The contractor shall confine his operations strictly within
the limits of rights-of-way indicated by the plans and/or directed
by the Township Engineer unless written permission is obtained to
occupy additional ground. Upon completion of work, the contractor
shall clean up and restore the area of his operations to a condition
at least equal to original conditions. Damage to property outside
of specified construction limits shall be the responsibility of the
contractor and restoration of same shall be made at the contractor's
expense.
The contractor is responsible for notifying the Pennsylvania
One-Call System in accordance with PA Act 187. It is also the contractor's
responsibility to protect all utilities from damage during work that
has been marked through the Pennsylvania One-Call System. When a utility
is damaged, the contractor must stop all work and notify the appropriate
utility, the Township Engineer, and the Township Public Works Department.
The contractor shall be responsible for any damage caused to marked
utilities and for any damage caused to unmarked utilities after the
initial damage occurs.
Maintenance and protection of pedestrian and vehicular traffic
shall be strictly observed by the contractor in completing the project
work program, as follows:
A. All workers must wear a reflective vest or other appropriate safety
apparel during working hours. Additionally, all flaggers must be IMSA
certified.
B. The contractor must provide vehicles outfitted with safety beacons,
appropriate traffic control signing, barricades, flags and cones.
C. All work must be done in compliance with the contract drawings and
the appropriate figures contained within Publication 213, Temporary
Traffic Control Guidelines, published by PennDOT.
D. Open trenches across travel lanes are not permitted during nonworking
hours unless, on the approval of the Township Engineer, such trenches
are safely decked with steel plates of sufficient size and strength
to support the traffic load. The steel plates shall be pinned into
the existing surrounding roadway or sealed with asphalt along both
intersecting roadway surfaces. The contractor's name and emergency
telephone number shall be painted and legible on each plate to assist
the Township in the event of an emergency.
E. All travel lanes must be open for traffic during the morning (6:00
a.m. to 9:00 a.m.) and evening peak hours (3:00 p.m. to 7:00 p.m.).
Two-way traffic must be maintained at all times. Lane closures are
permitted for short periods if flagging by IMSA-certified personnel
is provided in accordance with PennDOT Publication 213.
[Amended 2-11-2021 by Ord. No. 741]
A. New material summary.
(1) All materials shall be in accordance with the Pennsylvania Department
of Transportation (PennDOT) Publication 408 specifications (latest
edition/supplements) and NEMA standards. All materials shall be supplied
by PennDOT approved manufacturers.
(2) Upper Chichester Township, in order to minimize maintenance costs,
has established the following types of equipment, or equal, as standard
within its jurisdiction:
(a)
Intersections along Routes 452, 322, and Chichester Avenue:
[1]
Traffic signal controller: Econolite ASC/3.
[2]
Backup (UPS) system: DBL 111 MX series.
[3]
Adaptive signal control: InSync as manufactured by Rhythm Engineering.
[4]
Traffic signal/pedestrian LEDs video: Dialight ITE Compliant
LED signal modules.
[5]
Detection: Autoscope Solo Terra vehicle detection system.
[6]
Traffic responsive: Econolite ASC/2M-1000.
(b)
All other intersections, or as directed by the Township Engineer:
[1]
Traffic signal controller: Naztec ATC, as manufactured by Cubic.
If the intersection is to be connected to a central system, it will
be placed on the PennDOT ATMS.now server.
[2]
Adaptive signal control: Syncro Green real time adaptive.
[3]
Controller cabinet assembly: NEMA TS2 Type 1. Include pedestrian
isolation circuitry and surge protection on all controller inputs.
All controller cabinets will include fiber-optic telemetry equipment
on existing corridors or as directed by the Township.
[4]
Interconnect: if required, use single mode fiber-optic cable
terminated in patch panels. Mechanical splices or terminations will
not be accepted. In situations where conduit and trenching are not
feasible or attachment to utility poles is not available, interconnect
can be accomplished with radio, provided that a site survey has been
performed and the testing substantiates reliability. The radio option
shall be at the sole discretion of the Township's Engineer.
[5]
Stop bar vehicle detection: FLIR video detection or thermal
detection.
[6]
Advanced vehicle detection: volume density loops or Trafiradar
as manufactured by FLIR. If volume density loops are used, they will
each have a separate lead-in and channel of detection.
(c)
All intersections:
[1]
Emergency preemption: optical preemption for all approaches
to the intersection. Detectors will be positioned to achieve the proper
distance for activation and control of the intersection. Optical preemption
equipment will be Opticom as manufactured by GTT.
