of Cities Greater Than 50,000 Inhabitants by Country, European Union

List of Tables

  • Fastest-Growing Megacities by Annual Growth Rate, World Markets: 2010-2025
  • Distribution of Government Expenditures by Level of Government, Select OECD Countries: 2009
  • Smart City Applications and Technologies
  • Largest Cities* by Population and Growth Rate, United States: 2010 and 2025
  • Example City Sustainability Programs, United States
  • Example Smart Grid Smart City Projects, Europe
  • Largest Cities by Population and Growth Rate, Latin America: 2010 and 2025
  • Largest Cities by Population and Growth Rate, Middle East: 2010 and 2025
  • Largest Cities by Population and Growth Rate, Africa: 2010 and 2025
  • Smart City Technology Annual Revenue by Region, World Markets: 2014-2023
  • Smart City Technology Cumulative Revenue by Region, World Markets: 2014-2023
  • Smart City Technology Annual Revenue by Industry, World Markets: 2014-2023
  • Smart City Technology Cumulative Revenue by Industry, World Markets: 2014-2023
  • Smart City Smart Energy Technology Annual Revenue by Region, World Markets: 2014-2023
  • Smart City Smart Water Technology Annual Revenue by Region, World Markets: 2014-2023
  • Smart City Smart Transportation Technology Annual Revenue by Region, World Markets: 2014-2023
  • Smart City Smart Buildings Technology Annual Revenue by Region, World Markets: 2014-2023
  • Smart City Smart Government Technology Annual Revenue by Region, World Markets: 2014-2023
  • Smart City Technology Annual Revenue by Industry and Country, North America: 2014-2023
  • Smart City Technology Annual Revenue by Industry and Country, Europe: 2014-2023
  • Smart City Technology Annual Revenue by Industry and Country, Asia Pacific: 2014-2023
  • Smart City Technology Annual Revenue by Industry and Country, Latin America: 2014-2023
  • Smart City Technology Annual Revenue by Industry, Middle East & Africa: 2014-2023
  • Accenture SWOT Analysis
  • Cisco SWOT Analysis
  • Hitachi SWOT Analysis
  • IBM SWOT Analysis
  • Microsoft SWOT Analysis
  • SAP SWOT Analysis
  • Schneider Electric SWOT Analysis
  • Siemens SWOT Analysis
  • Toshiba SWOT Analysis
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Smart Street Lighting http://www.navigantresearch.com/research/smart-street-lighting http://www.navigantresearch.com/research/smart-street-lighting#comments Fri, 27 Jun 2014 04:58:53 +0000 http://www.navigantresearch.com/?p=66414 Smart BuildingsSmart Cities
Falling prices for light-emitting diode (LED) street lights have spurred a global transition from older lamp technologies to the newer, more efficient, and more controllable lamp technology. Prices for LED street lighting have come down to the point where payback periods are becoming reasonable with or without subsidies. Residents in cities worldwide are appreciating the [...]]]>
Smart BuildingsSmart Cities

Falling prices for light-emitting diode (LED) street lights have spurred a global transition from older lamp technologies to the newer, more efficient, and more controllable lamp technology. Prices for LED street lighting have come down to the point where payback periods are becoming reasonable with or without subsidies. Residents in cities worldwide are appreciating the improved nighttime visibility provided by the whiter light of LED street lights. Meanwhile, city managers are enjoying the cost savings that come from the resulting reduction in both energy consumption and maintenance costs.

Although the LED transition is in large part driving the adoption of new networked street light systems, most LED upgrades continue to be completed without any additional controls beyond simple photocells. After years of pilot control projects, however, a growing number of large-scale networked systems have proven that networked systems can work and can provide real benefits. These smart street lighting systems can provide substantial energy savings and a host of non-energy benefits. Yet, as LED prices continue to erode and the long lifespan of LED lamps results in fewer replacements, overall revenue from street lighting will begin to fall. Navigant Research forecasts that global street lighting revenue will decline from $2.5 billion in 2014 to $2.3 billion in 2023.

