Based in San Jose, CA, Polaris Networks, Inc. was
founded in June 2000. Polaris received its initial round
of funding from tier-one investors Redpoint Ventures,
Venrock Associates and SToRM Ventures. New funding was
concluded in March 2002 and led by Advanced Technology
Ventures (ATV), bringing the total private capitalization
to $77 million.
Our mission is to enable service providers to gain
dramatic economic advantages in the construction, operation
and growth of their metropolitan (metro) core networks.
The company's management and engineering teams bring
extensive industry experience and expertise in carrier-class
switching, optical transmission and top-tier service
provider operations.
Polaris has developed a new generation Optical Transport
Switch system, the OMX,
to help service providers simplify their metro backbone
infrastructures and maximize traffic grooming efficiencies,
while providing scalability and a smooth migration path
to full multiservice intelligence. The Polaris solution
addresses both technical and economic challenges facing
service providers today.
The OMX combines SONET transport (ADM) with the functions
of a Wideband, Broadband and Super-broadband Digital
Cross-connect System (DCS), managed via a GMPLS-based
common control plane. The solution provides dramatic
reductions in cost, footprint, power and other core
operations, compared to current market solutions. The
OMX has a Terabit-scalable architecture and is designed
for native support of TDM, cell, and packet traffic
using a single software-defined switching fabric. This
enables service providers to cost-effectively simplify
their existing TDM-based infrastructures, flexibly scale,
and subsequently, provide a software-defined migration
to support new generation (cell/packet) broadband services.
Meeting Critical Market Requirements
Today's metro networks are in a high state of technical
and economic flux. Functioning as the critical bridge
between the access and long-haul network segments, metro
networks are challenged to adapt to a highly dynamic
set of service provider requirements: "build to demand,
not to forecast".
The paradigm shift from pre-provisioned to
just-in-time capacity exposes the inefficiencies
and complexities of current metro backbones. Despite
the recent introduction of new innovative metro network
elements, service providers still rely on stacks of
ADM-based transport rings and racks of standalone wideband
and broadband DCS, many of which have not evolved since
the early 1990s. Their functions, however, are critical
to support the transport, termination and grooming of
service providers' revenue-bearing services such as
voice and private line. Metro core hub sites throughout
the US are, in most cases, stacked with multitudes of
these aging systems that occupy huge footprints, are
power intensive and difficult to manage and scale. Considering
that up to 70% of a service provider's overall expenses
are in the metro network, the true impact of these inefficiencies
becomes clear.
Migration of the metro network to a more simplified,
intelligent and consolidated architecture will help
service providers respond to market demands more rapidly,
efficiently, and most important, cost-effectively. Compared
to current market solutions, the Polaris transport switch
gives service providers the opportunity to slash capital
expense by as much as four times, and operating costs
by at least twenty times. The solution also provides
a non-disruptive, software-driven migration path to
advanced network capabilities that include automated
provisioning via GMPLS, native cell- and packet-based
grooming, graceful expansion to multi-Terabit capacity,
and seamless support for new broadband services such
as Gigabit Ethernet, Storage Area Networks (SAN) and
high-speed VPNs.
The speed with which services can be created and rolled
out has also become vital as service providers focus
on increasing service revenues. For example, accelerating
time to market for revenue-critical services, such as
voice and private line, is a priority to maximize the
bottom line. Despite the increasing demand for bandwidth,
driven by the rapid growth in data services, over 80%
of service providers' revenues are still derived from
voice. With TDM transport networks providing the underlying
infrastructure for voice, service providers are challenged
by the rigidity of these networks. Configuration, provisioning
and management of these networks is typically manual,
and therefore resource-intensive, time-consuming and
expensive. Increasing provisioning automation for these
networks becomes a winning solution for service providers.
Generalized Multi-Protocol Label Switching (GMPLS)
is a new protocol suite that has become recognized for
its ability to automate network-resource management
and provisioning for all service types. This allows
service providers to streamline operations, remove network
bottlenecks, and extend provisioning on an end-to-end
basis. GMPLS is an extension of MPLS which was designed
through the work of the International Engineering Task
Force (IETF) and is now being deployed by many service
providers to enhance the forwarding performance and
traffic engineering ability of their data networks.
MPLS simplifies the support of multiple packet-based
services by establishing a unified control plane in
the network. This allows for the creation of end-to-end
paths, known as Label Switched Paths (LSPs). GMPLS employs
the same mechanisms and extends them to include TDM
(SDH/SONET, PDH, G.709), wavelength (lambdas) and spatial-switching.
Polaris' solution uses a GMPLS-based common control
architecture, allowing service providers to dynamically
set up LSPs, carrying different types of services and
traversing dissimilar networks, via a simple point-and-click
action. According to RHK, a leading telecom consulting
firm, a service provider can save up to 80% of its operating
costs with an intelligent optical metro network of this
type, reducing provisioning times from months/days to
minutes/seconds.
Unique Market Positioning
Polaris is uniquely positioned in a relatively uncrowded
market segment. As described above, today's metro core
networks are burdened by legacy DCS. Provided by traditional
suppliers, these legacy systems have not evolved sufficiently
to meet today's needs. The Wideband DCS segment, often
referred to as the "wideband problem" by service providers,
has especially become a growing burden given the lack
of new development in this area. Polaris presents service
providers with an opportunity to immediately achieve
dramatic improvements in network simplicity, economics,
operations, as well as build the foundation for a smooth
migration to a multiservice intelligent architecture.
Polaris Solution Benefits
The OMX optical transport switch provides the foundation
for a new generation metro infrastructure being pursued
by service providers. Deployed in the service provider's
tandem office, metro core hub facility, or Point of
Presence (PoP), the system delivers the following benefits:
Simplify the metro network
Flatten network overlays (transport, grooming
and service management)
Reduce number of network elements (ADM, DCS)
Reduce equipment CAPEX (up to 4X) and OPEX (up
to 20X)
Scale the metro core network efficiently and flexibly
Manage granular grooming and switching from VT1.5
to STS-N
Scale capacity from Gigabits to multiple Terabits,
gracefully with no service disruption
Single switch fabric for all traffic types
Unlock new services and revenues
Migrate to an intelligent software-defined metro
network
Automate end-to-end provisioning (GMPLS) to increase
service velocity
Optimize network topologies (from existing rings
to mesh)
Accelerate time to market
Strong Customer Endorsement
Polaris has received strong endorsement and engagement
with both traditional and new-generation service providers.
Customers include major service providers
from the long distance carrier (IXC) and incumbent local
exchange carrier (ILEC/RBOC) segments, as well new-generation
service providers from the utility and metro LEC segments
of the market.
Send questions and comments about this site
to webmaster@polarisnetworks.com. Copyright ® 2002, All rights reserved. Polaris Networks, Inc. Use of this site indicates you accept the Terms
of Use.