1204ITS COMMUNICATIONS

1204.1DESCRIPTION—This work is the furnishing and installation of the system equipment for the control

of ITS and the furnishing and installation of equipment necessary to provide communication between devices, controllers, assemblies, and other components in the field or RTMC/TMC or both that form a system as indicated on the approved plans.

1204.2MATERIAL—

• Single-mode fiber

• Mini Loose tubes

• Dielectric central member

• Outer Jacket, High-Density Polyethylene (HDPE). HDPE 3-way factory bundled microduct with a polyethylene oversheath. Each microduct is to be smooth on the outside, micro-ribbed on the inside, and have a co-extruded permanent lubrication layer.

• Meets Bellcore TR-TSY-000020, REA PE-90 and ANSI/ICEAS-87-640 according to ANSI/TIA/EIA- 568A Commercial Building Telecommunications Cabling Standard.

• Reverse oscillation buffer tube stranding.

• Footage markings printed every 2 feet along outer jacket.

• Attenuation at 1310/1550 nm: 0.35/0.25 dB/km (maximum attenuation for every fiber in cable across entire operating temperature range).

• Operating temperature range: -40F to 158F

• Maximum Nominal Outside Diameter: 6.2 mm.

• Microduct oversheath is to be orange. Inner microduct colors are to be green, orange, and blue.

• Microduct sizes are referenced using an outer dimension or inner dimension. The 3 -way microduct must meet or exceed the 27 mm outer dimension or 20 mm inner dimension.

• Single-mode fiber.

• Loose tube cable.

• Dielectric central member.

• Medium density polyethylene cable jacket.

• Meets Bellcore TR-TSY-000020, REA PE-90 and ANSI/ICEAS-87-640 according to ANSI/TIA/EIA- 568A Commercial Building Telecommunications Cabling Standard.

• Reverse oscillation buffer tube stranding.

• Footage markings printed every 2 feet along outer jacket.

• Attenuation at 1310/1550 nm: 0.35/0.25 dB/km (maximum attenuation for every fiber in cable across entire operating temperature range).

• Operating temperature range: -40F to 158F

• Maximum Nominal Outside Diameter: 10.5 mm.

• Single-mode fiber.

• Loose tube cable.

• Dielectric central member.

• Medium density polyethylene cable jacket. HDPE SDR11 1 1/4 inch inner dimension. Reels can be separate or combined onto a single reel.

• Meets Bellcore TR-TSY 000020, REA PE-90 and ANSI/ICEAS-87-640 according to ANSI/TIA/EIA 568A Commercial Building Telecommunications Cabling Standard.

• Reverse oscillation buffer tube stranding.

• Footage markings printed every 2 feet along outer jacket.

• Attenuation at 1310/1550 nm: 0.35/0.25 dB/km (maximum attenuation for every fiber in cable across entire operating temperature range).

• Operating temperature range: -40F to 158F

• Colors of the HDPE are to be green, orange, and blue.

required for underground installations.

ethernet radio operating in the license free 5GHz band meeting the following requirements:

• 128 bit- AES keys

• WPA2

• TKIP

• Internal Dual Polarized Directional.

• Gain: 19 dBi.

• Azimuth: 17 degrees Horizontal/Vertical.

• Elevation: 17 degrees Horizontal/Vertical.

• EIRP: Up to +36dBm for point to multipoint deployments, +49 dBm for point to point deployments

• RF Output: +30dBm rated transmitter.

• Operating Frequency: 5180 MHz - 5825 MHz.

• Bandwidths: 10, 20, 40, and 80 MHz.

• Receive Sensitivity: Up to 500 Mbps.

• Distance: Up to 2 miles (FCC Class A, Part 15 compliant).

• Distance: Up to 4 miles with MAC lock enabled (FCC Class A, Part 15 compliant).

• Addressing: Static IP, DHCP Client, DHCP Server

• Two RJ-45 10/100/1000 Ethernet ports with sealed cable gland connectors.

• Three layers of Ethernet surge suppression on PD port.

• IEEE 802.3, 802.3u compliant.

• CSMA/CD 10/100 autosense, full-duplex.

• Dynamic Frequency Selection (DFS).

• Transmit Power Control (TPC).

• Quality of Service (QoS 802.1p).

• Internal RF Spectrum Analysis.

• Internal Antenna Alignment.

• Cast aluminum NEMA-4X/IP67 enclosure.

• Two weatherproof Ethernet connectors.

• System LEDs (Power-On, Ethernet Link, Signal Strength).

• Weight: 5.5 pounds with bracket and sunshield.

