Title: CANARIE CAnet 3 The Customer Empowered Networking Revolution
1CANARIE CAnet 3The Customer Empowered
Networking Revolution
- http//www.canarie.ca
- http//www.canet3.net
Background Papers on Gigabit toThe Home and
Optical InternetArchitecture Design
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to Bill_at_Canarie.ca
Bill.St.Arnaud_at_canarie.ca http//www.canarie.ca/b
starn Tel 1.613.785.0426
2The Networked NationA proposed strategy on how
research and education networks in partnership
with government can enable Gigabit Internet
infrastructure available for homes, schools,
businesses in all communities by 2005, for less
than the cost of Internet services today
3The Message
- In mid 1990s the prevailing wisdom was that
commercial sector would drive design of Internet
infrastructure - RE networks would focus on applications or
specialized services - As a result in North America RE networks were
commercialized or discontinued - e.g NSFnet CAnet
- However new network technologies and most
importantly dark fiber is allowing RE networks
to once again redefine telecommunications not
only for themselves but also for businesses and
most importantly the last mile to the home - RE networks may become the cornerstone of
municipal fiber to the home networks - LAN architectures, technologies and most
importantly LAN economics are invading the WAN - Control and management of the optics and
wavelengths will increasingly be under the domain
of the LAN customer at the edge, as opposed to
the traditional carrier in the center - Over time the current hierarchical connection
oriented telecom environment will look more like
the Internet which is made up of autonomous
peering networks. - These new concepts in customer empowered
networking are starting in the same place as the
Internet started the university and research
community.
4CANARIE Inc
- Mission To facilitate the development of
Canadas communications infrastructure and
stimulate next generation products, applications
and services - Canadian equivalent to Internet 2 and NGI
- private-sector led, not-for-profit consortium
- consortium formed 1993
- federal funding of 300m (1993-99)
- total project costs estimated over 600 M
- currently over 140 members 21 Board members
5CANARIES Programs
- Advanced networks
- CAnet - Original Internet Backbone 1990-96
- NTN - worlds largest ATM test network 1996-97
- CAnet 2 - Canadas Next Generation Internet
1997-2000 - CAnet 3 - worlds first optical Internet
1998-2002 - Outreach
- Trade shows, Iway awards, etc
- Technology and Applications Development
- Funding for companies to develop products and
applications
6CAnet 3 National Optical Internet
Consortium Partners Bell Nexxia Nortel Cisco JDS
Uniphase Newbridge
CAnet 3 Primary Route
CAnet 3 Diverse Route
GigaPOP
ORAN
Deploying a 4 channel CWDM Gigabit Ethernet
network 700 km
Deploying a 4 channel Gigabit Ethernet
transparent optical DWDM 1500 km
Condo Dark Fiber Networks connecting universities
and schools
Condo Fiber Network linking all universities and
hospital
Multiple Customer Owned Dark Fiber Networks
connecting universities and schools
Netera
MRnet
SRnet
ACORN
St. Johns
BCnet
Calgary
Regina
Winnipeg
Charlottetown
RISQ
ONet
Fredericton
Montreal
Vancouver
16 channel DWDM -8 wavelengths _at_OC-192 reserved
for CANARIE -8 wavelengths for carrier and other
customers
Halifax
Ottawa
Seattle
STAR TAP
Toronto
Los Angeles
Chicago
New York
7O-BGP (Optical BGP)
- Control of optical routing and switches across an
optical cloud is by the customer not the
carrier - A radical new approach to the challenge of
scaling of large networks - Use establishment of BGP neighbors or peers at
network configuration stage for process to
establish light path cross connects - Edge routers have large number of direct
adjacencies to other routers - Customers control of portions of OXC which
becomes part of their AS - Optical cross connects look like BGP speaking
peers - BGP peering sessions are setup with separate TCP
channel outside of optical path or with a
Lightpath Route Arbiter - All customer requires from carrier is dark fiber,
dim wavelengths, dark spaces and dumb switches - Traditional BGP gives no indication of route
congestion or QoS, but with DWDM wave lengths
edge router will have a simple QoS path of
guaranteed bandwidth - Wavelengths will become new instrument for
settlement and exchange eventually leading to
futures market in wavelengths - May allow smaller ISPs and RE networks to route
around large ISPs that dominate the Internet by
massive direct peerings with like minded networks
8Customer Empowered Networks
- Universities in Quebec are building their own
2000km fiber network - Universities in Alberta are deploying their own
400 km 4xGbe dark fiber network - School boards and municipalities throughout North
America are deploying their own open access, dark
fiber networks - Carrier are selling dim wavelengths managed by
customer to interconnect dark fiber networks - Williams, Level 3, Hermes
- Typical cost is one time 20K US per school for a
20 year IRU - In Ottawa we are deploying a 60km- 144 strand
network connecting 26 institutions cost 1m US
9Réseau du RISQ
Val dOr/Rouyn
Observatoire Mont-Mégantic
10Lanaudière
Sorel-Tracy
Lionel-Groulx
Marie-Victorin
Rosemont
Montmorency
Maisonneuve
Ahuntsic
Édouard-Montpetit
Bois-de-Boulogne
Vers Québec
St-Laurent/Vanier
Champlain
Vieux-Montréal
Gérald-Godin
Dawson
John-Abbott
André-Laurendeau
11Dark Fiber Builds in Quebec
12Typical Capital Costs
- Fixed One Time Capital Costs Include
- Management, engineering and construction costs
- Negotiating support structure agreements
- Fiber optic cables
- Fusing of fibers
- OTDR sweeps, Premise termination, etc.
