Measuring IPv6 Deployment

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Transcription:

Measuring IPv6 Deployment

The story so far

IANA Pool Exhaustion

In this model, IANA allocates its last IPv4 /8 to an RIR on the 18 th January 2011

Ten years ago we had a plan

Oops! We were meant to have completed the transition to IPv6 BEFORE we completely exhausted the supply channels of IPv4 addresses!

What s the revised plan?

IPv6 Deployment The new version of the plan is that we need to have much of the Internet also supporting IPv6 in the coming couple of years

How are we going today with this new plan? If we had long term access to a production network We could perform some form of packet header sampling Or with the right MIBS we could even do this packet and volume counting by protocol using SNMP

How are we going today with this new plan? If we had long term access to a production network We could perform some form of packet header sampling Or with the right MIBS we could even do this packet and volume counting by protocol using SNMP But: We don t have direct access to any such network And there does not appear to be any long term public sources of the relative use of IPv4 and IPv6 data in the public Internet that we can see Assuming that anyone is even collecting this data!

Are there other ways to answer this question? We have access to dual stack data for: BGP Route table DNS server traffic WEB Server access and the data sets go back over the past 4 years What can these data sets tell us in terms of IPv6 adoption today?

The BGP view of IPv6 1500 The IPv6 Routing Table Size 1000 500 2004 2006 2008

The BGP view of IPv4 280K The IPv4 Routing Table Size 200K 120K 2004 2006 2008

BGP: IPv6 and IPv4 300K 150K 0 2004 2006 2008

BGP IPv6 : IPv4 0.6% 0.45% 0.3% 2004 2006 2008

What s this saying? V6 is 0.4% of IPv4 in terms of routing table entries But the routing domain of IPv4 is heavily fragmented, while IPv6 is not

What s this saying? Since mid 2007 there appears to have been increased interest in experience with routing IPv6 over the public Internet But the relative level of IPv6 use cannot be readily determined from this data

Lets refine the question One way to answer this is to look at IPv6 routing on a per-as basis

IPv6 AS Count 1000 500 100 2004 2006 2008

IPv4 AS Count 30K 20K 10K 2004 2006 2008

AS Count IPv6 : IPv4 3.4% 3.0% 2.3% 2004 2006 2008

What s this saying? The number of AS s announcing IPv6 routes has risen from 2.5% to 3.3% from Jan 2004 to the present day 3.3% of the networks in the Internet are undertaking some form of IPv6 activity

That 3.3% is not uniform In IPv4 3,802 AS s are transit networks and 24,138 are origin-only Of the 3,802 IPv4 transit AS s 527 also have IPv6 routes 13.8% of V4 Transit AS s also route IPv6 Of the 24,138 V4 stub AS s 357 also route IPv6 1.5% of V4 Origin AS s also route IPv6

Capability vs Actual Use As ~14% of the number of transit AS s are announcing IPv6 address prefixes, does this mean that 14% of the Internet s core is running IPv6 right now? Probably not!

Capability vs Actual Use As ~14% of the number of transit AS s are announcing IPv6 address prefixes, does this mean that 14% of the Internet s core is running IPv6 right now? Probably not!

DNS Server Stats APNIC runs two sets of DNS servers for the reverse zones for IPv4 and IPv6 One set of servers are used to serve reverse zones for address ranges that are deployed in the Asia Pacific Area The second set of servers are used as secondaries for zones served by RIPE NCC, LACNIC and AFRINIC

DNS Reverse Query Load Examine the average query load for reverse PTR queries for IPv6 and IPv4 zones for each of these server sets

DNS Reverse Query Load 100K PTR queries per second IPv4 100 IPv6 0.001 2004 2006 2008

Relative DNS Query Load 2% 1% 0 2004 2006 2008

What s this saying? Reverse DNS queries for IPv6 addresses are around 0.2% of the IPv4 query load AsiaPac IPv6 query load is higher than for other regions Query load has increased since 2007 The interactions of forwarders and caches with applications that perform reverse lookups imply a very indirect relationship between actual use of IPv6 and DNS reverse query data

Web Server Stats Take a couple of dual-homed web servers: Count the number of distinct IPv4 and IPv6 query addresses per day Not the number of hits, just distinct source addresses that access these sites, to reduce the relative impact of robots and crawlers on the data and normalize the data against different profiles of use Look at the V6 / V4 access ratio

APNIC Web Server Stats 1.2% 0.6% 0.0% 2004 2006 2008

RIPE NCC Web Server Stats 1.2% 0.6% 0.0% 2004 2006 2008

Combined Stats 1.2% 0.6% 0.0% 2004 2006 2008

Combined Stats 1.2% 0.6% 0.0% 2004 2006 2008

What s this saying? Relative use of IPv6 when the choice is available is 0.2% in the period 2004 2006 Relative use of IPv6 increased from 2007 to slightly over 0.4% today Is interest in IPv6 slowing picking up again? Increased use of auto-tunnelling of IPv6 on end host stacks?

Use of V6 Transition Tools 100% APNIC Server Stats 6to4 50% 0% Teredo 2004 2006 2008

Use of V6 Transition Tools 100% RIPE NCC Server Stats 6to4 50% 0% Teredo 2004 2006 2008

Use of V6 Transition Tools 100% Combined Stats 6to4 50% 0% Teredo 2004 2006 2008

Use of V6 Transition Tools 100% Combined Stats 6to4 50% 0% Teredo 2004 2006 2008

What s this saying? Around 25% of IPv6 clients appear to use tunneling techniques to reach IPv6 servers

What s this saying? Around 25% of IPv6 clients appear to use tunneling techniques to reach IPv6 servers

Where are we with IPv6? Over a tenth of the transit ISPs of the IPv4 Internet are active in IPv6 deployment in some fashion

Where are we with IPv6? The size of the IPv6 deployment in terms of end host IPv6 capability is around 2 to 3 per thousand Internet end hosts at present At most! This observed ratio may be higher than actual levels of IPv6 capability due to: Widespread NAT use in IPv4 undercounts IPv4 host counts These web sites are tech weenie web sites. More general sites may have less IPv6 clients

What s the revised plan?

What s the revised plan?

Thank You!