<p><em>Building an Effective Security Program</em> provides readers with a comprehensive approach to securing the IT systems in use at their organizations. This book provides information on how to structure and operate an effective cybersecurity program that includes people, processes, technologies,
Building an Effective Security Program for Distributed Energy Resources and Systems
â Scribed by Mariana Hentea
- Publisher
- Wiley
- Year
- 2021
- Tongue
- English
- Leaves
- 605
- Edition
- 1
- Category
- Library
No coin nor oath required. For personal study only.
⌠Synopsis
Building an Effective Security Program for Distributed Energy Resources and Systems
Build a critical and effective security program for DERs
Building an Effective Security Program for Distributed Energy Resources and Systems requires a unified approach to establishing a critical security program for DER systems and Smart Grid applications. The methodology provided integrates systems security engineering principles, techniques, standards, and best practices.
This publication introduces engineers on the design, implementation, and maintenance of a security program for distributed energy resources (DERs), smart grid, and industrial control systems. It provides security professionals with understanding the specific requirements of industrial control systems and real-time constrained applications for power systems. This book:
- Describes the cybersecurity needs for DERs and power grid as critical infrastructure
- Introduces the information security principles to assess and manage the security and privacy risks of the emerging Smart Grid technologies
- Outlines the functions of the security program as well as the scope and differences between traditional IT system security requirements and those required for industrial control systems such as SCADA systems
- Offers a full array of resourcesâ cybersecurity concepts, frameworks, and emerging trends
Security Professionals and Engineers can use Building an Effective Security Program for Distributed Energy Resources and Systems as a reliable resource that is dedicated to the essential topic of security for distributed energy resources and power grids. They will find standards, guidelines, and recommendations from standards organizations, such as ISO, IEC, NIST, IEEE, ENISA, ISA, ISACA, and ISF, conveniently included for reference within chapters.
