.
Fd15:0db8:0000:0000:700:3:400F:527B
Fd15:0db8::7:3:4F:527B
D15::db8::700:3:400F:527B
Fd15:db8::700:3:400F:572B
Fd15:db8:0::700:3:4F:527B
FEC0::/10 is used for IPv6 broadcast.
FC00::/7 is used in private networks.
FE80::/8 is used for link-local unicast.
FE80::/10 is used for link-local unicast
2001::1/127 is used for loopback addresses.
FF00::/8 is used for IPv6 multicast.
EIGRPv3 was developed to support IPv6 routing.
OSPFv3 was developed to support IPv6 routing
Loopback addresses are used to form routing adjacencies.
EIGRP, OSPF, and BGP are the only routing protocols that support IPv6.
Link-local addresses are used to form routing adjacencies.
Traceroute
Telnet
Ping
Ping ipv6
DNS
DHCPv6
DHCP
Autoconfiguration
Hop Limit
Flow Label
TTD
Hop Count
Scan Timer
It enables the transmission of IPv6 packets within the configured tunnel.
It specifies IPv4 as the encapsulation protocol.
It specifies IPv6 as the encapsulation protocol
It specifies IPv6 as the transport protocol.
It specifies that the tunnel is a Teredo tunnel.
Unlike IPv4 headers, IPv6 headers have a fixed length.
IPv6 uses an extension header instead of the IPv4 Fragmentation field.
IPv6 headers eliminate the IPv4 Checksum field.
IPv6 headers use the Fragment Offset field in place of the IPv4 Fragmentation field.
IPv6 headers use a smaller Option field size than IPv4 headers.
IPv6 headers use a 4-bit TTL field, and IPv4 headers use an 8-bit TTL field.
IPv6 stateless autoconfiguration
DHCP
NHRP
IPv6 stateful autoconfiguration
ISATAP tunneling
They use ICMPv6 type 134.
The advertised prefix length must be 64 bits.
The advertised prefix length must be 48 bits.
They are sourced from the configured IPv6 interface address.
Their destination is always the link-local address of the neighboring node.
FF00:/8 is used for IPv6 multicast.
FE80::/10 is used for link-local unicast.
FC00::/7 is used in private networks.
2001::1/127 is used for loopback addresses.
FE80::/8 is used for link-local unicast.
FEC0::/10 is used for IPv6 broadcast.
OSPF is distributing IPv6 routes to BGP.
The router is designated as an ABR.
The router is designated as totally stubby.
OSPFv3 is in use.
An IPv6 address must be configured on the interface.
An IPv4 address must be configured.
Stateless autoconfiguration must be enabled after enabling IPv6 on the interface.
IPv6 must be enabled with the ipv6 enable command in global configuration mode.
ICANN
APNIC
RIR
ISPs
IPv6 host
IPv6 unicast-routing
IPv6 local
IPv6 neighbor
Ipv6 route 2001:DB8::/32 serial 2/0 201
Ipv6 route 2001:DB8::/32 serial 2/0 1
Recursive routes
Directly connected routes
Fully specified routes
Advertised routes
Virtual links
Redistributed routes
An interface ID that is used to identify the local host on the network.
An interface ID that is used to identify the local network for a particular host.
A subnet ID that is used to identify networks inside of the local enterprise site
A global routing prefix that is used to identify the network portion of the address that has been provided by an ISP
A global routing prefix that is used to identify the portion of the network address provided by a local administrator
They are identical to IPv4 private addresses.
They are defined by RFC 1884
They use the prefix FEC0::/10
They use the prefix FC00::/7
They can be routed on the IPv6 global internet.
00000000
11111100
11111111
11111101
Interface ip address verification
MAC address table verification
Neighbor discovery verification
Routing table entry verification
Unique Local
Compatible
Link local
Global
Version
Hop Limit
Flow Label
Traffic Class
Unicast
Multicast
Anycast
Broadcast
Global unicast
Anycast
Multicast
Unspecified address