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Overview
Highway 407
(Canada)
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The east-west 407 Express Toll Route (ETR) located
in Toronto, Canada, was the world's first all-electronic,
open access toll highway. Raytheon was the prime
contractor for the ETR system, which became operational
on October 14, 1997. Raytheon also operated the
highway for the Ontario Government until 1999 when
the province sold Highway 407, for almost double
the original investment, to the 407 International
consortium. In 2000-2001, the consortium extended
the highway to its current length of 108 kilometers.
In 2001, under a new contract, Raytheon supplied
and integrated significant additional roadside equipmentnow
increasing the total number of lanes tolled from
190 to 320and enhanced the central processing
system to provide additional capacity and functionality.
This contract was completed ahead of schedule, providing
all deliverables and meeting all technical specifications.
While tolling system operations and routine maintenance
have been transitioned to the operator, Raytheon
continues to provide engineering and value-added
maintenance services.
Highway 407 is one of the worlds most technically
advanced and financially successful toll operations.
Unique high-performance video capture, AVI/video
correlation, and image processing capabilities provide
efficient, effective tolling of vehicles with or
without transponders. The system automatically matches
transactions at entry and exit ramps to form "trips,"
supporting a distance-based tolling policy. Since
1997, over 433 million trips have been tolled, almost
8 billion vehicle kilometers have been traveled,
and over 550,000 transponders have been distributed.
For 2002, 407 International reported revenues of
US$311 million and earnings before interest, tax,
depreciation and amortization of US$207.5 million.
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Cross Israel
Highway
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Raytheon deployed its third generation, open-road
electronic toll collection and Traffic Management
(ETTM) system in Israel for the new, 86-kilometer,
north-south Highway 6 that opened in December 2002.
Like earlier Raytheon systems, the Cross-Israel
Highway (CIH) system supports high-performance,
open-access, free-flow tolling of vehicles with
and without transponders. Demanding video tolling
requirements are satisfied through the proven Raytheon
Roadside Toll Collection (RTC) subsystem and Optical
Character Recognition (OCR) and Video Exception
Processing (VEP) software advancements in the centralized
Toll Transaction Processor (TTP).
On CIH, the Raytheon Roadside Toll Collection equipment
is deployed on the highway mainline,
rather than on entry and exit ramps, to minimize
infrastructure, tolling equipment and maintenance
cost. A patented algorithm links mainline transactions
to form trips and enables a distance-based tolling
policy. The roadside equipment is efficiently maintained
without the need for lane closures.
The CIH ETTM system incorporates an innovative
real-time enforcement capability. Enforcement officers
with vehicular computers and wireless data communications
are automatically notified when habitual violators
or designated vehicles pass a toll collection point.
CIH also incorporated a full-capability Traffic
Management System (TMS) which manages signs, controls
traffic signals, provides video surveillance, and
communicates with the public via web and telephone
services. Advanced Traffic Management Center (TMC)
software integrates and processes data from Traffic
Probe Readers (TPRs) and loops to measure traffic
flow and automatically detect traffic incidents,
enabling fast and effective incident management.
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Amerigo Vespucio
Sur (Chile)
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In October 2003, Raytheon signed a contract to
supply toll points for the Amerigo Vespucio Sur
Toll road in Santiago, Chile. This fourth generation
system has two new featuresincorporation of
the Chilean National Standard Protocol, based on
the 5.8 GHz CEN Standard, and the capture of front
license plate images.
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Minnesota Department of Transportation, MnDOT (United
States)
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When the State of Minnesota went looking for an
electronic toll system that would allow them to
cost-effectively convert the existing High Occupancy
Vehicle (HOV) lanes on the I-394 to High Occupancy
Toll (HOT) lanes, they elected the Raytheon ETC
solution.
The Minnesota HOT lane project, MnPass, had a design
requirement for barrier-free electronic toll collection
with free flow conditions to maintain maximum vehicle
throughput. This goal requires some very special
expertise and technology. The Raytheon ETC system
uses proven technology designed specifically for
open road tolling at highway speeds with extremely
high accuracy and reliability (≥99.995% read
accuracy).
Another essential factor was the ability of Raytheon's
system to minimize cross lane transponder reads
to ensure minimal billing errors. The physical layout
of the highway with the tolled MnPass express lanes
are directly adjacent to toll-free general-purpose
lanes and pose a challenge to the tolling technology.
The third key characteristic of the Raytheon system
is that it is based on the open DSRC standard, PS-11.
This is an industry-adopted standard in use throughout
North America and Israel. Being non-proprietary,
it does not unduly tie the state to a single system
provider.
The MnPass system will consist of five tolling
points in each direction along the I-394 corridor.
The existing HOV lanes will be restriped to indicate
dedicated entrances and exits to each section of
the new HOT lanes (similar to HOV lanes in the Southern
California area). Other than the lane striping,
there will not be any barriers separating the toll
lanes from the free general purpose lanes. Single
Occupancy Vehicles (SOV) wanting to drive in the
HOT lane must have a MnPass transponder properly
installed.
To best manage the traffic within the HOT lanes,
the toll rates are dynamically (market based pricing)
adjusted regularly depending on the traffic volume
and speed within the toll lanes. These changing
toll rates are displayed on Dynamic Message Signs
(DMS) that precede each entrance. The SOV user will
be electronically charged the toll rate that is
displayed at the time they use the HOT lanes.
A toll road system is not complete without a solid
set of enforcement tools. The Raytheon system consisted
of three enforcement aids for police officers: an
enforcement beacon, an enforcement transponder,
and a mobile enforcement reader. Each of these offers
a variety of capabilities.
The beacon option consists of an amber beacon located
at a toll site that flashes whenever the ETC system
detects the passage of a MnPass transponder in the
express lanes.
The Enforcement Transponder option adds another
level of sophistication. This special transponder
is designed to be used in an enforcement vehicle
to provide a positive indication that the subject
vehicle being followed has an MnPass transponder.
The Mobile Reader allows the enforcement officer
to read transponders while driving alongside the
subject vehicles. This offers a non-intrusive means
of determining the presence of a properly functioning
transponder in a vehicle.
The Raytheon ETC System met all requirements set
forth by the State of Minnesota in their plans to
convert HOV lanes to HOT lanes in a very short time
frame. The result will be a highly cost-effective
and successful toll project that meets all expectations.
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Marechal Rondon
Highway (Brazil)
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Raytheon HTMS designed and built a new lane-based
electronic toll collection (ETC) system for the
Marechal Rondon Highway in the state of Sao Paulo,
Brazil, working with Catel Engenharia. The ETC system
transformed the existing lane-based system into
an open-road collection system, allowing the toll
plazas to remain as toll collection points but without
the personnel and toll collection traffic congestion.
The first of the 11 toll plazas on the 450-km highway
opened in March 1999.
The ETC system relies upon a complex combination
of transponders, cameras, and sensors to perform
automatic vehicle identification and classification,
and violation enforcement. Each toll plaza contains
three lanes that offer a choice of: (1) manual-only
collection; (2) automatic-only collection; and (3)
a combination of the two.
During the final testing phase, the system demonstrated
99 percent or greater performance rates in license
plate capture, vehicle detection and classification,
and transponder read and write communication.
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