⌠Table of Contents
Cover
Title Page
Copyright Page
Contents
Foreword
Preface
Acknowledgments
Part I Understanding Security and Privacy Problem
Chapter 1 Security
1.1 Introduction
1.2 Smart Grid
1.2.1 Traditional Power Grid Architecture
1.2.2 Smart Grid Definitions
1.2.3 Drivers for Change
1.2.4 Smart Grid Communication Infrastructure
1.3 Distributed Energy Resources
1.3.1 DER Characteristics
1.3.2 DER Uses
1.3.3 DER Systems
1.3.4 Microgrid
1.3.5 Virtual Power Plant
1.4 Scope of Security and Privacy
1.4.1 Security for the Smart Grid
1.4.2 Privacy
1.4.3 The Need for Security and Privacy
1.5 Computing and Information Systems for Business and Industrial Applications
1.5.1 Information System Classification
1.5.2 Information Systems in Power Grids
1.5.3 DER Information Systems
1.6 Integrated Systems in a Smart Grid
1.6.1 Trends
1.6.2 Characteristics
1.7 Critical Smart Grid Systems
1.7.1 Industrial Control Systems
1.7.2 SCADA Systems
1.7.3 Energy Management Systems
1.7.4 Advanced Meter Systems
1.8 Standards, Guidelines, and Recommendations
1.8.1 Overview of Various Standards
1.8.2 Key Standard Attributes and Conformance
1.8.3 Smart Grid Standards
1.8.4 Cybersecurity Standards
Chapter 2 Advancing Security
2.1 Emerging Technologies
2.1.1 Internet of Things
2.1.2 Internet of Everything (IoE)
2.1.3 CyberâPhysical Systems
2.1.4 CyberâPhysical Systems Applications
2.2 Cybersecurity
2.2.1 Cybersecurity Definitions
2.2.2 Understanding Cybersecurity Terms
2.2.3 Cybersecurity Evolution
2.3 Advancing Cybersecurity
2.3.1 Contributing Factors to Cybersecurity Success
2.3.2 Advancing Cybersecurity and Privacy Design
2.4 Smart Grid Cybersecurity: A Perspective on Comprehensive Characterization
2.4.1 Forces Shaping Cybersecurity
2.4.2 Smart Grid Trends
2.5 Security as a Personal, Organizational, National, and Global Priority
2.5.1 Security as Personal Priority
2.5.2 Protection of Private Information
2.5.3 Protecting Cyberspace as a National Asset
2.6 Cybersecurity for Electrical Sector as a National Priority
2.6.1 Need for Cybersecurity Solutions
2.6.2 The US Plans
2.7 The Need for Security and Privacy Programs
2.7.1 Security Program
2.7.2 Privacy Program
2.8 Standards, Guidelines, and Recommendations
2.8.1 Electricity Sector Guidance
2.8.2 International Collaboration
References Part 1
Part II Applying Security Principles to Smart Grid
Chapter 3 Principles of Cybersecurity
3.1 Introduction
3.2 Information Security
3.2.1 Terminology
3.2.2 Information Security Components
3.2.3 Security Principles
3.3 Security-Related Concepts
3.3.1 Basic Security Concepts
3.3.2 The Basis for Security
3.4 Characteristics of Information
3.4.1 Data Transformation
3.4.2 Data Characteristics
3.4.3 Data Quality
3.4.4 Information Quality
3.4.5 System Quality
3.4.6 Data Quality Characteristics Assigned to Systems
3.5 Information System Characteristics
3.5.1 Software Quality
3.5.2 System Quality Attributes
3.6 Critical Information Systems
3.6.1 Critical System Characteristics
3.6.2 Information Life Cycle
3.6.3 Information Assurance
3.6.4 Critical Security Characteristics of Information
3.7 Information Security Models
3.7.1 Evolving Models
3.7.2 RMIAS Model
3.7.3 Information Security Goals
3.8 Standards, Guidelines, and Recommendations
3.8.1 SGIP Catalog of Standards
3.8.2 Cybersecurity Standards for Smart Grid
Chapter 4 Applying Security Principles to Smart Grid
4.1 Smart Grid Security Goals
4.2 DER Information Security Characteristics
4.2.1 Information Classification
4.2.2 Information Classification Levels
4.2.3 Information Evaluation Criteria
4.3 Infrastructure
4.3.1 Information Infrastructure
4.3.2 Information Assurance Infrastructure
4.3.3 Information Management Infrastructure
4.3.4 Outsourced Services
4.3.5 Information Security Management Infrastructure
4.3.6 Cloud Infrastructure
4.4 Smart Grid Infrastructure
4.4.1 Hierarchical Structures
4.4.2 Smart Grid Needs
4.4.3 Cyber Infrastructure
4.4.4 Smart Grid Technologies
4.5 Building an Information Infrastructure for Smart Grid
4.5.1 Various Perspectives
4.5.2 Challenges and Relevant Approaches
4.5.3 Common Employed Infrastructures
4.6 IT Systems Versus Industrial Control System Infrastructure
4.6.1 Industrial Control Systems General Concepts
4.6.2 Supervisory Control and Data Acquisition Systems (SCADA)