[2]
Backup (UPS) system: capable of automatically switching to battery
power when the incoming power is interrupted. The battery backup unit
will be a double conversion unit and shall be capable of operating
for eight hours on battery power. The controller cabinet must come
with a one-inch red LED to indicate when operating on battery backup
unit and a one-inch green LED to indicate when operating on utility
power.
[3]
Generator cabinet: heavy duty cabinet with twist lock connector
and Honda EU2000 series generator or equivalent.
[4]
Vehicular signal heads: LED modules with a homogenous look.
[5]
Pedestrian signal heads: LED hand/man countdown type.
[6]
Pedestrian pushbuttons: ADA compliant with latching LED confirmation
light and tone. Where designated by the Township, AGPS pedestrian
pushbuttons shall be used.
(3) All equipment supplied shall strictly satisfy the project specifications
and shall be supplied in accordance with these specifications.
B. Existing or old material. The contractor shall notify the Township
Public Works Department at the time of removal of existing traffic
signalization equipment and shall request direction as to the ultimate
disposition of said equipment. The contractor shall comply with the
direction of the Township Public Works Department and shall be responsible
for the ultimate disposition of the equipment.
C. Construction methods. Construction methods shall be in accordance
with the applicable sections of PennDOT Publications 408, 148, 111,
213, and 72, or latest editions.
D. Closed loop system upgrade. As part of any installation occurring
within a closed loop system, the contractor is responsible for upgrading
the system software on the Township central monitoring station or
through PennDOT's Centracs system. All intersections located
on PennDOT roadways in Township shall be connected to PennDOT's
Centracs system. Intersections along all other roadways shall be connected
to Centracs at the direction of the Township. This upgrade will include
ensuring communication between the local controller and the central
monitor, downloading/uploading local controller information and the
central monitor, and installation of intersection graphics in a format
similar to the existing intersection graphics used at the central
monitoring station. The contractor will be responsible for ensuring
that the new installation functions as part of the existing closed
loop system to the satisfaction of the Township.
E. Required submittals.
(1) Five copies of the catalog cut sheets for all materials must be provided
to the Township Engineer before construction begins. Include a schedule
of the submitted items, including the type of material, manufacturer's
name, model number, and PennDOT approval numbers (where applicable)
for each item to be supplied for review and approval.
(2) Provide pole manufacturer mast arm certification.
(3) Three sets of hardcopy as-built record plans and one electronic copy
of all plans shall be provided to the Township Engineer upon final
inspection and acceptance of the signal.
(4) Three copies of the cabinet wiring diagram on hardcopy and one copy
in electronic format shall be provided to the Township Engineer as
per PennDOT Form 408, § 954.3(j), upon final inspection
and acceptance of the signal.
F. Quality assurance.
(1) All traffic signal contractors working in the Township must be PennDOT
prequalified to perform traffic signal work. All contractor personnel
setting up work-zone controls and performing flag duties must be IMSA
work-zone safety certified. All personnel performing electrical work
must be IMSA Traffic Signal Technician Level I certified. A supervisor
must be on site during the installation of any electrical work and
said supervisor must be IMSA Traffic Signal Technician Level II certified.
Furnish Township Engineer a copy of said certificates.
(2) Pole manufacturer shall verify that the vertical support poles and
mast arms are designed to adequately support loads as shown on the
contract drawings with a luminaire arm or maximum load requirements
established by AASHTO specifications for structural supports for highway
signs, luminaires, and traffic signals, whichever is greater.
G. Project condition.
(1) Exact locations of traffic signal equipment shall be determined by
the contractor in consultation with a representative of the Pennsylvania
Department of Transportation, the Township Public Works Department
and the Township Engineer.
(2) All equipment shall be grounded in accordance with the provisions
of the 1996 National Electrical Code and/or required by this article.
All works shall be done in accordance with the 1996 National Electrical
Code or latest approved.
(3) The contractor shall be responsible for establishing the top of foundation
elevations and the "H" dimension of the mast arm shaft in order to
meet the specified signal clearance height.
H. Detailed material specifications.
(1) General. All materials shall be new, manufactured within one year
prior to date of installation and approved for the intended use by
PennDOT.
(2) Traffic signal supports. Depending on the location, mast arm poles
and shafts shall be painted black or shall be decorative supports.
