E.1 Introduction
E.2 Summary of Opportunities for Sensing and Monitoring Systems in the Smart Grid
E.2.1 Energy Monitoring and Equipment Monitoring Applications for Sensors
E.2.2 Sensors for Load Balancing for Alternative Energy Sources
E.2.3 Sensors for Energy Storage Requirements in Smart Grids
E.3 Smart Grid Sensing and Monitoring Opportunities for Firms Outside the Electricity Industry
E.3.1 Telecom Companies
E.3.2 Software Companies
E.3.3 Chip Companies
E.4 Key Players in the Smart Grid Energy Sensor Space
E.4.1 Firms to Watch from the T&D Space
E.4.2 Firms to Watch in the HAN Sensing Space
E.4.3 Firms to Watch in Smart Grid Sensor Networks
E.4.4 Firms to Watch in the Sensor Hardware Space
E.4.5 A Few Other Firms to Watch
E.5 Summary of Eight-Year Forecasts for Smart Grid Sensing and Monitoring Systems
Chapter One: Introduction
1.1 Background to This Report
1.1.1 Sensing Technology Trends in the Smart Grid
1.1.2 Who Will Make Money from the Smart Grid Sensing Business?
1.2 Objective and Scope of This Report
1.3 Methodology of This Report
1.4 Plan of This Report
Chapter Two: Drivers and Technologies for Smart Grid Sensing, Monitoring and Control Systems
2.1 Why Smart Grid Operators Will Buy Smart Grid Sensing, Monitoring and Control Systems
2.1.1 Need for Enhanced Grid Efficiency
2.1.2 Avoidance of Disruption by Outages and Increased Reliability
2.1.3 Impact of Renewable Energy Sources on T&D System Efficiency
2.1.4 Sensors and FACTS
2.1.5 Sensors and Energy Storage
2.2 Current and Future Functional Requirements for Smart Grid Monitoring, Sensing and Control Systems
2.2.1 Enhanced Maintenance Requirements
2.2.2 Outage Management
2.2.3 Load Forecasting and Systems Planning
2.2.4 Improved Energy Trading Operations
2.2.5 Improved Analysis of and Response to Consumer Needs and Behavior
2.2.6 Simulation and Training
2.3 Technical and Market Requirements for Sensors in the Smart Grid
2.3.1 Consensus Views on Sensor Deployment Roadmaps for Smart Grids
2.4 Smart Grids and Sensor Technology Advances
2.4.1 Radio Backscatter Technology: Splice Sensing and Insulation Contamination Detection
2.4.2 Piezoelectric Materials: Inspection of Structural Members
2.4.3 Conductive Polymers: Electrochemical Analysis
2.4.4 New Product Directions for Smart Grid Sensors
2.4.5 Smart Grid Electrical Storage Specific Sensor Issues
2.4.6 AMI and Sensing
2.5 Software Trends and Monitoring/Control in the Smart Grid
2.5.1 Evolution and Advances in Geographic Information Systems
2.5.2 Software and Security Issues Associated with Smart Grid Sensors
2.6 Smart Grid Sensor Opportunities in the Electrical Distribution Network (Substation- To-Customer Smart Meter)
2.6.1 Role of Sensors: Current Opportunities and Future Evolution in the Distribution Network
2.6.2 Smart Sensor Networks and Opportunities to Improve Efficiency and Reliability in the Distribution Grid
2.6.3 Key Trends in Remote Equipment Inspection and Communication in the Distribution Network
2.6.4 Sensors and the Integration of Distributed Generation, "Smart Grid Islands" and Grid Storage in the Distribution Network
2.7 Smart Grid Sensor Opportunities in the Home Area Network (HAN)
2.7.1 Role of Sensors, Current Opportunities and Future Evolution in HANs
2.7.2 Smart-Sensor Networks and Opportunities to Improve Efficiency in HANs
2.7.3 Time-of-Use (TOU) Pricing and Its Effect on Smart HAN Markets
2.7.4 Integration of Micro-Generation, "Micro-Island" Grids, Plug-In Hybrids (PEHV) and Grid Storage in HANs
2.8 Smart Grid Sensor Opportunities in Electrical Transmission (Generation Site to Substations)
2.8.1 Role of Sensors: Current Opportunities and Future Evolution in the Transmission Network
2.8.2 Smart-Sensor Networks and Opportunities to Improve Efficiency and Reliability
2.8.3 Key Trends in Remote Equipment Inspection and Communication
2.8.4 Integration of Distributed Generation, Renewable Assets, and Grid Storage in the Transmission Networks
2.9 Smart Grid Standards and Monitoring Systems
2.10 Key Points in this Chapter
Chapter Three: Products and Markets for Smart Grid Sensing, Monitoring and Control Systems