4.6.3 Differences and Similarities
4.7 Convergence Trends
4.8 Standards, Guidelines, and Recommendations
Chapter 5 Planning Security Protection
5.1 Threats and Vulnerabilities
5.1.1 Threats Characterization
5.1.2 Vulnerabilities Characteristics
5.2 Attacks
5.2.1 Attack Categories
5.2.2 Reasons for Attack
5.3 Energy Sector: Threats, Vulnerabilities, and Attacks Overview
5.3.1 Threats
5.3.2 Vulnerabilities
5.3.3 Energy Sector Attacks
5.3.4 Smart Grid Cybersecurity Challenges
5.4 Security Controls
5.4.1 Security Controls Categories
5.4.2 Common Security Controls
5.4.3 Applying Security Controls to Smart Grid
5.5 Security Training and Skills
5.5.1 Education, Training, and Awareness
5.5.2 Security Awareness Program
5.6 Planning for Security and Privacy
5.6.1 Plan Structure
5.6.2 Security Team
5.7 Legal and Ethical Issues
5.8 Standards, Guidelines, and Recommendations
References Part 2
Part III Security of Critical Infrastructure
Chapter 6 Critical Infrastructure
6.1 Introduction
6.1.1 Critical Infrastructure
6.1.2 Critical Information Infrastructure
6.2 Associated Industries with Critical Infrastructure
6.2.1 US Critical Sectors
6.2.2 Other Countries
6.3 Critical Infrastructure Components
6.4 Energy Sector
6.4.1 Electrical Subsector
6.4.2 Smart Grid Infrastructure
6.5 Critical Infrastructure Interdependencies
6.5.1 Interdependency Dimensions
6.5.2 Dependencies
6.6 Electrical Power System
6.6.1 Electrical Power System Components
6.6.2 Electrical Power System Evolution and Challenges
6.6.3 Needs
6.7 Recent Threats and Vulnerabilities
6.7.1 Reported Cyber Attacks
6.7.2 ICS/SCADA Incidents and Challenges
6.7.3 Equipment Failure
6.8 Standards, Guidelines, and Recommendations
Chapter 7 Critical Infrastructure Protection
7.1 Critical Infrastructure Attacks and Challenges
7.1.1 Power Grid
7.1.2 Attacks on Information Technology and Telecommunications
7.1.3 Attacks in Manufacturing
7.1.4 Defense
7.2 The Internet as a Critical Infrastructure
7.3 Critical Infrastructure Protection
7.3.1 Policies, Laws, and Regulations
7.3.2 Protection Issues
7.4 Information Security Frameworks
7.4.1 NIST Cybersecurity Framework
7.4.2 NIST Updated Cybersecurity Framework
7.4.3 Generic Framework
7.5 NIST Privacy Framework
7.6 Addressing Security of Control Systems
7.6.1 Challenges
7.6.2 Terrorism Challenges
7.7 Emerging Technologies and Impacts
7.7.1 Control Systems Open to Internet
7.7.2 Wireless and Mobile
7.7.3 Internet of Things and Internet of Everything
7.7.4 Web Technologies
7.7.5 Embedded Systems
7.7.6 Cloud Computing
7.8 Standards, Guidelines, and Recommendations
7.8.1 Department of Homeland Security (DHS)
7.8.2 Federal Communications Commission (FCC)
7.8.3 National Institute of Standards and Technology (NIST)
7.8.4 North American Electric Reliability Corporation (NERC)
7.8.5 Federal Energy Regulatory Commission
7.8.6 DOE Critical Infrastructure Guidance
7.8.7 US-CERT
References Part 3
Part IV The Characteristics of Smart Grid and DER Systems
Chapter 8 Smart Power Grid
8.1 Electric Power Grid
8.1.1 Power System Services
8.1.2 Power System Operations
8.1.3 Energy Management System Overview
8.1.4 Electrical Utilities Evolution
8.2 Smart Grid: What Is It?
8.2.1 Definitions
8.2.2 Vision of the Future Smart Grid
8.2.3 Tomorrowâs Utility
8.2.4 EMS Upgrades
8.2.5 Electricity Trade
8.2.6 Trading Capabilities
8.3 Smart Grid Characteristics
8.3.1 Relevant Characteristics
8.3.2 Electrical Infrastructure Evolution
8.4 Smart Grid Conceptual Models
8.4.1 NIST Conceptual Model
8.4.2 IEEE Model
8.4.3 European Conceptual Model
8.5 Power and Smart Devices
8.5.1 Smart Meters
8.5.2 Intelligent Electronic Devices
8.5.3 Phasor Measurement Units
8.5.4 Intelligent Universal Transformers
8.6 Examples of Key Technologies and Solutions
8.6.1 Communication Networks
8.6.2 Integrated Communications
8.6.3 Sensor Networks
8.6.4 Infrastructure for Transmission and Substations
8.6.5 Wireless Technologies
8.6.6 Advanced Metering Infrastructure
8.7 Networking Challenges
8.7.1 Architecture
8.7.2 Protocols
8.7.3 Constraints
8.8 Standards, Guidelines, and Recommendations
8.8.1 Smart Grid Interoperability
8.8.2 Representative Standards
Chapter 9 Power System Characteristics
9.1 Analysis of Power Systems
9.1.1 Analysis of Basic Characteristics
9.1.2 Stability
9.1.3 Partial Stability