Any traffic signal support, including poles and shafts installed in
Upper Chichester Township, shall be the decorative supports as noted
below. In the event that is determined by the Township Engineer that
the installation of a decorative support would adversely impede pedestrian
traffic, the traffic signal shall be the painted black supports. The
painted black supports shall be powder coated Federal Color Standard
A595B Gloss Black 17038 in accordance with powder coat manufacturer's
procedures. The powder coat finish will have a warranty of not less
than five years after applied. The decorative supports are described
below:
(a)
Union Metal Corporation decorative nostalgia traffic supports
shall be designed in accordance with 2001 AASHTO (American Association
of State Highway and Transportation Officials) criteria, including
interim specifications through 2006 for a wind zone of 80 miles per
hour, Appendix C alternate method for wind pressures. Signal loading
for design purposes will be per PennDOT standard loadings as shown
in the Commonwealth of Pennsylvania's TC-8800 Series Traffic
Standards (Publication 148) as well as the Department's Criteria
for the Design and Construction of Traffic Related Structures (Publication
149) and with the actual plan loadings. Materials and workmanship
will be in accordance with Publication 408. Design calculations and
drawings bearing the stamp of a professional engineer registered in
the state of Pennsylvania certifying that these designs meet these
requirements shall be provided by the manufacturer.
(b)
The pole and arm shaft shall be fabricated from commercial quality
hot rolled steel. The shaft shall have only one longitudinal, automatically,
electrically welded joint and shall have no intermediate horizontal
joints or welds. Only one length of steel sheet shall be used, which
shall be formed into a continuously tapered shaft, having a taper
of approximately 0.14 inch per foot.
(c)
After forming and welding, the tapered shaft shall be longitudinally
cold rolled over a hardened steel mandrel under sufficient hydraulic
pressure to flatten the weld and increase the physical characteristics
of the shaft. The shaft shall meet the chemical and physical properties
of ASTM A595 Grade A, having a minimum yield strength of 55,000 psi.
The cold rolling process shall form a sixteen-flute cross section
for the pole upright shaft. The arms shall be round in cross section
for all arm lengths. The upright shaft shall have 16 equally spaced
Doric flutes, sharp and clear-cut throughout the entire length of
the shaft. The radius of the flute crests shall not exceed the thickness
of the metal of the shaft. Individually rolled flutes or round poles
with fluted sheathing will not be acceptable.
(d)
The base plates shall conform to ASTM A709 GR36 or ASTM A572
GR50. They shall be connected to the upright shaft by means of a 100%
penetration weld. Included with each pole shall be six steel anchor
bolts per PennDOT specifications complete with hex nuts and washers.
Nuts, washers and threaded areas of anchor bolts shall be hot-dipped
galvanized to ASTM A-153. Anchor bolts shall meet the requirements
of ASTM F1 554. Anchor bolts shall be identical to PennDOT standard
specifications, including material, length, diameter, bolt circle,
embedment plates, nuts and washers for arm length being supplied.
(e)
The pole shaft shall be furnished with two four-inch-by-six-and-one-half-inch
reinforcing handhole frames and a one-half-inch 13UNC grounding provision,
one near the pole base, the other opposite the mast arm.
(f)
Each pole shall be provided with an ornamental style number
54 stack pole top with ball cap of appropriate scale. Pole cap material
shall conform to the requirements of AA-319 aluminum.
(g)
When required, the upright shaft shall be extended above the
mast arm to a height of 30 feet to accommodate a steel lighting arm.
The style and length of the arm to be specified by the engineer.
(h)
Couplings for the mounting of traffic signals shall be welded
into the pole for the purpose of supporting pedestrian signals as
required. Decorative elbows shall be supplied by the pole manufacturer.
No stainless steel banding shall be used. Angular orientations shall
be as specified by the engineer. Spacing shall be as required to support
the signal type selected. Similar provisions will be used for the
mounting of other appurtenances such as cameras or street name signs.
Mast arms shall be eight- or sixteen-fluted straight flange plate
mounted a steel arm plate with four connecting bolts. Plates shall
conform to the requirements of ASTM-A36 steel. Ring stiffened gussets
shall be supplied as well.
(i)
Arms shall be filled drilled by the installer. Rubber grommets
shall be furnished for each signal location. Rigid mount type signal
hanger brackets shall be supplied sized to fit the arm diameters at
the locations shown on the contract documents. These brackets shall
be finish painted after galvanizing to match structure finish. No
stainless steel banding shall be used.