3.1 Next-Generation SCADA Systems
3.1.1 Future Enhancements of SCADA Systems
3.1.2 Leading Advanced SCADA System Products: Some Examples
3.1.3 Who are the Key Buyers for Advanced SCADA Systems?
3.2 Remote Equipment Inspection and Control
3.2.1 Transformer Monitoring Systems and Services
3.2.2 Wide-Area Measurement Systems (WAMS)
3.2.3 Leading Remote Inspection and Control Systems and Services
3.3 Systems for Monitoring AMI Networks and HANs
3.3.1 Leading Monitoring Systems for AMI Networks and Their Functionality
3.3.2 What Kind of Grid Monitoring will be Required for HANS?
3.4 Monitoring and Control in the Transmission Grid
3.4.1 What Kinds of Monitoring and Control Does the Transmission Grid Need?
3.4.2 Examples of Transmission Monitoring and Control Systems and Their Functionality
3.5 Specialist Systems for Monitoring and Control of Renewable Energy Systems
3.5.1 Systems Used for Monitoring and Control of Wind Facilities
3.5.2 Systems Used for Monitoring and Control of Solar Facilities
3.5.3 Renewable Integration Monitoring Systems (RIMS)
3.6 Monitoring and Control of Grid Energy Storage Systems
3.7 Key Points in this Chapter
Chapter Four: Eight-Year Forecasts of Smart Grid Sensing, Monitoring and Control Systems
4.1 Forecasting Methodology
4.1.1 Data Sources
4.2 Forecast of System Shipments by System Type and Functionality
4.2.1 Transformer Monitoring Markets
4.2.2 Advanced SCADA Systems
4.2.3 Monitoring Systems for AMI and HANs
4.2.4 Eight-Year Smart Grid Sensor Forecast for HAN Applications
4.2.5 Renewable Integration Monitoring Systems
4.2.6 Sensors for Distribution Networks
4.2.7 Eight-Year Smart Grid Sensor Forecast for Transmission Network Applications
4.3 Monitoring Service Revenue Forecasts
4.4 Summary of Market Forecasts for Sensing and Monitoring Revenues
4.4.1 Regional Shares of Market
Acronyms and Abbreviations Used In this Report
About the Authors
List of Exhibits
Exhibit E-1: Smart Grid Monitoring: Summary of Eight-Year Forecasts ($ Millions)
Exhibit E-2:Smart Grid Sensing Devices and Subsystems: Summary of Eight-Year Forecasts ($ Millions)
Exhibit 2-1: Selected Sensor-Related Technical Developments and Trends in the Smart Grid Industry.
Exhibit 3-1:Traditional Communications Used for SCADA.
Exhibit 3-2:Selected Advanced SCADA Projects in the U.S. With Buyers
Exhibit 4-1: Smart Grid Transformer Monitoring Markets
Exhibit 4-2: Advanced SCADA System Markets
Exhibit 4-3: AMI Monitoring Markets
Exhibit 4-4:Penetration of Smart Sensors in Home Area Networks (Percent)
Exhibit 4-5:Global Smart Grid Sensor Volume for HAN by Sensor Type (Millions of Sensors)
Exhibit 4-6: Revenue for Smart Grid Sensors in Home Area Network ($ Millions)
Exhibit 4-7:Volume for Smart-Enabled Sensors in Home Area Network Applications by Region.
Exhibit 4-8: Revenue for Smart-Enabled Sensors in Home Area Network Applications by Region.
Exhibit 4-9:Renewable Energy Management Systems
Exhibit 4-10: Volume of Smart-Enabled Sensors on Distribution Networks (Millions of Sensors)
Exhibit 4-11: Revenue for Smart-Enabled Sensors on Distribution Networks ($ Millions)
Exhibit 4-12: Volume for Smart-Enabled Sensors in Distribution Network Applications by Region.
Exhibit 4-13: Revenue for Smart-Enabled Sensors in Distribution Network Applications by Region.
Exhibit 4-14: Volume of Smart-Enabled Sensors on Transmission Networks
Exhibit 4-15: Revenue for Smart-Enabled Sensors on Transmission Networks ($ Millions)
Exhibit 4-16: Volume for Smart Sensors in Transmission Network Applications by Region (Millions)
Exhibit 4-17: Revenue for Smart Sensors in Transmission Network Applications by Region.
Exhibit 4-18: Smart Grid Monitoring Service Revenues
Exhibit 4-19: Worldwide Smart Grid Sensors and Monitoring Revenues ($ Millions)
Exhibit 4-20: Smart Grid Sensor Revenues by Region.
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