9.2 Analysis of Impacts
9.2.1 DER Impacts
9.2.2 Interconnectivity
9.3 Reliability
9.3.1 Reliable System Characteristics
9.3.2 Addressing Reliability
9.3.3 Evaluating Reliability
9.3.4 ICT Reliability Issues
9.3.5 DER Impacts
9.4 Resiliency
9.4.1 Increasing Resiliency
9.4.2 DER Opportunities
9.5 Addressing Various Issues
9.5.1 Addressing Cybersecurity
9.5.2 CyberâPhysical System
9.5.3 CyberâPhysical Resilience
9.5.4 Related Characteristics, Relationships, Differences, and Similarities
9.6 Power System Interoperability
9.6.1 Interoperability Dimensions
9.6.2 Smart Grid Interoperability
9.6.3 Interoperability Framework
9.6.4 Addressing Crosscutting Issues
9.7 Smart Grid Interoperability Challenges
9.8 Standards, Guidelines, and Recommendations
9.8.1 ISO/IEC Standards
9.8.2 IEEE Standards
Chapter 10 Distributed Energy Systems
10.1 Introduction
10.1.1 Distributed Energy
10.1.2 Distributed Energy Systems
10.2 Integrating Distributed Energy Resources
10.2.1 Energy Storage Technologies
10.2.2 Electric Vehicles
10.2.3 Distributed Energy Resource Systems
10.2.4 Electrical Energy Storage Systems
10.2.5 Virtual Power Plant
10.3 DER Applications and Security
10.3.1 Energy Storage Applications
10.3.2 Microgrid
10.4 Smart Grid Security Goals
10.4.1 Cybersecurity
10.4.2 Reliability and Security
10.4.3 DER Security Challenges
10.5 Security Governance in Energy Industry
10.5.1 Security Governance Overview
10.5.2 Information Governance
10.5.3 EAC Recommendations
10.5.4 Establishing Information Security Governance
10.5.5 Governance for Building Security In
10.6 What Kind of Threats and Vulnerabilities?
10.6.1 Threats
10.6.2 Reported Cyber Incidents
10.6.3 Vulnerabilities
10.6.4 ICS Reported Vulnerabilities
10.6.5 Addressing Privacy Issues
10.7 Examples of Smart Grid Applications
10.7.1 Smart Grid Expectations
10.7.2 Demand Response Management Systems (DRMS)
10.7.3 Distribution Automation
10.7.4 Advanced Distribution Management System
10.7.5 Smart Home
10.7.6 Smart Microgrid
10.8 Standards, Guidelines, and Recommendations
10.8.1 NIST Roadmap, Standards, and Guidelines
10.8.2 NERC CIP Standards
10.8.3 Security Standards Governance
References Part 4
Part V Security Program Management
Chapter 11 Security Management
11.1 Security Managements Overview
11.1.1 Information Security
11.1.2 Security Management Components
11.1.3 Management Tasks
11.2 Security Program
11.2.1 Security Program Functions
11.2.2 Building a Security Program: Which Approach?
11.2.3 Security Management Process
11.3 Asset Management
11.3.1 Asset Management for Power System
11.3.2 Asset Management Perspectives
11.3.3 Benefits of Asset Management
11.4 Physical Security and Safety
11.4.1 Physical Security Measures
11.4.2 Physical Security Evolution
11.4.3 Human Resources and Public Safety
11.5 Human and Technology Relationship
11.5.1 Use Impacts
11.5.2 DER Systems Challenges
11.5.3 Security vs. Safety
11.6 Information Security Management
11.6.1 Information Security Management Infrastructure
11.6.2 Enterprise Security Model
11.6.3 Cycle of the Continuous Information Security Process
11.6.4 Information Security Process for Smart Grid
11.6.5 Systems Engineering and Processes
11.7 Models and Frameworks for Information Security Management
11.7.1 ISMS Models
11.7.2 Information Security Management Maturity Model (ISM3) Model
11.7.3 BMIS Model
11.7.4 Systems Security Engineering Capability Maturity Model (SSE-CMM)
11.7.5 Standard of Good Practice (SoGP)
11.7.6 Examples of Other Frameworks
11.7.7 Combining Models, Frameworks, Standards, and Best Practices
11.8 Standards, Guidelines, and Recommendations
Chapter 12 Security Management for Smart Grid Systems
12.1 Strategic, Tactical, and Operational Security Management
12.1.1 Unified View of Smart Grid Systems
12.1.2 Organizational Security Model
12.2 Security as Business Issue
12.2.1 Strategic Management
12.2.2 Tactical Management
12.2.3 Operational Management
12.3 Systemic Security Management
12.3.1 Comparison and Discussion of Models
12.3.2 Efficient and Effective Management Solutions
12.3.3 Means for Improvement
12.4 Security Model for Electrical Sector
12.4.1 Electricity Subsector Cybersecurity Capability Maturity Model (ES-C2M2)
12.4.2 Which Guidance and Recommendations Apply in Electrical Sector?
12.4.3 Implementing ISMS