- Average total cost between 7 and 15 per meter
as follows - Engineering and Design
- 1 - 3 per meter for engineering, design,
supervision, splicing - Plus Installation
- 7 to 10 per meter for install in existing
conduit or - 3 to 6 per meter for install on existing poles
- Plus Premise termination
- 5k each
- Plus cost of fiber
- 15 per strand per meter for 36 strands or less
- 12 per strand per meter for 96 strands or less
- 10 per strand per meter 192 strands or less
- 5 per strand per meter over 192 strands
13Examples of Public Sector Fiber Build Costs
- Des affluents Total cost 1,500,00 (750,00 for
schools) - 70 schools
- 12 municipal buildings
- 204 km fiber
- 1,500,000 total cost
- average cost per building - 18,000 per building
- Mille-Isles Total cost 2,100,000 (1,500,000
for schools) - 80 schools
- 18 municipal buildings
- 223km
- 21,428 per building
- Laval Total cost 1,800,000 (1,000,000 for
schools) - 111 schools
- 45 municipal buildings
- 165 km
- 11,500 per building
14Ottawa Fiber Build
- Consortium consists of 16 members from various
sectors including businesses, hospitals, schools,
universities, research institutes - 26 sites
- Point-to-point topology
- 144 fibre pairs
- Route diversity requirement for one member
- 85 km run
- 11k - 50K per site
- Total project cost CDN 1.25 million
- Cost per strand less than .50 per strand per
meter - 80 aerial
- Due to overwhelming response to first build
planning for second build under way
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16Why Customer Owned Dark Fiber
- First - low cost
- Up to 1000 reduction over current telecom
prices. 6-12 month payback - Second - LAN invades the WAN no complex SONET
or ATM required in network - Network Restoral Protection can be done by
customer using a variety of techniques such as
wireless backup, or relocating servers to a
multi-homed site, etc - Third - Enables new applications and services not
possible with traditional telecom service
providers - Relocation of servers and extending LAN to
central site - Out sourcing LAN and web servers to a 3rd party
because no performance impact - IP telephony in the wide area (Spokane)
- HDTV video
- Fourth Allows access to new competitive low
cost telecom and IT companies at carrier neutral
meet me points - Much easier to out source servers, e-commerce etc
to a 3rd party at a carrier neutral collocation
facility - Customers will start with dark fiber but will
eventually extend further outwards with customer
owned wavelengths - Extending the Internet model of autonomous
peering networks to the telecom world
17What is condominium fiber?
- A number of organizations such as schools,
hospitals and universities get together to fund
and build a fiber network - Fiber is installed, owned and maintained by 3rd
party professional fiber contractors usually
the same contractors used by the carriers for
their fiber builds - Each institution gets its own set of fibers, at
cost, on a 20 year IRU (Irrevocable Right of Use) - One time up front cost, plus annual maintenance
and right of way cost approx 5 of the capital
cost - Institution lights up their own strands with
whatever technology they want Gigabit Ethernet,
ATM, PBX, etc - New long range laser will reach 120 km
- Ideal solution for point to point links for large
fixed institutions - Payback is usually less than 18 months
18Typical Capital Costs
- Fixed One Time Costs Include
- Management, engineering and construction costs
- Negotiating support structure agreements
- Fiber optic cables
- Fusing of fibers
- OTDR sweeps, Premise termination, etc.
