<p><span>Introduction to the Cyber Ranges</span><span> provides a comprehensive, integrative, easy-to-comprehend overview of different aspects involved in the cybersecurity arena. It expands on various concepts like cyber situational awareness, simulation and emulation environments, and cybersecurit
Introduction to the Cyber Ranges (Chapman & Hall/Crc Cyber-physical Systems)
โ Scribed by Bishwajeet Pandey, Shabeer Ahmad
- Publisher
- Chapman & Hall
- Year
- 2022
- Tongue
- English
- Leaves
- 205
- Category
- Library
No coin nor oath required. For personal study only.
โฆ Synopsis
Introduction to the Cyber Ranges provides a comprehensive, integrative, easy-to-comprehend overview of different aspects involved in the cybersecurity arena. It expands on various concepts like cyber situational awareness, simulation and emulation environments, and cybersecurity exercises. It also focuses on detailed analysis and the comparison of various existing cyber ranges in military, academic, and commercial sectors. It highlights every crucial aspect necessary for developing a deeper insight about the working of the cyber ranges, their architectural design, and their need in the market. It conveys how cyber ranges are complex and effective tools in dealing with advanced cyber threats and attacks.
Enhancing the network defenses, resilience, and efficiency of different components of critical infrastructures is the principal objective of cyber ranges. Cyber ranges provide simulations of possible cyberattacks and training on how to thwart such attacks. They are widely used in urban enterprise sectors because they present a sturdy and secure setting for hands-on cyber skills training, advanced cybersecurity education, security testing/training, and certification.
Features:
- A comprehensive guide to understanding the complexities involved with cyber ranges and other cybersecurity aspects
- Substantial theoretical knowhow on cyber ranges, their architectural design, along with case studies of existing cyber ranges in leading urban sectors like military, academic, and commercial
- Elucidates the defensive technologies used by various cyber ranges in enhancing the security setups of private and government organizations
- Information organized in an accessible format for students (in engineering, computer science, and information management), professionals, researchers, and scientists working in the fields of IT, cybersecurity, distributed systems, and computer networks
โฆ Table of Contents
Cover
Half Title
Series Page
Title Page
Copyright Page
Contents
Preface
About the Authors
List of Abbreviations
Glossary
1. Introduction
1.1. CSA
1.2. Definition
1.3. Need of CRs
1.3.1. Use Cases of CRs
1.3.2. Merits of CRs Training
1.4. CRaaS
1.5. On-Premise CR
1.6. Types of CRs
1.7. Conclusions
References
2. Architectural Design and Tools of Cyber Ranges
2.1. Architectural Modules and Their Functions
2.1.1. Portal
2.1.2. Run-Time Environments
2.1.2.1. Emulation-Based Tools
2.1.2.2. Simulation-Based Tools
2.1.2.3. Traffic Generation Tools
2.1.2.4. Management Tools
References
3. Motivations for Construction of Cyber Ranges
3.1. IT and OT Infrastructures
3.1.1. Cybersecurity Challenges to OT/IT Systems
3.1.2. Cybersecurity Implementations in OT/IT Systems
3.1.2.1. Asset Management
3.1.2.2. Governance
3.1.2.3. Risk Assessment
3.1.2.4. Cyber-Risk Awareness
3.1.2.5. Cybersecurity Maintenance
3.1.2.6. Cyber-Risk Detection
3.1.2.7. Mitigation of Cyber Risk
3.1.2.8. Cyber-Risk Analyses
3.1.3. Need of CRs for WSS
3.1.4. Need of CRs for Logistic Systems
3.1.5. Need of CRs for Maritime Systems
3.1.6. Need of CRs for O&G Industries
3.1.7. Need of CRs for Power Systems
3.2. Cyberattacks
3.2.1. Cyberattacks on Critical Infrastructures