• Dimensions: No Larger than 12 inch by 12 inch by 3 inch.

• Pole Mounting Assembly.

• Operating Power: 48 volts direct current (VDC) to 57 VDC at 170 mA.

• Power Consumption: 8 W maximum with no PD load connected.

• Internal overcurrent protection.

• PD Power: IEEE 802.3af/at PD compliant.

• PSE Power: IEEE 802.3af/at PSE compliant.

• Operating temperature: -40F to 158F

• Storage temperature: -40F to 185F

• Relative humidity (non-condensing): 5% to 95%.

ethernet radio operating in the license free 24 GHz band meeting the following requirements:

• 128 bit- AES keys

• WPA2

• TKIP

• Polarity: Dual-Slant Polarization.

• TX Gain: 23 dBi.

• RX Gain: 23 dBi.

• Front to Back Ratio: 70 dB.

• Cross-Polarity Isolation: >28 dB.

• Azimuth: 20 degrees Horizontal/Vertical.

• Elevation: 20 degrees Horizontal/Vertical.

• EIRP: -50 dBm for point to multipoint deployments, +49 dBm for point to point deployments

• RF Output: +30dBm rated transmitter.

• Operating Frequency: 24.05 GHz, 24.25GHz.

• Bandwidths: 10, 20, 30, 40, and 50 MHz.

• Receive Sensitivity: 1.4+ Gbps.

• Distance: Up to 8 miles (FCC Class A, Part 15 compliant).

• Addressing: Static IP, DHCP Client, DHCP Server

• Data Port: One, RJ-45, 10/100/1000 Ethernet port.

• Configuration Port: One, RJ-45, 10/100 Ethernet port.

• Alignment Port: One, RJ-12, alignment tone port.

• IEEE 802.3, 802.3u compliant.

• CSMA/CD 10/100 autosense, full-duplex.

• Dynamic Frequency Selection (DFS).

• Transmit Power Control (TPC).

• Quality of Service (QoS 802.1p).

• Network Services: Ping Watchdog, SNMP Agent, Web Server, SSH Server, Telnet Server, NTP Client, Dynamic DNS, System Log, Device Discovery

• Internal RF Spectrum Analysis.

• Internal Antenna Alignment.

• Cast aluminum NEMA-4X/IP67 enclosure.

• Three weatherproof Ethernet connectors.

• System LEDs (Power-On, Ethernet Link, Signal Strength).

• Weight: 23.15 pounds with mounting bracket.

• Dimensions: No Larger than 12 inch by 12 inch by 3 inch.

• Pole Mounting Assembly.

• Operating Power: 42 VDC to 58 VDC.

• Power Method: 50V, 1.2A PoE.

• Power Consumption: 40 W maximum.

• Operating temperature: -40F to 131F

• Relative humidity (non-condensing): 5% to 95%.

and connectors to provide a fully functioning cellular data connection. Provide a modem that is compatible with existing District modems, existing SIM cards, spare parts , and District Inventory and meeting or exceeding the following requirements:

• IPsec VPN

• GRE Tunnel

• Friends List

• HSUPA

• With fallback to: HSDPA, UMTS, EDGE, GPRS (MS-12)

• Tri-Band UMTS/HSDPA/HSUPA, 850/1900/2100 MHz

• Quad-Band GPRS/EDGE, 850/900/1800/1900 MHz

• EV-DO Rev A or later with fallback to: CDMA 1x EV-DO Revision 0, CDMA 1xRTT, CDMA IS-95

• Operating Frequency: 700/800 MHz Cellular, 1900 MHz PCS

• FCC Approved

• PCS Type Certification Review Board (PTCRB)

• Carrier Specific Approvals.

• Operating temperature: -40F to 158F

• Storage Temperature: -40F to 185F

• Vibration/Shock: MIL-STD-810G

• ROHS Compliant

• Input Voltage: (9-28V DC)

• Size: 5.6 inch by 1.5 inch by 4.0 inch

• Ethernet: 10/100 Mbps RJ-45

• RS-232: DB9 DCE (300 – 230400 baud)

• Antenna Connection: Primary 50 Ohm SMA, Rx Diversity 50 Ohm SMA

• TCP/IP

• UDP/IP

• DHCP

• HTTP

• SNMP

• SMTP

• SMS

• MSCI

• Modbus

• Binary

• Network

• Signal

• Activity

• Service

• Support a cellular frequency of 698 -960 MHz and 1710-2170 MHz PCS frequency band as well as all 3G and 4G/LTE frequencies used in the United States.