- Average cost between 7 and 15 per meter
- 7 to 10 per meter for install in existing
conduit - 3 to 6 per meter for install on existing poles
- 1 - 3 per meter for engineering, design,
supervision, splicing - Premise termination - 5k each
- Fiber
- 15 per strand per meter for 36 strands or less
- 12 per strand per meter for 96 strands or less
- 10 per strand per meter 192 strands or less
- 5 per strand per meter over 192 strands
19Typical Payback for school(Real example des
affluents north of Montreal)
- DSL to 100 schools - 400 per month per school
- Over 3 years total expenditure of 1,440,000 for
DSL service - Total cost of dark fiber network for 100 schools
1,350,000 - Additional condo participants were brought in to
lower cost to school board to 750,000 - School board can now centralize routers and
network servers at each school - Estimated savings in travel and software upgrades
800,000 - Payback typically 8 16 months
20 Simplification de la structure
21CAnet 4 Distributed OIX
AS 549 ONet
AS 271 BCnet
AS 376 RISQ
OBGP
OBGP
OBGP
New York
Seattle
Chicago
Figure 12.0
22Networked Nation
CAnet 4
Usually one GigaPOP per province
Provincial research and education network
Usually one access facility in every major town
and city
Splice Box
SuperNodes
Colo
School board office
Colo
City Hall
Colo
University
Nodes
Colo
Hospital
Library
School
School
School
Connection to homes in future
Home owners have fused connections all the way to
service provider at supernode
100 Funded by Industry Canada
Home owners are aggregated at node by service
provider of their choice
Mostly Funded by Province
Mostly Funded by Industry Canada as Loans for
public institutions
Mostly Funded by Industry Canada as Loans until
purchased by competitive service proviuder
Funded by private sector
23Examples
- Sierra Nevada Power to offer 10 Mbps Internet
over FTTH for 19.95 - Canberra Tansact was to be city wide VDSL now
looking at GbE with fiber - 500 to go by each home
- Telia in Sweden plans to have 1.5m GbE
connections by end of next year - Will abandon DSL sometime next year
- Sweden has announce 20 billion program fiber to
home - Norway, Holland and other countries investigating
- New housing developments are going with fiber and
FastE or GigE - Brossard, FutureWay, Houston, Palo Alto etc
- Moses Lake County in WA - 30,000 homes fiber
Wash State law - Most school boards are abandoning DSL in favor of
dark fiber - 1000 Quebec schools, Las Vegas, Spokane, etc
- Average one time cost per school - 25k
- Many new startups in the GITH and GITB market
- Worldwidepackets www.worldwidepackets.com -
50/mo for Gbe - Onfiber www.onfiber.com
- Yipes www.yipes.com
- VCs next hottest play after wireless and optical
24Carriers are not the only decision maker in the
last mile
- Governments and consumers are becoming more
active voice in determining the future of
broadband to home - Do not assume that carrier requirement is the
only solution - Open access is becoming a critical political
issue - Consumers want more than duopoly of cable and
telco - Facilities based competition the best
- Municipalities object to their streets being torn
up - Dig once bury lots of fiber
- Residents object to street furniture
- VDSL and HFC nodes
- MMDS and LMDS antennae
25An important Role for Government
- Governments promote the framework for GITH
networks by funding schools, universities,
libraries, hospitals and municipal buildings as
first customers and early adopters of dark fiber
and optical networks - Private sector leverages that investment by
government to promote high speed Internet access
to schools and universities to extend the fiber
to the home - Electric utility companies, municipal
governments, CLECs, SMEs, entrepreneurs, as well
as traditional telcos and cablecos can
participate as providers, provided they subscribe
to the architecture of open access, facilities
based competition through dark fiber (or
wavelengths) - Emphasize the development and use of technology
that specifically addresses the new architecture
and the last mile, which must therefore be open,
cheap and Internet-only (with the right jump
start, there appears to be an opportunity for
companies to excel in this marketplace, which is
likely to turn out to be quite different from
that for carrier-class and backbone- or legacy
service-focussed equipment)
26Application Grids
- Seamless integration of dark fiber networks and
wavelengths to support high bandwidth
applications - Originally started with SETI_at_home
- Neptune 6000 km undersea grid
- NEON- National Environment Grid
- NEES National Seismology Grid
- Gryphen High Energy Physics Grid
- Commercial grids such as www.entropia.com to
interconnect thousands of computers for
applications in bio-chemistry, genome research,
etc - Canadian Forestry Grid
- Canadian NRC e-commerce grid centered in NB?
27CANARIE's 6th Advanced Networks Workshop"The
Networked Nation" November 28 and 29,
2000Palais des CongrèsMontreal, Quebec - Canada
- "The Networked Nation", will focus on application
architectures ("grids") made up of customer owned
dark fiber and next generation Internet networks
like CAnet 3 that will ultimately lead to the
development of the networked nation where
eventually every school, home and business will
have high bandwidth connection to the Internet. - Three tracks
- Customer owned dark fiber for schools, hospitals,
businesses and homes. - Next generation optical Internet architectures
that will be a natural and seamless extension of
the customer owned dark fiber networks being
built for schools, homes and businesses. - "application grids", which are a seamless
integration of dark fiber and optical networks to
support specific collaborative research and
education applications.