(j)
The pole manufacturer shall be PennDOT approved Publication
35, Bulletin 15, listed for the manufacture of traffic signal poles.
All welding to be performed in accordance with the requirements of
AWS DI.1 in a shop certified to the American Institute of Steel Construction
(AISC) Simple Bridges. The shop shall all be certified ISO 9001.
(k)
Poles, arms, and other structural steel items shall be hot-dipped
galvanized to the requirements of ASTM A123 and all exterior surfaces
shall be powder coated Federal Color Standard A595B Gloss Black 17038
in accordance with powder coat manufacturer's procedures. The
powder coat finish will have a warranty of not less than five years
after applied.
(l)
The ornamental base shall be Union Metal National Family Series
and shall conform to the requirements of AA-319-O.F, aluminum. It
shall be two-piece split (clamshell) design with two removable doors
at 180°. The base halves shall be split equally and fitted to
provide a hairline seam when assembled. The base halves shall be factory
assembled before shipment by means of internal lugs cast into the
base bottom and stainless steel connecting pins at the top. The base
casting shall fit securely around the pole and the base opening shall
match the contour of the fluted pole. Finish paint base to match pole.
(m)
Pedestrian poles of matching style and of appropriate scale
will also be supplied by the mast arm manufacturer.
(3) Cement concrete. For traffic signal and sign support foundations
and equipment cabinet base, use Class A conforming to PennDOT § 704
and as follows:
(a)
The foundation depth for each traffic signal mast arm shall
be increased six inches beyond the required foundation depth stated
in PennDOT Publication 148, TC-8800 series for future installation
of a luminaire arm.
(b)
Contractor shall not install poles on concrete bases until a
minimum of 72 hours after placing concrete and/or the 3,300 psi compressive
strength is achieved.
(c)
A copy of the concrete batcher mix slip (concrete mobile) and
proof of being a PennDOT approved supplier shall be provided to the
Township Engineer with each delivery.
(4) A GPS time source shall be provided at each isolated (not interconnected)
local to maintain clock accuracy for time-of-day and coordination
purposes. The GPS time source shall automatically adjust for DST changes.
(5) Pad-mounted cabinet.
(a)
General. All new cabinets should be installed as basemounted.
The cabinet enclosures shall be a basemounted (Type 1) NEMA 3R enclosures
and sized (55 inches by 44 inches by 26 inches with eighteen-inch
riser base and shelves) to adequately house the full complement of
the specified equipment.
(b)
Cabinet finish. All surfaces shall be free from weld flash.
All sharp edges shall be ground smooth. All seams shall be sealed
with RTV sealant or equivalent material on the interior of the cabinet.
The cabinet shall be powder coated Federal Color Standard A595B Gloss
Black 17038 in accordance with powder coat manufacturer's procedures.
The powder coat finish will have a warranty of not less than five
years after applied.
(c)
A generator connector shall be in a separate cabinet from the
service disconnect. A flange inlet receptacle, 30 amp, 120 volts,
shall be provided for the attachment of an alternative power source
(emergency generator) on the exterior of the cabinet with a waterproof
protective flip-top cover. An assembly shall be provided to transfer
to/from utility power without backfeeding.
(6) Uninterruptible power supply (UPS) shall be included to provide for
emergency power when the utility power is lost or is outside the equipment
operating range as described by NEMA. The UPS battery backup unit
shall be a DBL 777 MX series as manufactured by TechPower Developments.
The UPS unit shall be equipped with a bypass switch with generator
input option.
(a)
A sufficient number of batteries shall be included to provide
eight hours of operation. Batteries shall be placed on a shelf or
tray and shall not be placed directly on the concrete base of the
cabinet. An additional set of spare batteries shall be provided to
the Township Public Works Department to be used as replacements during
extended outages.
(b)
A red LED indicator light (0.25 inch to 0.5 inch in diameter)
shall be provided on the exterior of the cabinet. The light shall
be illuminated when utility power has been lost and the intersection
is operating under the UPS system. The light should be positioned
such that it is clearly visible from the intersection.
(c)
The UPS system shall be tested in the presence of the Township
Public Works Department and Township Engineer.
(7) Fiber-optic communications. Twelve-strand single mode fiber-optic
cable shall be appropriate for outdoor aerial use or for burial within
conduit. Fiber-optic cable, switches, patch panel, communication cables,
and surge protection shall be installed in accordance with PennDOT
Publication 408 § 953.30. Installation of fiber-optic cable
shall be coordinated with the PennDOT Utilities Unit.