12.4.4 NIST Framework
12.4.5 Blueprints
12.4.6 Control Systems
12.5 Achieving Security Governance
12.5.1 Security Strategy Principles
12.5.2 Governance Definitions and Developments
12.5.3 Information Security Governance
12.5.4 Implementation Challenges
12.5.5 Responsibilities and Roles
12.5.6 Governance Model
12.6 Ensuring Information Assurance
12.6.1 NIST SP800-55
12.6.2 ISO/IEC 27004
12.7 Certification and Accreditation
12.7.1 Common Criteria
12.7.2 ISO/IEC 27001
12.7.3 ISMS Accreditation
12.8 Standards, Guidelines, and Recommendations
12.8.1 ISO/IEC Standards
12.8.2 ISA Standards
12.8.3 National Institute of Standards and Technology (NIST)
12.8.4 Internet Engineering Task Force (IETF)
12.8.5 ISF Standards
12.8.6 European Union Agency for Network and Information Security Guidelines
12.8.7 Information Assurance for Small Medium Enterprise (IASME)
References Part 5
A Cybersecurity Concepts
References
B Cybersecurity Concepts
B.1 Basic Terms
B.1.1 Ancillary Services
B.1.2 Bulk Electric System
B.1.3 Bulk Power System (BPS)
B.1.4 Centralized Historian
B.1.5 Circuit Breakers
B.1.6 Cooperative
B.1.7 Control System
B.1.8 Conservation of Energy
B.1.9 Critical Characteristic
B.1.10 Critical Safety Item
B.1.11 Distributed Information System
B.1.12 Engineering Station
B.1.13 Historian Database
B.1.14 Energy
B.1.15 Electrical Energy
B.1.16 Energy Forms
B.1.17 Electricity Generation
B.1.18 Electric Generator
B.1.19 Electric Circuit Components
B.1.20 Electric Grid
B.1.21 Electric Power
B.1.22 Electric Power Network
B.1.23 Electric Power Versus Electric Energy
B.1.24 Electric Power System
B.1.25 Electricity Supply System
B.1.26 Electric Utility
B.1.27 HumanâMachine Interface
B.1.28 Industrial Control Network (ICS)
B.1.29 Industrial Control System
B.1.30 Instrumentation and Control (I&C) System
B.1.31 Intelligent Electronic Device (IED)
B.1.32 Key Characteristic
B.1.33 Local Historian
B.1.34 Management Information System
B.1.35 Measuring Electricity
B.1.36 Moving Electricity
B.1.37 Passive Sign Convention
B.1.38 Power Plant Efficiency
B.1.39 Power System
B.1.40 Power System Automation
B.1.41 Power Delivery System
B.1.42 Substation Automation
B.1.43 Reliability
B.1.44 Reliable Operation
B.2 US Electric Power Industry Overview
B.2.1 Traditional Electric Utilities
B.2.2 Meters
B.2.3 Consumer Sectors
B.2.4 Energy Sources
B.2.5 Electric Power Transactions and the Interconnected Networks
B.3 Examples of Power Grid Glossaries
References
C Critical Infrastructures Concepts
C.1 Critical Infrastructures: Plans, Regulations, Frameworks, Programs
C.1.1 Critical Infrastructure Protection Framework
C.1.2 Critical Infrastructure Protection (CIP) Program
C.1.3 Critical Infrastructure Security and Resilience
C.1.4 Control Systems Security Program
C.1.5 National Infrastructure Protection Plan
D Smart Grid Concepts
D.1 US Smart Grid Policy
D.2 Smart Grid Definitions and Vision
D.2.1 DOE Future Smart Grid Vision
D.3 Examples of Smart Grid Technologies
D.3.1 Active Distribution Network
D.3.2 Advanced Metering Infrastructure (AMI)
D.3.3 Aggregation and Aggregator
D.3.4 Automatic Meter Reading
D.3.5 Backhaul Communications
D.3.6 Balance
D.3.7 Balancing market
D.3.8 Building Area Networks (BANs)
D.3.9 Building Automation
D.3.10 Content of Information Exchange Between DER and Aggregator
D.3.11 Distributed Energy Resources (DER)
D.3.12 Distributed Generation (DG)
D.3.13 Distribution System Operator (DSO) and Transmission System Operator (TSO)
D.3.14 Flexible DER
D.3.15 Home Area Networks (HANs)
D.3.16 Information and Communication Infrastructure
D.3.17 LonWorks
D.3.18 Market
D.3.19 Metropolitan Area Network (MAN)
D.3.20 Mesh Network
D.3.21 Microgrid
D.3.22 Neighborhood Area Networks
D.3.23 Personal Area Network
D.3.24 Power Exchange
D.3.25 Renewable Energy (Re) Sources (RES)
D.3.26 Resilience/Resiliency
D.3.27 Smart Device
D.3.28 Smart Grid Communications
D.3.29 Smart Meter
D.3.30 Smart Metering
D.3.31 Virtual Power Plant
D.3.32 Wide Area Network
D.3.33 Smart Grid Glossaries
D.4 A Smart Grid Diagram: Past, Present, and Future
D.5 Smart Grid Conceptual Model
D.5.1 Bulk Generation
D.5.2 Distribution
D.5.3 Customer
D.5.4 Operations
D.5.5 Markets
D.5.6 Service Provider
References
E Acronyms
Index
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