This Navigant Research report analyzes the global market for roadway and highway lighting. The study provides an analysis of the market issues, including drivers and trends, barriers, and ownership models, associated with lamps, luminaires, and lighting controls in these street lighting applications. Global market forecasts for unit sales and revenue, segmented by region, application, and equipment and construction type, extend through 2023. The report also examines the key codes, standards, and technologies related to street lighting, as well as the competitive landscape.

Key Questions Addressed:
  • How do changing codes and regulations around street lighting affect the adoption of LED lamps and lighting controls?
  • What are some potential ways to address the barriers hindering the adoption of street lighting controls?
  • What are the advantages and disadvantages of different lighting control and communications strategies?
  • Which companies are developing innovative new lighting products and techniques for city managers?
  • How quickly will LED lamps be adopted on roadways and highways?
  • What is the outlook for lamps, luminaires, and lighting control equipment and software in each world region?
  • How are various established and startup companies positioned for success in the lighting controls market?
Who needs this report?
  • Lamp, luminaire, and control equipment manufacturers and suppliers
  • City managers
  • Electric utilities
  • Energy service companies (ESCOs)
  • Smart grid application vendors
  • Energy regulators and policymakers
  • Standards development organizations
  • Investor community

Table of Contents

1. Executive Summary

1.1  Introduction

1.2  Key Market Drivers

1.3  Forecast Highlights

2. Market Issues

2.1  Market Overview

2.1.1   From LED Deployments to Networked Systems

2.1.2   Smart Street Lighting and Smart Cities

2.1.3   Smart Street Lighting and Other Intelligent Systems

2.2  Street Lighting Categories

2.2.1   Highways

2.2.2   Roadways

2.3  Drivers and Trends Affecting Adoption

2.3.1   Falling LED prices

2.3.2   Smart City Investment

2.3.3   IoT

2.3.4   Desire to Reduce Carbon Emissions

2.3.5   Emergency Response

2.3.6   Light Pollution

2.3.7   Growing Expectation of Control

2.4  The Impact of Codes and Standards

2.4.1   New National Electrical Manufacturers Association Receptacle Standard

2.4.2   IES Standard RP-8-00

2.5  Barriers and Challenges

2.5.1   Ownership and Tariffs

2.5.2   Privacy Concerns

2.5.3   Lack of Understanding and Awareness

2.5.4   Liability

2.6  Financial Considerations

2.6.1   Municipally Owned

2.6.2   Utility Owned

2.6.3   ESCO Owned

2.7  Regional Drivers and Trends

2.7.1   United States

   2.7.1.1  Lighting Regulations in the United States

2.7.2   Canada

   2.7.2.1  Lighting Regulations in Canada

2.7.3   Europe

   2.7.3.1  Lighting Regulations in Europe

   2.7.3.2  Germany

   2.7.3.3  France

   2.7.3.4  United Kingdom

2.7.4   Asia Pacific

   2.7.4.1  China

   2.7.4.2  Japan

   2.7.4.3  India

   2.7.4.4  Australia and New Zealand

2.7.5   Latin America

2.7.6   Middle East & Africa

3. Technology Issues

3.1  Lamp Types

3.1.1   Incandescent

3.1.2   Fluorescent

3.1.3   LPS

3.1.4   Mercury Vapor

3.1.5   HPS

3.1.6   Metal Halide

3.1.7   Induction

3.1.8   LED

3.2  White Light Benefits and Challenges

3.3  Lumen Depreciation

3.4  Local Control Technologies

3.4.1   Astronomical Timer

