classes and priorities. Routers understand the priority settings and handle them appropriately during
conditions of congestion.
Flow Label (20 bits)
The Flow Label field identifies packets requiring special treatment in order to manage real-time data traffic.
The sending router can label sequences of IPv6 packets so that forwarding routers can process packets within
the same flow without needing to reprocess each packet’s header separately.
NOTE:
All packets in the flow must have the same source and destination addresses.
Payload Length (16 bits)
The Payload Length field specifies the packet payload. This is the length of the data following the IPv6 header.
IPv6 Payload Length only includes the data following the header, not the header itself.
The Payload Length limit of 2 bytes requires that the maximum packet payload be 64 KB. However, the
Jumbogram option type Extension header supports larger packet sizes when required.
Next Header (8 bits)
The Next Header field identifies the next header’s type. If an Extension header is used, this field contains the
type of Extension header (as shown in the following table). If the next header is a transmission control
protocol (TCP) or user datagram protocol (UDP) header, the value in this field is the same as for IPv4. The
Extension header is located between the IP header and the TCP or UDP header.
The following lists the Next Header field values.
Value
Description
0
Hop-by-Hop option header
4
IPv4
6
TCP
8
Exterior Gateway Protocol (EGP)
41
IPv6
43
Routing header
44
Fragmentation header
50
Encrypted Security
51
Authentication header
59
No Next Header
60
Destinations option header
NOTE:
This table is not a comprehensive list of Next Header field values. For a complete and current
listing, refer to the Internet Assigned Numbers Authority (IANA) web page at .
IPv6 Routing
521
Содержание S4048T
Страница 1: ...Dell Configuration Guide for the S4048T ON System 9 10 0 1 ...
Страница 98: ... saveenv 7 Reload the system uBoot mode reset Management 98 ...
Страница 113: ...Total CFM Pkts 10303 CCM Pkts 0 LBM Pkts 0 LTM Pkts 3 LBR Pkts 0 LTR Pkts 0 802 1ag 113 ...
Страница 411: ...mode transit no disable Force10 Resilient Ring Protocol FRRP 411 ...
Страница 590: ...Figure 67 Inspecting the LAG Configuration Link Aggregation Control Protocol LACP 590 ...
Страница 591: ...Figure 68 Inspecting Configuration of LAG 10 on ALPHA Link Aggregation Control Protocol LACP 591 ...
Страница 594: ...Figure 70 Inspecting a LAG Port on BRAVO Using the show interface Command Link Aggregation Control Protocol LACP 594 ...
Страница 595: ...Figure 71 Inspecting LAG 10 Using the show interfaces port channel Command Link Aggregation Control Protocol LACP 595 ...
Страница 646: ...Figure 87 Configuring Interfaces for MSDP Multicast Source Discovery Protocol MSDP 646 ...
Страница 647: ...Figure 88 Configuring OSPF and BGP for MSDP Multicast Source Discovery Protocol MSDP 647 ...
Страница 648: ...Figure 89 Configuring PIM in Multiple Routing Domains Multicast Source Discovery Protocol MSDP 648 ...
Страница 653: ...Figure 91 MSDP Default Peer Scenario 2 Multicast Source Discovery Protocol MSDP 653 ...
Страница 654: ...Figure 92 MSDP Default Peer Scenario 3 Multicast Source Discovery Protocol MSDP 654 ...
Страница 955: ...Figure 119 Single and Double Tag First byte TPID Match Service Provider Bridging 955 ...
Страница 1179: ...Figure 147 Create Hypervisor Figure 148 Edit Hypervisor Figure 149 Create Transport Connector Virtual Extensible LAN VXLAN 1179 ...