3.2.2. Cyberthreats to Critical Infrastructures
References
4. Types of Cyber Ranges
4.1. Hybrid CRs
4.1.1. EVA
4.1.2. DIATEAM CR
4.1.3. CRATE
4.2. Physical CRs
4.2.1. SCADA Testbeds
4.2.2. SWAT
4.2.3. WADI
4.3. Virtual CRs
4.3.1. CYRA
4.3.2. GISOO
4.4. CRaaS
References
5. Roles of Cyber Ranges: Testing, Training, and Research
5.1. CRs for Testing
5.1.1. Penetration Testing
5.1.2. Software Testing
5.1.3. Security Testing
5.1.3.1. Threat Model Testing
5.1.3.2. Web Security Testing
5.2. CRs for Training
5.2.1. How to Use CRs for Trainings
5.2.2. Cybersecurity Awareness Trainings
5.2.3. Incident Response Trainings
5.3. CRs for Research
References
6. Cybersecurity Exercises and Teams Definition
6.1. Need of CEs
6.2. Life Cycle of a CE
6.3. Steps in Designing of a CE
6.4. Different Kinds of Approaches
6.5. Common Features of a CE
6.6. Types of CEs
6.6.1. Examples of CEs
6.7. Teams Definition
6.8. Conclusions
References
7. Simulation and Emulation Environments
7.1. Emulation Environment
7.1.1. Need for Emulation Environment
7.1.2. Types of Emulation Models
7.1.3. Emulators
7.1.3.1. Dummynet
7.1.3.2. NetEm
7.1.3.3. NIST Net
7.2. Simulation Environment
7.2.1. Need for Simulation Environment
7.2.2. Simulators
7.2.2.1. NS2
7.2.2.2. NS3
7.2.2.3. OMNET++
7.2.2.4. QualNet
References
8. Designing a Cyber Range
8.1. Planning Phase
8.1.1. Security Challenges Supported by the CR
8.1.2. Components for CR
8.1.3. Defining CR Teams
8.2. Architectural Considerations
8.3. Implementation Phase
8.3.1. IaC
References
9. Military Cyber Ranges
9.1. Need of MCRs
9.2. Simulation-Based MCRs
9.2.1. SIMTEX
9.2.1.1. Introduction
9.2.1.2. Origin
9.2.1.3. Architecture
9.2.1.4. Evolution
9.2.2. CAAJED
9.2.2.1. Introduction
9.2.2.2. Origin
9.2.2.3. Architecture
9.2.2.4. Evolution
9.2.3. SAST
9.2.3.1. Introduction
9.2.3.2. Origin
9.2.3.3. Architecture
9.2.3.4. Evolution
9.2.4. StealthNet
9.2.4.1. Introduction
9.2.4.2. Origin
9.2.4.3. Architecture
9.2.4.4. Evolution
9.2.5. Comparison of Simulation-Based MCRs
9.3. Emulation-Based MCRs
9.3.1. NCR
9.3.1.1. Introduction
9.3.1.2. Origin
9.3.1.3. Architecture
9.3.1.4. Evolution
9.3.2. JIOR
9.3.2.1. Introduction
9.3.2.2. Origin
9.3.2.3. Architecture
9.3.2.4. Evolution
9.3.3. DoD CSR
9.3.3.1. Introduction
9.3.3.2. Origin
9.3.3.3. Architecture
9.3.3.4. Evolution
9.3.4. Comparison of Emulation-Based MCRs
9.4. MACRs
9.4.1. USMA IWAR
9.4.1.1. Introduction
9.4.1.2. Origin
9.4.1.3. Architecture
9.4.1.4. Evolution
9.4.2. Estonian CR
9.4.2.1. Introduction
9.4.2.2. Origin
9.4.2.3. Architecture
9.4.2.4. Evolution
9.4.3. KYPO Czech
9.4.3.1. Introduction
9.4.3.2. Origin
9.4.3.3. Architecture
9.4.3.4. Evolution
9.4.4. Comparison of MACRs
References
10. Existing Cyber Ranges in Academic Sector
10.1. Simulation-Based ACRs
10.1.1. SECUSIM
10.1.1.1. Introduction
10.1.1.2. Terminologies
10.1.1.3. Architecture
10.1.2. RINSE
10.1.2.1. Introduction
10.1.2.2. Architectural and Business Influences
10.1.2.3. Architecture
10.1.3. netEngine
10.1.3.1. Introduction
10.1.3.2. Architecture
10.1.4. OPNET CR
10.1.4.1. Introduction
10.1.4.2. Architecture
10.1.4.3. Simulation Workflow
10.1.5. Concordia Consortium
10.1.5.1. KYPO CR
10.1.5.2. TELECOM Nancy CR
10.1.5.3. RISE CR
10.1.5.4. Airbus CR
10.1.5.5. CODE CR
10.1.6. Comparison of Simulation-Based ACRs
10.2. Emulation-Based ACRs
10.2.1. VCSTC
10.2.1.1. Introduction
10.2.1.2. Architecture
10.2.2. LARIAT
10.2.2.1. Introduction
10.2.2.2. Architecture
10.2.3. Emulab
10.2.3.1. Introduction
10.2.3.2. Architecture
10.2.4. DETER
10.2.4.1. Introduction
10.2.4.2. DETERlab
10.2.4.3. Architecture
10.2.5. Virginia CR
10.2.5.1. Introduction
10.2.5.2. Architecture
10.2.6. Comparison of Emulation-Based ACRs
References
Index
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