• Max Impedance: 50 Ohms

• Gain: 6 dBd or greater

• Power: 50W

• Vertical Polarization

• Connector: N/Female

Provide necessary low loss N/Female to N/Female connectors. Utilize ultra-low loss coaxial cable for connection between antenna and modem. Provide cable with dB loss less than 1.9 dB and diameter of 7/16 inches. Provide cable length as required to eliminate any cable splicing and eliminate any excess cable to make the length as short as possible. Provide necessary additional ancillary equipment, hardware and cabling to integrate new modem into the District’s communications network. Modem must be compatible with the use of an existing SIM card currently in use by the District. Modem must auto configure based on the installed SIM. See contact information in the project documents for SIM card.

cable and connectors, properly grounded through the PoE AC/DC ground as recommended by the manufacturer. Supply all cable between wireless radio and related communication’s enclosure that are comprised of single continuous runs without splices. Make provisions to keep some slack in the vertical cable run within or around the wireless radio enclosure . Provide cable entrance enclosure fittings to maintain enclosure NEMA/IP rating and strain-relief mechanism to the cable.

647 and as required by design, consisting of:

transition points as shown in Publication 647. Provide a 5/8-inch by 8-foot ground rod as specified in Section

1101.11(j). Provide minimum No. 6 AWG ground wire as specified in Section 1101.08(c)

• A 5/8-inch thimble eye nut with 5/8-inch hex nut and curved washer

• Guy hook and clamp

• A 5/8-inch machine bolt

• Preformed deadend guy grip

• Extra High Strength (EHS) Steel Guy Strand

• Strand grips or 3-bolt clamp

• A 5/8-inch by 8-foot Triple Eye Anchor Rod

• X-16 Anchor

• A 5/16-inch messenger wire

• An 18-gauge stainless steel lashing

• Slack loop rack and attachment hardware

• Slack loop cable clamps

• Nylon strap for slack loop cable entry/exit

1204.3CONSTRUCTION—As directed and as follows:

appropriate installation techniques so the optical and mechanical characteristics of the cable are not degraded. Unless otherwise approved, use only the equipment and procedures specified by the manufacturer of the fiber optic cable. Install the cable in such a way the manufacturer’s minimum bending radius and force limitations are not violated before, during, or after installation. Before any fiber optic cable installation is performed, provide the Representative with four copies of the cable manufacturer's recommended installation plan and equipment set up locations and maximum force limitations for each cable size and type. The installation system to be used is to be inspected and approved by the Representative. Provide a list of the minimum allowable cable bending radius and cable manufacturer's approved pulling lubricants and guidelines for their application. Only these lubricants are allowed. Establish adequate voice communications between the blower units and receiving end and all intermediate locations. Set up the cable reels on the same side of the junction box as the conduit section in which the cable is to be placed. Make the reel level and bring it into proper alignment with the conduit section so the cable will pass from the top of the reel in a long smooth bend into the duct without twisting. Do not pay off the cable from the bottom of the reel. Feed the cable by manually rotating th e wheel. Install the cable in the duct with a factory installed cable grip and swivel attached to the air carrier unit to prevent twisting during the installation. Use an approved cable feeder guide between the cable reel or storage stack and the face of the duct to protect the cable, and to guide the cable into the duct as it is payed off the reel or from the storage stack. The dimensions and set -up of the feeder g uide are to be such that the cable does not bend at any location to a radius less than the cable's minimum allowable bending radius. Do not exceed this minimum-bending radius at any time during cable installation. Keep cable ends sealed at all times during installation, using an approved cable end cap. Do not use tape to seal the cable end. Keep the cable end sealed until termination takes place. Provide a minimum of 50 feet of slack for cables that are not immediately terminated. Ensure the blower tractor unit is not allowed to continue to operate if cable motion stops. As the cable reaches any intermediate locations, make sure it is routed properly. Ensure no sharp bends exist that are less than the cable’s minimum bend radius. Apply lubricant as required. When the cable reaches the end point, stop the blower and blower tractor according to the blower manufacturer’s recommendations. Break down blower units according to the manufacturer’s recommendations. Use an approved lubricant , if needed, in the amount recommended by the cable manufacturer, to facilitate pulling the cable. Lubricate the cable as it is payed off the cable reel or storage stack into the cable feeder. Place an approved cable lubricator (funnel) around the cable jus t ahead of the cable feeder to facilitate proper lubrication of the cable. After the cable has been installed, wipe the exposed cable in a junction box or cabinet clean of cable lubricant with a cloth before leaving the junction box or cabinet. Take every precaution to ensure the cable is not damaged during storage and installation. Do not allow workers to step on the cable or run it over with any vehicle or equipment. Do not pull the cable along the ground, over edges or corners, over or around obstructions, or through unnecessary curves or bends. Use approved cable guides, feeders, shoes , and bushings to prevent damage to the cable during installation. Replace and reinstall all damaged cables at no additional cost to the Department. Use micro conduit for fiber optic backbone installations with limited or no right-of-way. Place conduit for interstate and limited access roads along side the outside asphalt shoulder within right-of-way. Alternative placement can be in the median provided enough right-of-way exists to not interfere with opposing vehicular