3.4.2   Ambient Light Sensing

3.4.3   Motion Monitoring

3.5  Network Technologies

3.5.1   PLC

3.5.2   RF Controls

3.6  Control Opportunities with Networked Systems

3.6.1   Performance Monitoring

3.6.2   Traffic Conditions

3.6.3   Weather Conditions

3.6.4   Emergency Response

3.6.5   Smart Grid Synergies

3.7  Technology Trends

3.7.1   Solar Lighting

3.7.2   Directionality

3.8  Smart Street Lighting Business Case

4. Key Industry Players   

4.1  Lamp and LED Vendors

4.1.1   Bridgelux

4.1.2   Cree

4.1.3   GE Lighting

4.1.4   OSRAM

4.1.5   Philips

4.2  Luminaire Vendors

4.2.1   Acuity Brands

4.2.2   Eaton Corp. Electrical Group/Cooper Lighting

4.2.3   Hubbell Lighting

4.2.4   Panasonic

4.2.5   Sol

4.2.6   Thorn Lighting/Zumtobel Group

4.3  Controls Vendors

4.3.1   Echelon

4.3.2   Flashnet

4.3.3   Illuminating Concepts

4.3.4   ITOCHU

4.3.5   Schneider Electric

4.3.6   SELC

4.3.7   Sensus

4.3.8   Streetlight.Vision/Silver Spring Networks

4.3.9   Tvilight

4.4  Industry Associations

4.5  Government Regulators and Programs

5. Market Overview  

5.1  Forecast Overview

5.2  Forecast Methodology

5.3  Installed Base

5.4  Unit Shipment Forecasts by Lamp Type, Application, and Region

5.4.1   Luminaire Unit Shipments

5.4.2   Lamp Unit Shipments

5.4.3   Control Node Unit Shipments

5.4.4   Control System Unit Shipments

5.5  Revenue Forecasts by Region and Lamp and Equipment Type

5.5.1   North America

5.5.2   Europe

5.5.3   Asia Pacific

5.5.4   Latin America

5.5.5   Middle East & Africa

5.6  LED Lamp and Luminaire Revenue by Region

5.7  Luminaire Revenue by Construction Type and Region

5.8  Conclusions and Recommendations

6. Company Directory
7. Acronym and Abbreviation List
8. Table of Contents
9. Table of Charts and Figures
10. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • Street Lighting Revenue by Lamp and Equipment Type, World Markets: 2014-2023
  • Luminaire Installed Base by Lamp Type, World Markets: 2014-2023
  • Luminaire Unit Shipments by Lamp Type and Application, World Markets: 2014-2023
  • Lamp Unit Shipments by Lamp Type and Application, World Markets: 2014-2023
  • Control Node Unit Shipments by Lamp Type and Application, World Markets: 2014-2023
  • Control System Unit Shipments by Region, World Markets: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, North America: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, Europe: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, Asia Pacific: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, Latin America: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, Middle East & Africa: 2014-2023
  • LED Lamp and Luminaire Revenue by Region, World Markets: 2014-2023
  • Luminaire Revenue by Construction Type and Region, World Markets: 2014-2023
  • Concept for Street Light Based on Smart City Applications
  • Suitability of Lamp Technology by Street Lighting Category
  • LED Costs by Component: 2011-2020
  • Options for Street Light Trespass
  • Thorn Jet-1 Luminaire with Old NEMA Socket on Top
  • Using Adaptive Lighting Controls While Staying within RP-8-00 Minimums
  • LPS Lamp
  • Mercury Vapor Light
  • HPS Light
  • LED Street Light
  • Average Illuminance and Detection Distances
  • Echelon Map for PLC with Street Lights
  • Example of an RF Mesh Network
  • Example of an RF Point-to-Multipoint Network
  • Potential Savings from Various Smart Street Lighting Setups

