Command, Control, Communications, Computers, and intelligence Training, C4I Training (U)
Command, Control, Communications, Computers, and intelligence Training, C4I Training is an unclassified training course that covers basic foundation of command, control, communications, computer and intelligence (C4I) systems including C2 systems, EW equipment, radars, radio frequency transmitters/receivers, digital switching networks, identification friend or foe (IFF), tactical decision-making systems, tactical data links (Link 11, Link 6, Link 22, JREAP, SADL, MADL, TTNT, and CDL), intelligence systems, combat direction systems, information warfare systems, cryptologic systems, space and satellite systems, space cybersecurity, cyber threat intelligence, and non-tactical automated information systems.
This 5-day training program provides an in-depth exploration of C4I systems and
technologies essential to modern defense and intelligence operations. The training
covers the foundational principles of C4I, emerging technologies, and critical systems
like cryptologic, space, cyber warfare, radar, and satellite systems. Participants will gain
practical knowledge of how these systems integrate into a comprehensive Command,
Control, Communications, Computers, Intelligence, Surveillance, and Reconnaissance
(C4ISR) architecture.
Course Topics May Include:
- Principles of Command, Control, Communications, Computers, and intelligence Training (C4I)
- Information Warfare Systems
- Cryptologic Systems
- Space and Satellite Systems
- Space Cybersecurity
- Cyber Threat Intelligence systems
- C4ISR Systems, Requirements and Architectures
- Antenna Engineering
- Digital Engineering
- Electromagnetic Warfare (EW) Technology
- Electro-Optical/Infrared (EO/IR) Systems
- EMI/EMC
- Infrared Countermeasures and Counter-Countermeasures
- Military SATCOM Systems
- Multi- Sensor Fusion
- Network-Centric Warfare (NCW)
- Phased Array Antenna Engineering
- Radar Systems
- Radar Signal Processing & Techniques
- SATCOM and Space
- SIGINT
- System of Systems (SoS)
- Systems Engineering and Design
- Tactical Battlefield Communications
- Tactical Data Links: TTNT, Link 16, Joint Tactical Radio System (JTRS) and JREAP
- Tactical Data Links: CDL, VMF, SADL and MADL
- Unmanned Aerial Vehicles
Target Audience:
• Defense Engineers
• Intelligence Analysts
• Military Personnel involved in C4ISR operations
• Communications and Network Specialists
• Systems Engineers and Architects
• Cybersecurity Professionals
• Space and Satellite Systems Operators
Day 1: Foundations of C4I Systems
Principles of Command, Control, Communications, Computers, and Intelligence (C4I)
- Overview of C4I concepts and
- Importance of C4I in modern military and intelligence
- Case studies on successful C4I systems integration in
C4ISR Systems, Requirements, and Architectures
- Overview of C4ISR systems and their role in military command and
- Systems engineering approach to C4ISR development and
- Understanding operational requirements for C4ISR
Systems Engineering and Design
- Introduction to systems engineering principles for C4I
- Designing robust and scalable C4I
- System of Systems (SoS) approach to integrate complex military
Tactical Battlefield Communications
- Overview of tactical communications for battlefield
- Tactical data links: TTNT, Link 16, Joint Tactical Radio System (JTRS), and
- Case studies on battlefield communications and C4I
Day 2: C4I and Intelligence Systems
Information Warfare Systems
- Introduction to information warfare and its role in modern military
- Types of information warfare systems and their operational
- Role of C4I systems in information
Cryptologic Systems
- Overview of cryptologic systems for secure
- Encryption, decryption, and cryptographic techniques used in
- Practical applications of cryptology in military and intelligence
Cyber Threat Intelligence Systems
- Introduction to cyber threat intelligence (CTI) and its role in
- Tools and techniques for gathering and analyzing cyber threat
- Integration of CTI with C4I systems for enhanced situational
SIGINT (Signals Intelligence)
- Overview of SIGINT and its integration into C4I
- Understanding signal collection, processing, and
- Case studies on SIGINT applications in modern military
Day 3: Space, Satellite, and Electromagnetic Warfare Systems
Space and Satellite Systems
- Overview of space-based C4I systems and their role in global
- Satellite communications (SATCOM) and its integration into
- Military SATCOM systems and their
Space Cybersecurity
- Unique cybersecurity challenges in space-based
- Protecting space assets and satellite communications from cyber
- Case studies on cyberattacks on space
Electromagnetic Warfare (EW) Technology
- Introduction to electromagnetic warfare and its strategic
- Types of EW: Electronic Attack (EA), Electronic Protection (EP), and Electronic Support (ES).
- Integration of EW capabilities into C4I
Radar Systems and Signal Processing
- Overview of radar systems used in C4I
- Radar signal processing techniques and applications in military
- Phased Array Antenna Engineering for advanced radar
Day 4: Advanced C4I Systems and Technologies 9:00 AM – 10:30 AM: Multi-Sensor Fusion
- Importance of integrating multiple sensors into a unified C4I
- Techniques for sensor data fusion and real-time
- Case studies on multi-sensor fusion for enhanced situational
Unmanned Aerial Vehicles (UAVs) in C4I
- Role of UAVs in modern C4I
- Communication and data links for UAV
- Use cases of UAVs in intelligence, surveillance, and reconnaissance (ISR).
Electro-Optical/Infrared (EO/IR) Systems
- Overview of EO/IR systems for surveillance and
- Integration of EO/IR sensors into C4I
- Infrared countermeasures and counter-
Digital Engineering and EMI/EMC
- Introduction to digital engineering and its application in C4I systems
- Addressing Electromagnetic Interference (EMI) and Electromagnetic Compatibility (EMC) issues in C4I systems.
- Best practices for ensuring EMI/EMC compliance in military
Day 5: C4I Systems Integration and Future Technologies
C4I and Network-Centric Warfare (NCW)
- Understanding the concept of network-centric
- Integration of network-centric operations with C4I
- Case studies on NCW in modern military
Tactical Data Links: CDL, VMF, SADL, and MADL
- Overview of different tactical data links used in military
- Case studies on the operational use of tactical data links in
- Tactical data link interoperability challenges and
Antenna Engineering and SATCOM
- Advanced antenna engineering techniques for C4I
- Phased array antennas and their applications in SATCOM and radar
- Practical challenges in SATCOM system deployment and
Future Trends in C4I and Emerging Technologies
- Exploring the future of C4I systems and emerging
- Advances in AI, machine learning, and autonomous systems for
- Case studies on the future of C4ISR systems and their role in global
Exam Objectives:
- Demonstrate understanding of the principles of C4I systems and their integration into military operations.
- Explain how C4ISR systems are developed, deployed, and
- Discuss the role of space, satellite, and electromagnetic systems in
- Apply knowledge of cyber and information warfare systems within C4I
- Understand and troubleshoot tactical communications and data
- Analyze real-world case studies on C4I applications in modern
Exam Topics:
- Principles of C4I
- Information Warfare and Cryptologic Systems
- Space, SATCOM, and Space Cybersecurity
- Cyber Threat Intelligence and SIGINT
- Electromagnetic Warfare (EW) and Radar Systems
- Tactical Data Links and Battlefield Communications
- Systems Engineering and System of Systems (SoS) Design Passing Criteria:
- Score Requirement: A minimum score of 70% is required to pass the final
- Evaluation: Participants will be evaluated based on a combination of multiple-choice questions, case study analyses, and scenario-based problem-solving exercises.
This comprehensive 5-day program prepares participants to fully understand, design, and operate complex C4I systems across a variety of defense and intelligence applications. The hands-on exercises and case studies ensure that participants can apply their knowledge to real-world scenarios.