tailieunhanh - Lecture Routing Protocols and Concepts - Chapter 6: VLSM and CIDR

Chapter 6 introduce VLSM and CIDR. This chapter compare and contrast classful and classless IP addressing, review VLSM and explain the benefits of classless IP addressing, describe the role of the Classless Inter-Domain Routing (CIDR) standard in making efficient use of scarce IPv4 addresses. | VLSM and CIDR Routing Protocols and Concepts – Chapter 6 Objectives Compare and contrast classful and classless IP addressing. Review VLSM and explain the benefits of classless IP addressing. Describe the role of the Classless Inter-Domain Routing (CIDR) standard in making efficient use of scarce IPv4 addresses. Introduction Prior to 1981, IP addresses used only the first 8 bits to specify the network portion of the address In 1981, RFC 791 modified the IPv4 32-bit address to allow for three different classes IP address space was depleting rapidly The Internet Engineering Task Force (IETF) introduced Classless Inter-Domain Routing (CIDR) CIDR uses Variable Length Subnet Masking (VLSM) to help conserve address space VLSM is simply subnetting a subnet Classful and Classless IP Addressing Classful IP addressing As of January 2007, there are over 433 million hosts on internet Initiatives to conserve IPv4 address space include: VLSM & CIDR notation (1993, RFC 1519) Network Address . | VLSM and CIDR Routing Protocols and Concepts – Chapter 6 Objectives Compare and contrast classful and classless IP addressing. Review VLSM and explain the benefits of classless IP addressing. Describe the role of the Classless Inter-Domain Routing (CIDR) standard in making efficient use of scarce IPv4 addresses. Introduction Prior to 1981, IP addresses used only the first 8 bits to specify the network portion of the address In 1981, RFC 791 modified the IPv4 32-bit address to allow for three different classes IP address space was depleting rapidly The Internet Engineering Task Force (IETF) introduced Classless Inter-Domain Routing (CIDR) CIDR uses Variable Length Subnet Masking (VLSM) to help conserve address space VLSM is simply subnetting a subnet Classful and Classless IP Addressing Classful IP addressing As of January 2007, there are over 433 million hosts on internet Initiatives to conserve IPv4 address space include: VLSM & CIDR notation (1993, RFC 1519) Network Address Translation (1994, RFC 1631) Private Addressing (1996, RFC 1918) Classful and Classless IP Addressing The High Order Bits These are the leftmost bits in a 32 bit address Classful and Classless IP Addressing Classes of IP addresses are identified by the decimal number of the 1st octet Class A address begin with a 0 bit Range of class A addresses = to Class B address begin with a 1 bit and a 0 bit Range of class B addresses = to Class C addresses begin with two 1 bits & a 0 bit Range of class C addresses = to Classful and Classless IP Addressing The IPv4 Classful Addressing Structure (RFC 790) An IP address has 2 parts: The network portion Found on the left side of an IP address The host portion Found on the right side of an IP address Classful and Classless IP Addressing Classful and Classless IP Addressing Purpose of a subnet mask It is used to determine the network portion of an IP address Classful and Classless IP .

• Quản trị mạng
• Routing Protocols
• Lecture Routing Protocols
• Classless IP addressing
• Classless Inter Domain Routing
• Classful IP addressing
• Classless IP Addressing
• Dynamic Routing Protocol
• Static routing
• Classifying Routing Protocols
• Administrative distance
• Distance Vector routing protocols
• Routing Information Protocol
• Network discovery
• Routing table maintenance
• Routing Dynamically
• Dynamic Routing Protocols
• Distance Vector Dynamic Routing
• Link State Dynamic Routing
• Link State Routing
• Link State Routing Protocols
• IP address
• The routing table
• Routing Table structure
• Classful routing behaviors
• Classless routing behaviors
• Functions of a Router
• Connect devices
• Routing Decisions
• Routing operation
• Routing table
• CDP protocol
• Exit interfaces
• Configure static
• Floating static routes
• Troubleshoot static
• ccna
• Concepts
• RIP version 2
• RIPv1 limitations
• Configuring RIPv2
• Enhanced Interior Gateway Routing Protocol
• EIGRP configuration
• EIGRP Metric Calculation
• Packet forwarding
• Routing process
• Switches packets
• Network layer
• Implementing IP Routing
• Lecture CCNP Route
• Manipulating Routing Updates
• Routing performance issues
• Multiple Routing Protocols
• Route redistribution
• Enhanced Interior Gateway Protocol
• Configuring EIGRP
• Configuration of EIGRP for IPv6
• Operation of EIGRP
• EIGRP Advanced Configurations
• Advanced EIGRP Configurations
• Troubleshoot EIGRP
• Configure EIGRP automatic
• Single area OSPF
• Characteristics of OSPF
• Configuring Single area OSPFv2
• Configure Single area OSPFv3
• Troubleshooting Single Area OSPF
• OSPF Network types
• Multiaccess Networks
• Multiarea OSPF
• Multiarea OSPF implementation
• Access Control Lists
• IP ACL Operation
• Standard IPv4 ACLs
• Troubleshoot ACLs
• Managing IOS system files
• IOS licensing
• Cisco IOS 12
• 4 mainline
• IOS Image filenames
• RIP version 1
• Basic RIPv1 configuration
• Automatic summarization
• Routed network
• Background of OSPF
• OSPF configuration
• OSPF Characteristics
• Backup Designated Router
• International Journal of Computer Networks and Communications Security
• Simulation based proportional study of routing protocols for manet
• Simulation based proportional study
• Routing protocols for manet
• Security threats
• Black hole attack
• Network simulator
• Routing protocols in manet using NS2