
Program Title:
Master Network System Engineer
Duration:
Approximately 12 weeks (flexible pacing; each module could be 1-2 weeks depending on student availability)
Format:
100% online (asynchronous lectures, readings, activities, and live or recorded Q&A sessions)
Target Audience:
Aspiring network system engineers, IT specialists, network administrators, telecommunications professionals, and anyone interested in designing, managing, and optimizing robust network infrastructures.
Program Outcomes:
Upon completion, learners will be able to:
Understand and apply industry best practices in network system design and management.
Configure, manage, and troubleshoot essential network components including routers, switches, and wireless systems.
Design scalable and secure network infrastructures for organizations of various sizes.
Utilize advanced network monitoring and performance optimization tools.
Integrate network security measures to protect systems against unauthorized access and cyber threats.
Leverage automation and virtualization technologies to enhance network efficiency.
Demonstrate leadership and problem-solving skills in real-world network system engineering scenarios.
Course Structure
The program is divided into 12 modules. Each module includes:
Video Lectures: Concise, engaging lessons delivered by experienced network engineers.
Readings & Reference Materials: Curated articles, whitepapers, e-books, and official documentation.
Case Studies & Real-World Scenarios: Practical examples and simulated exercises to illustrate key concepts.
Interactive Activities & Quizzes: Hands-on labs and assessments to reinforce learning.
Assignments: Practical tasks that simulate real-world network challenges.
Discussion Forums: For peer interaction, Q&A, and knowledge sharing.
Detailed Module Breakdown
Module 1: Introduction to Network Systems
Objective: Understand the fundamentals of network system engineering and modern network architectures.
Topics Covered: Overview of network systems, key terminologies, network topologies, and the role of networks in organizational success.
Activities: Introductory quiz and discussion forum.
Module 2: Network Infrastructure & Design Principles
Objective: Learn design methodologies and best practices for building resilient network infrastructures.
Topics Covered: Network planning, design principles, scalability, high availability, and redundancy.
Activities: Case study analysis and a network design exercise.
Module 3: Routing and Switching Fundamentals
Objective: Gain proficiency in routing protocols and switching technologies essential for modern networks.
Topics Covered: IP routing, VLAN configuration, switching technologies, and network segmentation.
Activities: Hands-on lab configuring routers and switches.
Module 4: Network Protocols and Communication
Objective: Understand core communication protocols that underpin network operations.
Topics Covered: TCP/IP, DNS, DHCP, HTTP, and other foundational protocols.
Activities: Practical exercises in protocol configuration and troubleshooting.
Module 5: Network Performance, Monitoring & Optimization
Objective: Learn techniques to monitor, measure, and optimize network performance.
Topics Covered: Network performance metrics, troubleshooting tools, performance optimization strategies, and quality of service (QoS) implementation.
Activities: Simulated network performance analysis and a lab assignment.
Module 6: Wireless and Mobile Networks
Objective: Explore wireless communication technologies and the unique challenges of mobile networking.
Topics Covered: Wi-Fi standards, cellular networks, network mobility, and interference management.
Activities: Lab exercise on wireless network setup and performance tuning.
Module 7: Network Security for Engineers
Objective: Integrate security measures within network design and operation to safeguard data and systems.
Topics Covered: Firewalls, VPNs, access control, secure protocols, and risk assessment techniques.
Activities: Hands-on lab focusing on implementing network security configurations.
Module 8: Virtualization and Cloud Networking
Objective: Understand virtualization technologies and their application in modern network systems.
Topics Covered: Virtual LANs (VLANs), virtual routers, Software-Defined Networking (SDN), and cloud integration.
Activities: Lab exercise on configuring virtual networks in a cloud environment.
Module 9: Data Center Technologies & Storage Networking
Objective: Learn to design and manage data center networks and storage systems.
Topics Covered: Data center architectures, Storage Area Networks (SAN), Network Attached Storage (NAS), and high availability solutions.
Activities: Case study analysis and a data center simulation exercise.
Module 10: Network Automation and Programmability
Objective: Introduce automation tools and scripting techniques for efficient network management.
Topics Covered: Network management protocols (SNMP, NetConf), automation with Python, and orchestration tools.
Activities: Practical assignment on developing automation scripts for network tasks.
Module 11: Emerging Technologies in Networking
Objective: Explore cutting-edge technologies that are transforming the networking landscape.
Topics Covered: Internet of Things (IoT), 5G, Software-Defined Networking (SDN), and Network Function Virtualization (NFV).
Activities: Research assignment and group presentation on emerging trends and their implications.
Module 12: Capstone Project
Objective: Apply comprehensive network system engineering knowledge to design, implement, and manage a full-scale network solution.
Activities: Develop and present a detailed network infrastructure project plan for a simulated organization, integrating all key components from the course.
Certificate
Industry Recognized Certificate of Completion
Teacher
Charlotte Brown
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Author
Charlotte Brown
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