List of Tables

  • Lamp Technology Summary
  • Luminaire Installed Base by Lamp Type and Region, World Markets: 2014-2023
  • Luminaire Installed Base by Lamp Type, World Markets: 2014-2023
  • Luminaire Installed Base by Lamp Type and Application, World Markets: 2014-2023
  • Luminaire Unit Shipments by Lamp Type and Region, World Markets: 2014-2023
  • Luminaire Unit Shipments by Lamp Type, World Markets: 2014-2023
  • Luminaire Unit Shipments by Lamp Type and Application, World Markets: 2014-2023
  • Lamp Unit Shipments by Lamp Type and Region, World Markets: 2014-2023
  • Lamp Unit Shipments by Lamp Type, World Markets: 2014-2023
  • Lamp Unit Shipments by Lamp Type and Application, World Markets: 2014-2023
  • Control Node Unit Shipments by Lamp Type and Region, World Markets: 2014-2023
  • Control Node Unit Shipments by Lamp Type, World Markets: 2014-2023
  • Control Node Unit Shipments by Lamp Type and Application, World Markets: 2014-2023
  • Control System Unit Shipments by Region, World Markets: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, North America: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, Europe: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, Asia Pacific: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, Latin America: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, Middle East & Africa: 2014-2023
  • Street Lighting Revenue by Lamp and Equipment Type, World Markets: 2014-2023
  • LED Lamp and Luminaire Revenue by Region, World Markets: 2014-2023
  • Luminaire Revenue by Construction Type and Region, World Markets: 2014-2023
  • Industry Associations
  • Government Regulators and Programs
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Smart Waste http://www.navigantresearch.com/research/smart-waste http://www.navigantresearch.com/research/smart-waste#comments Wed, 25 Jun 2014 23:06:52 +0000 http://www.navigantresearch.com/?p=66284 Smart BuildingsSmart Cities
While one of the key measures of a society’s advance is the degree to which it can distance itself from its trash, waste is increasingly viewed as a strategic resource. In developed economies, tightening regulations around the disposal of waste and the increasing cost of landfilling are driving demand for innovative solutions across the municipal [...]]]>
Smart BuildingsSmart Cities

While one of the key measures of a society’s advance is the degree to which it can distance itself from its trash, waste is increasingly viewed as a strategic resource. In developed economies, tightening regulations around the disposal of waste and the increasing cost of landfilling are driving demand for innovative solutions across the municipal solid waste (MSW) value chain. In developing economies, the focus is on building out basic infrastructure in the face of rapid urbanization and rising levels of affluence. In all cases, emerging smart technologies offer the opportunity to enhance MSW collection, generate renewable energy, and optimize the environmental performance of landfills.

The emerging smart waste market is expected to grow rapidly over the next decade. Although Europe and North America are the most mature markets today, Asia Pacific is expected to see its share of MSW managed by smart technologies more than double between 2014 and 2023. Smart energy recovery, which includes facilities like incineration plants, landfill gas capture projects, and advanced biorefineries, is the most mature smart waste segment. Yet, high capital costs and the localized focus of waste management services remain key impediments to greater smart technology diffusion in the waste sector. Navigant Research forecasts that annual smart MSW technology revenue will grow from $2.3 billion in 2014 to $6.5 billion in 2023.

This Navigant Research report analyzes the global market for smart MSW technologies, with a focus on four segments: smart collection, smart processing, smart energy recovery, and smart disposal. Global market forecasts for the volume of MSW generated and managed globally and the revenue generated from the deployment of smart waste technologies, segmented by geography and smart waste segment, extend through 2023. This report also examines key stakeholder initiatives, regulatory issues, market drivers, challenges, and technology developments and profiles the major stakeholders across the MSW value chain.

Key Questions Addressed:
  • What is the current addressable market for smart waste technologies?
  • Which regions show the greatest opportunity for smart municipal solid waste (MSW) technology investment?
  • What are the regulatory, technological, and economic market drivers for smart waste technologies?
  • How are advanced technologies disrupting the traditional MSW value chain?
  • Why is energy recovery so far ahead of other smart MSW technologies segments with respect to revenue?
  • Who are the key stakeholders in the emerging smart MSW value chain?
  • What are the emerging opportunities for MSW as a strategic resource?
Who needs this report?
  • Waste management companies
  • Municipal waste utilities
  • Software/IT companies
  • Energy recovery companies
  • Advanced biofuels producers
  • Industry associations
  • Government agencies and policymakers
  • Investor community

