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Duration 28 hours
Course Outline
Learning Outcomes:
- Explain the principles of encapsulation, de-encapsulation, and modular design within the TCP/IP stack.
- Identify and interpret the specific fields and flags present in IP headers.
- Characterize and distinguish between Class A, B, and C IP addressing schemes.
- Apply subnet masks to determine the network segment of an IP address.
- Articulate the differences between classful and classless IP addressing models.
- Elaborate on the functioning of IP routers and the implementation of static versus dynamic routing.
- Compare and contrast distance vector (RIP) and link-state (OSPF) routing protocols.
- Detail the mechanics of IP subnetworking.
- Explain the concepts of supernetting, VLSM, and CIDR.
- Define ICMP and demonstrate the use of ping and traceroute for connectivity diagnostics.
- Discuss the role of DHCP in managing dynamic IP address assignment.
- Describe how ARP maps IP addresses to corresponding MAC addresses.
- Explain the function of DNS within TCP/IP networks.
- Identify and analyze the fields and flags within TCP and UDP headers.
- Explain how TCP establishes end-to-end reliability over an inherently unreliable IP network.
- Describe the mechanisms of congestion avoidance within TCP/IP environments.
- Provide a detailed overview of Transport Layer Security (TLS).
Practical Labs:
Lab 1: Verifying Connectivity and Diagnostics.
Lab 2: Configuring DHCP and DNS.
Lab 3: Inspecting the ARP Cache.
Lab 4: Analyzing Fragmentation.
Lab 5: Utilizing Traceroute.
Lab 6: Implementing Routing.
Lab 7: Subnetting Techniques.
Lab 8: Configuring TCP Options.
Lab 9: Applying TLS.
Requirements
No prior experience required
Testimonials (1)
communication, knowledge from experience, solve problems,
