Lectures notes for 2010 - KTH
Lectures notes for 2010 - KTH Lectures notes for 2010 - KTH
Mobility γ Z C X A1 Y B α γ Z C Y B α R ⇒ R δ β δ Figure 2. X disconnects from location A1 and reconnects at location A2 What is “X”? X represents the identity (ID) of the node 1 • in an Ethernet it might be the MAC address, thus a node has a constant identity X A2 β While A1, A2, … represent the network addresses of node X. • IP network address consists of {Network, Host}, i.e., A1={α | n}, where n is unique on network α. 1. Of course this really mixes the interface ID with the node ID - solution is a Network Access Identifier[1]. Maguire Emerging Network Architecture 11: 4 of 50 maguire@kth.se 2010.03.21 Internetworking/Internetteknik
Updating after a move Host name: “ccslab1.kth.se” Name Resolution: DNS, Host File, … ⇐ DNS, Host File, … IP address 130.237.15.254 ⇐ 130.237.216.25 HW address: Ethernet MAC address 08:00:2B:00:EE:0B Figure 3: Must update IP address related mappings after a move ⇒ administrative nightmare Maguire Updating after a move 11: 5 of 50 maguire@kth.se 2010.03.21 Internetworking/Internetteknik
- Page 653 and 654: Device Control • Control everyday
- Page 655 and 656: IPv6 header format version 4 bits C
- Page 657 and 658: Simplifications IPv6 builds on 20 y
- Page 659 and 660: Payload length Payload length is th
- Page 661 and 662: Extension headers • Each header i
- Page 663 and 664: Writing an IPv6 address The 128 bit
- Page 665 and 666: Binary prefix Hex. prefix Fraction
- Page 667 and 668: Interface ID Must be unique to the
- Page 669 and 670: Link local addresses Link local add
- Page 671 and 672: Permanently assigned groups For exa
- Page 673 and 674: Prefix for IPv6 documentation The I
- Page 675 and 676: IPv6 Routing • all standard routi
- Page 677 and 678: Fragment header Next Header (8 bits
- Page 679 and 680: intermediate relays on the way to t
- Page 681 and 682: Security • Header Authentication
- Page 683 and 684: IPv6 ICMP [13] Type (8 bits) Code (
- Page 685 and 686: IPv6 ICMP Echo Request/Reply (PING)
- Page 687 and 688: Summary of IPv6 ICMP • incorporat
- Page 689 and 690: IPv6 Transition Mechanisms • Incr
- Page 691 and 692: IPv6 networks 6Bone - http://www.6b
- Page 693 and 694: If things are to be connected they
- Page 695 and 696: Where are ISPs? “… There is evi
- Page 697 and 698: This lecture we have discussed: •
- Page 699 and 700: [13] A. Conta and S. Deering, “In
- Page 701 and 702: IK1550 Internetworking/Internettekn
- Page 703: Emerging Network Architecture H …
- Page 707 and 708: Communication from Z to X γ Z C X
- Page 709 and 710: Identification γ Z C Y B α γ Z C
- Page 711 and 712: How did it know to send the “I am
- Page 713 and 714: Getting Service Once it’s identit
- Page 715 and 716: Alternative 1 Initially X is locate
- Page 717 and 718: Alternative 3 Initially X is locate
- Page 719 and 720: Alternative 4 continued Initially X
- Page 721 and 722: What happens in the case of wireles
- Page 723 and 724: Wireless WANs BS-a cell a BS-a cell
- Page 725 and 726: Mobile IP Standardization Effort
- Page 727 and 728: A Mobile-IP(V6) Scenario Home Agent
- Page 729 and 730: Tunneling IP Datagrams Both home ag
- Page 731 and 732: Why Agent Discovery? Agent Discover
- Page 733 and 734: Registration Message Format 0 8 16
- Page 735 and 736: FA Requirements (v4) • Each FA mu
- Page 737 and 738: Optimization Problem Home site Inte
- Page 739 and 740: Mobile IP Problems and Development
- Page 741 and 742: Wireless IP Network Architecture Ho
- Page 743 and 744: HAWAII extension is similar to Cell
- Page 745 and 746: Hierarchical FA and Regional Tunnel
- Page 747 and 748: Hierarchical FA and Regional Tunnel
- Page 749 and 750: This lecture we have discussed: •
- Page 751 and 752: IK1550 Internetworking/Internettekn
- Page 753 and 754: Private networks Private Networks a
Mobility<br />
γ<br />
Z<br />
C<br />
X<br />
A1<br />
Y<br />
B<br />
α<br />
γ<br />
Z<br />
C<br />
Y<br />
B<br />
α<br />
R<br />
⇒<br />
R<br />
δ<br />
β δ<br />
Figure 2. X disconnects from location A1 and reconnects at location A2<br />
What is “X”? X represents the identity (ID) of the node 1<br />
• in an Ethernet it might be the MAC address, thus a node has a constant identity<br />
X<br />
A2<br />
β<br />
While A1, A2, … represent the network addresses of node X.<br />
• IP network address consists of {Network, Host}, i.e., A1={α | n}, where n is unique on network α.<br />
1. Of course this really mixes the interface ID with the node ID - solution is a Network Access Identifier[1].<br />
Maguire Emerging Network Architecture 11: 4 of 50<br />
maguire@kth.se <strong>2010</strong>.03.21 Internetworking/Internetteknik
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