Table of Contents

1. Executive Summary

1.1  The Evolving MSW Management Market

1.2  The Smart MSW Technology Opportunity

1.3  Smart MSW Technology Market Trends

1.4  Market Forecasts

2. Market Issues

2.1  The MSW Opportunity

2.1.1   Understanding Waste Streams

2.1.2   Global MSW Generation

2.1.3   Regional MSW Composition

2.1.4   MSW, Urbanization, and Rising Levels of Affluence

   2.1.4.1  Urbanization and Waste Generation

   2.1.4.2  The Rise of the Global Middle Class

   2.1.4.3  Megacities: A Super-Sized Challenge

2.2  Defining the Smart MSW Management Value Chain

2.2.1   Low-Income Country Value Chain

2.2.2   Low- and Upper-Middle-Income Country Value Chain

2.2.3   High-Income Country Value Chain

2.3  Market Drivers

2.3.1   Public Health and Environmental Security

2.3.2   Urbanization and Sprawl

2.3.3   MSW as a Strategic Resource

   2.3.3.1  A Negative Cost Feedstock

   2.3.3.2  The Rise of Landfill Mining

2.4  Market Challenges

2.4.1   Waste Composition

2.4.2   Out-of-Sight, Out-of-Mind

2.4.3   Not in My Backyard

2.4.4   Cost

2.4.5   Policy Uncertainty

   2.4.5.1  Climate Change and GHG Regulation

   2.4.5.2  Evolving Waste Management Policies

2.4.6   Shale Gas

2.5  An Emerging Policy Framework

2.5.1   The Waste Management Hierarchy

2.5.2   Zero Waste Initiatives

2.5.3   Incentives

   2.5.3.1  Landfill Taxes

   2.5.3.2  Pay-as-You-Throw

2.5.4   Energy Recovery

   2.5.4.1  Renewable Power and Thermal Targets

   2.5.4.2  Next-Generation Fuels

3. Technology Issues

3.1  MSW Innovations

3.2  Smart Collection

3.2.1   RFID Technology

   3.2.1.1  RFID and PAYT Programs

   3.2.1.2  Internet of Garbage Cans

   3.2.1.3  RFID and Waste Sorting

3.2.2   GPS Routing Systems and Data Analytics

3.2.3   Vacuum (Pneumatic) Systems

3.2.4   Fuel Switching

3.3  Smart Processing

3.3.1   Advanced MRFs

3.3.2   Mechanical Biological Treatment

3.3.3   RDF Facilities

3.4  Smart Energy Recovery

3.4.1   WTE

   3.4.1.1  Incineration

      3.4.1.1.1.    Incineration Variants

      3.4.1.1.2.    Advanced Thermal Recycling

   3.4.1.2  Biological Treatment

      3.4.1.2.1.    Direct Use

      3.4.1.2.2.    Electricity Generation

      3.4.1.2.3.    Vehicular Use

   3.4.1.3  Advanced Thermal Treatment

      3.4.1.3.1.    Gasification

      3.4.1.3.2.    Pyrolysis

      3.4.1.3.3.    Plasma Arc Gasification

3.4.2   W2F

3.5  Smart Disposal

3.5.1   Sanitary Landfills

3.5.2   Bioreactor Landfills

3.5.3   Landfill and Solar Integration

4. Key Industry Players

4.1  Integrated Waste Management Players

4.1.1   Beijing Capital Group Company

4.1.2   Republic Services

4.1.3   Suez Environnement

4.1.4   Veolia Environmental Services

4.1.5   Waste Management

4.1.6   Other Integrated Waste Management Players

4.2  Specialized Waste Management Technology and Solutions Players

4.2.1   Covanta Holding Corp.

4.2.2   Enerkem

4.2.3   Envac Group

4.2.4   Fiberight

4.2.5   Harvest Power

4.2.6   Inashco

4.2.7   Leidos

4.2.8   MBA Polymers

4.2.9   Rockwell Automation

4.2.10    Ros Roca Environment

4.2.11    Sims Metal Management

4.2.12   Solena Fuels

4.2.13    Wheelabrator Technologies

4.2.14    Other Technology and Solutions Players

5. Market Forecasts

5.1  Smart MSW Technology Market Overview

5.2  Forecast Assumptions

5.3  Smart MSW Technology Forecasts by Segment

5.3.1   Smart Collection

5.3.2   Smart Processing

5.3.3   Smart Energy Recovery

5.3.4   Smart Disposal

5.4  Smart MSW Technology Forecasts by Region

5.4.1   North America

5.4.2   Western Europe

5.4.3   Asia Pacific

5.5     Conclusions and Recommendations

6. Company Directory
7. Acronym and Abbreviation List
8. Table of Contents
9. Table of Charts and Figures
10. Scope of Study, Sources and Methodology, Notes