(8) Emergency preemption system. Furnish and install a complete emergency
preemption system that operates in accordance with the PennDOT approved
traffic signal permit and as follows:
(a)
Emergency preemption equipment to be manufactured by Opticom
and shall include detectors, verification/confirmation beacons, preemption
card rack, preemption cards, calibration software, and wiring as required
for proper operation of the system.
(b)
The receiver shall detect approaching emergency vehicles for
a minimum range of 2,500 feet.
(c)
The traffic controller shall activate the confirmation lights,
because only the traffic controller can determine accurately if entry
into preemption mode has actually occurred.
(d)
The preemption shall be field tested by the contractor in the
presence of the Township Engineer and/or the Township Public Works
Department.
(e)
Following testing, the detector head may need to be relocated
and/or adjusted in the field to provide acceptable operation as deemed
appropriate by the Township Engineer, the Township Public Works Department
and/or PennDOT.
(f)
All components of the preemption system shall have full ten-year
warranties against defects in material and workmanship, except for
the emitter lamp, which shall have a one-year warranty.
(9) Durable pavement markings. All markings shall be hot thermoplastic
pavement markings installed in accordance with § 960 of
PennDOT Publication 408. The contractor will be responsible to maintain
all pavement markings installed for a period of one year from the
conclusion of the thirty-day test. If, during this period, the Township
Engineer, Township Public Works Department or PennDOT determines the
pavement markings are in need of replacement, it will be the responsibility
of the signal contractor to complete this work at no additional cost
to the Township.
(10)
Intersection surveillance video equipment. All equipment and
installation to follow the below standards.
(a)
The security equipment is installed in a twenty-four-inch-high-by-twenty-four-inch-wide-by-eight-inch-deep
environmentally controlled outdoor equipment enclosure. This enclosure
is mounted on the traffic pole and requires one 120 VAC quad outlet.
The enclosure should be mounted on the pole that has cable access
to all signal poles in the intersection. Typical cables used are outdoor
rated CAT6 and outdoor rated 18/4 for external IR power.
(b)
The enclosure will contain a hardened recording server (Archiver)
with either a 2TB or a 4TB HDD for video storage. The recording software
(Genetec) will be a stand-alone system with the ability to be reached
from the main Genetec system at the Upper Chichester Municipal Complex.
(c)
There will be one six-to-eight-port POE+ hardened network switch,
with power supply, installed in the enclosure which will serve as
the common connection point for the server, cameras and LAN link on
the Comcast router. This switch will provide the necessary power for
all cameras.
(d)
Also included in the enclosure will be one 24VAC/VDC power supply
which will provide power for the external infrared device which will
be installed on the housing for each camera focused on a traffic lane.
(e)
All cabling to cameras will be surge-protected using RJ45 in-line
surge suppressors connected to the electrical ground of the enclosure.
(f)
The local server will communicate to the main system via a Comcast-supplied
high-speed broadband router.
(g)
Each intersection should include a camera for overall intersection
surveillance. This camera is a high megapixel (5MP or higher) and
is installed on the traffic pole that will provide the widest view
of the intersection. The cameras will have day/night functionality
which will switch from color to black-and-white when the light level
drops below a predefined threshold.
(h)
The goal of the cameras mounted on the poles above the lanes
is to provide an unobstructed telephoto view of the back of the vehicle
as it travels through the intersection. The lane camera will be a
2MP varifocal model. At night, the infrared illuminator will provide
the necessary IR light required to view the license plate. One camera
per lane (both directions) of the intersection is required.
(11)
Conduit runs will be sized for future use. All main street crossings
will, at a minimum, be two- to three-inch conduits. Controllers should
be located at the intersection of conduit runs, and not at the end
of a conduit loop. Each controller foundation, or pole foundation
if the controller is pole-mounted, will, at a minimum, have the equivalent
of two- to three-inch conduits entering it from an adjacent junction
box. All loops will terminate in junction boxes, and there will be
at least one JB 27 junction box on each corner.
(12)
Street lighting circuits will be installed in a separate two-inch
conduit system specifically for that purpose and will be protected
by circuit breakers that are also separate from the traffic signal
system.
