IPv6 Instructor-Led and Online Training




IPv6 Primer

In the late 1980s, the IETF recognized that the useful life of the current version of IP, Internet Protocol Version 4 (IPv4), would not last forever. Address space was cited as IPv4’s biggest weakness; although a 32 bit address should allow us to identify up to four billion hosts, hierarchical address structures, such as the one used with IP, have inefficiencies that result in addresses running out. Many experts are now predicting we will be out of IPv4 addresses in 2012.While still quite usable and implemented on the current Internet, IPv4 has been showing its age in many areas and a replacement protocol is needed.

This course explores the evolution of the Internet Protocol, the enhancements of IPv6 over IPv4, and why and when we need IPv6. The course also examines the IPv6 header fields, address structure, description, and address types. Finally, the course explains the transition from IPv4 to IPv6 that must take place and why.

This course has three primary objectives.

• Describe the specifics of IPv6
• Make the case for why we need IPv6 (podsnack)
• Describe network migration options

Hill Associates can customize this training program to address your specific program goals. We will work with you to identify the specific solutions you wish to discuss, to understand your particular competitive market, and develop case studies that focus on unique challenges facing your customers.

Hill Associates also offers customized eLearning solutions in this and many other topics.

 

COURSE OUTLINE

Lesson 1: IPv6 Background



• The evolution of IP
• Enhancements that IPv6 brings
• Why we need IPv6
• When we need IPv6

Lesson 2: IPv6 Header and Addressing



• Examine IPv6 header fields
• Impact of next header processing
• IPv6 address structure and description
• IPv6 address types

Lesson 3: New IPv6 Mechanisms



• Three options for address assignment
• ICMPv6 enhancements
• DNSv6 functionality

Lesson 4: Transitioning to IPv6



• Why a transition to IPv6 is required and who is motivated
• Transition requirements
• The variety of transition mechanisms
• Translation
• Tunneling
• Dual stacking
• Implications of supporting a new network