List of Charts and Figures

  • Cumulative Smart MSW Technology Revenue by Region, World Markets: 2014-2023
  • MSW Generation Volume Share by Region, World Markets: 2014-2023
  • MSW Composition by Country, Select Markets: 2012
  • Waste Generation per Capita to Gross National Income Ratio, World Markets: 2014
  • Typical MSW Disposal Methods by Country Type, Representative Markets: 2012
  • Volume of Biofuels Supply Targets by Key Market, World Markets: 2014-2023
  • WTE Incineration Plant Market Share by Region, World Markets: 2013
  • RNG Production by Region, World Markets: 2014-2023
  • Annual MSW under Smart Management by Region, World Markets: 2014-2023
  • Annual MSW Management Revenue by Technology Type, World Markets: 2014-2023
  • Annual Smart MSW Technology Revenue by Segment, World Markets: 2014-2023
  • Annual Smart Collection Revenue by Region, World Markets: 2014-2023
  • Annual Smart Processing Revenue by Region, World Markets: 2014-2023
  • Annual Smart Energy Recovery Revenue by Region, World Markets: 2014-2023
  • Annual Smart Disposal Revenue by Region, World Markets: 2014-2023
  • Annual Smart MSW Technology Revenue by Segment, North America: 2014-2023
  • Annual Smart MSW Technology Revenue by Segment, Western Europe: 2014-2023
  • Annual Smart MSW Technology Revenue by Segment, Asia Pacific: 2014-2023
  • Percentage of Population at Mid-Year Residing in Urban Areas by Region: 1950-2030
  • Map of World’s Megacities: 2006
  • MSW Management Value Chain
  • Artist’s Rendering of Amagerforbraending Facility
  • Waste Management Hierarchy
  • Smart MSW Technology Landscape
  • WTE Incineration Diagram

List of Tables

  • Estimated Solid Waste Management Costs by Disposal Method, World Markets: 2012
  • Waste Power and Thermal Policy Targets by Country, World Markets: 2014
  • Annual MSW Generation and Management by Segment and Region (Tons), World Markets: 2014-2023
  • Annual MSW Generation and Management by Segment and Region (Tonnes), World Markets: 2014-2023
  • MSW Composition by Country, Select Markets: 2012
  • Waste Generation Indicators by Country, Select Markets: 2013
  • Typical MSW Disposal Methods by Country Type, Representative Markets: 2012
  • Volume of Biofuels Supply Targets by Key Market, World Markets: 2014-2023
  • Commercialization Status of WTE Technologies, World Markets: 2014
  • Biogas Utilization Efficiency in Conversion Technologies
  • W2F Commercial Biorefinery Projects, World Markets: 2014
  • LFG Collection Efficiencies by Landfill Type
  • WTE Incineration Plant Market Share by Region, World Markets: 2013
  • RNG Production by Region, World Markets: 2014-2023
  • MSW Collection Rate by Region, World Markets: 2012-2023
  • MSW Managed by Region, World Markets: 2012-2023
  • MSW Not Managed by Region, World Markets: 2012-2023
  • Annual Smart MSW Technology Revenue by Segment and Region, World Markets: 2014-2023
  • Smart Waste Management as a Share of Total MSW Generation by Region, World Markets: 2014-2023
  • Annual MSW under Smart Management by Region, World Markets: 2014-2023
  • Cumulative Smart MSW Technology Revenue by Region, World Markets: 2014-2023
  • Total MSW Management Revenue by Region, World Markets: 2014-2023
  • Annual MSW Management Revenue by Region, World Markets: 2014-2023
  • Annual MSW Management Revenue by Technology Type, World Markets: 2014-2023
  • Other Integrated Waste Management Companies
  • Other Integrated Waste Management Players
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