(13)
For intersections along Routes 452, 322, and Chichester Avenue:
(a)
Controller assembly and cabinet. All controller assemblies shall
be NEMA TS-2, Type 1 and shall be equipped with an eight-phase load
bay panel (sixteen-position) capable of providing the required sequence
of operation.
[1]
An Econolite ASC/3 controller unit and/or an Econolite ASC/2M-1000
master controller unit with closed loop system capabilities and controller
key shall be provided.
[2]
A ComNet CNGE2FE16MS ethernet switch (or approved equal) shall
be provided for all controller assemblies. If the intersection will
not be connected to the Econolite Centracs system, the ethernet switch
must be provided to the Township for future connection, and external
modems shall be utilized for communications through the closed loop
system.
(b)
InSync adaptive control.
[1]
The InSync adaptive equipment as manufactured by Rhythm Engineering
shall include InSync processors, equipment panels and power supply,
RG cable, ethernet patch cables, monitors/keyboards, video cameras
and enclosures and all necessary cables connectors, brackets and mounting
hardware. The adaptive signal control system shall be installed in
the controller assembly as recommended by the manufacturer and as
directed by a Rhythm Engineering representative. Connect the InSync
processor to the ethernet switch, install InSync's detector input
connection type and wire the RG return cable.
[2]
Regarding the installation of the video cameras:
[a] Provide ethernet cable: environmentally hardened,
outdoor-rated 350 MHz Category 5e cable. The cable is required to
be riser rated, 24 AWG solid copper, have Polyolefin insulation, UV
and oil-resistant PVC jacket. Pair 1 to be blue, white/blue, Pair
2 to be orange, white/orange, Pair 3 to be green, white/green and
Pair 4 to be brown, white/brown. The operating temperature is required
to be from - 40° C. to 70° C. The cable will conform to the
following standards: ISO/IEC 11801 Category 5e, NEMA WC 63, and ANSI/TIA/EIA
568-B.2 Category 5e. The cable is required to be without splices or
joints for a single run. Obtain instructions from the manufacturer
about alternate architecture when length of a single run of CAT 5e
cable exceeds 320 feet.
[b] Provide RJ-45 plug connectors to be used at both
the camera and cabinet ends. Category 5e cable, RJ-45 connectors and
crimping tool requires approval from Rhythm Engineering. Follow the
manufacturer's instructions to insure proper connection of equipment.
[c] Provide 14 AWG three conductor power cable meeting
the requirements of IMSA specification 20-1.
[d] Existing vehicle detection at the project intersections
must be maintained until the InSync adaptive system is activated.
[e] Mount video camera(s) as directed by the factory-certified
representative using mounting brackets to obtain manufacturer recommended
installation location. Provide mounting bracket detail to Engineer
for approval prior to installation. Connect ethernet cable and power
cable in accordance with manufacturer's requirements from each
camera back to the controller assembly.
[f] Adjust camera(s) as necessary during the system
integration as directed by a Rhythm Engineering representative.
(c)
Vehicle detection.
[1]
Furnish and install video vehicle detection for all approaches
following the manufacturer's specification, in place of standard
in-pavement inductance loop detectors, unless otherwise approved,
in writing, by the Township Public Works Department and Township Engineer.
For video detection, the Autoscope Solo Terra vehicle detection system
shall be utilized, meeting the following specifications:
[a] EasyLink connectivity for IP-addressable broadband
communications and web server interface for easy setup.
[b] Streaming digital MPEG-4 video output.
[c] Vehicle detection, traffic data measurement, speed,
and incident detection.
[d] Integrated color camera, zoom lens, and dual-core
processor for advanced image processing.
[e] 22x continuous focus lens.
[f] Image sensor and processor sealed in waterproof
and dust-tight NEMA 4 housing with a thermostatically controlled faceplate
heater.
[g] EasyLink (broadband communications (up to five
Mb/sec) with RJ-45 connection from required terra interface panel
(TIP).
[2]
The video detection system shall be installed and calibrated
in accordance with the manufacturer specifications. PennDOT, the Township
Public Works Department, and the Township Engineer must approve the
detector layout and operation.
[3]
LEDs. All vehicular and pedestrian signal heads shall be LED
(light-emitting diode) as manufactured by GE Lumination (formerly
GELcore) and shall meet all current ITE specifications and requirements.
The modules will carry a five-year manufacturer's replacement
warranty for materials and workmanship and light degradation that
begins at the date of delivery. If an LED fails, the supplier will
provide a new replacement LED. Street signs should be LED per PennDOT
standards when applicable.