traffic in a multilane divided highway without special traffic control provisions. Install conduit in continuous intervals with maximum distance of 1,100 feet between junction boxes. Place junction boxes at every crossroad for future lateral construction. Place junction boxes at all 90-degree horizontal bends. Place junction boxes within 8 feet of all transition points. Use micro conduit for fiber optic laterals installed with limited or no right -of-way. Install conduit in continuous intervals with maximum distance of 500 feet between junction boxes. Place junction boxes at all 90-degree horizontal bends. Place junction boxes within 8 feet of all transition points. Install cable into orange duct for ITS applications. Cable runs are to be continuous between allowable termination points in equipment cabinets and multiplexer nodes. Carefully determine the length of cable necessary to reach from termination point to termination point. Do not splice fiber optic cable in conduit or junction boxes. Cable may be furnished and installed through an intermediate junction box if approved . Intermediate junction boxes will be considered part of cable installation, and no separate payment will be made for this work. Install the necessary length of cable from one equipment cabinet or multiplexing node to the immediate next downstream equipment cabinet or multiplexing node. Carefully store the remaining length of cable to be installed in the next conduit in a manner that is not hazardous to pedestrian or vehicular traffic yet ensures no damage to the cable occurs. Store the cable in a manner that allows that length of cable to be safely pulled into the next conduit and is approved. In junction boxes, store 50 feet of slack fiber optic cable for the distribution fiber and 20 feet of slack fiber for the termination fiber spur that passes through the junction box. In addition, provide 50 feet of slack fiber for all fiber types at a junction box adjacent to an equipment field device cabinet. Neatly store slack cable on the side walls of the junction box using racking hardware approved. Optical fibers must be placed inside loose buffer tubes. Each buffer tube must contain 12 fibers. The fibers must not adhere to the buffer tubes. No separate payment will be made for equipment used to install, terminate, and test the fiber optic cable. The unit price for fiber optic cable includes all cable ties, clamps, associated material , and labor required to install the cable. The firm or subcontractor involved in the installation of the fiber optic cable must meet the requirements of Section 102.01.

cabinets, and at the TMC shown on the plans, unless directed otherwise. Splice through all fibers not used at a particular cabinet, and cap unused fibers that end in a cabinet. Provide and install patch cables at the TMC or Multiplexers where connection is to be made from an existing patch panel to a communications device. At fiber optic termination points provide a fiber optic splice enclosure. Make all fiber terminations by splicing the fiber to factory connected pigtails using fusion splicing only. The pigtails are to be buffered, strengthened with aramid, and meet the re quirements for fiber optic cable. All pigtail connectors are to be the ceramic ST type. Use the pigtails to connect the fiber optic cable to the equipment in the cabinet or at the multiplexers. Permanently label all fiber optic connectors, whether on pigtails or equipment, to preclude improper connection. The Representative will approve the labeling method(s) before use. The cost of terminating, including the cost of splicing kits, pigtails, connectors, fiber optic cable caps, moisture sealants, and mounting hardware is considered incidental to furnishing and installing fiber optic cable, and will not be paid separately.

installation techniques so the optical and mechanical characteristics of the cable are not degraded. Unless otherwise approved , use only the equipment and procedures specified by the manufacturer of the fiber optic cable. Install the cable in such a way neither the minimum bending radius nor the maximum pulling tension are violated before, during, or after installation. Before any fiber optic cable installation is performed, provide the Representative with four copies of the cable manufacturer's recommended and maximum pulling tensions for each cable size and type. These pulling tensions are to be specified for pullin g from the cable's outer jacket. Also provide a list of the minimum allowable cable bending radius and the cable manufacturer's approved pulling lubricants and guidelines for their application. Only these lubricants are allowed. The installation system to be used is to be inspected and approved by the Representative. Establish adequate voice communications between the cable feeding location and the cable pulling

equipment before starting any pulling operations. Set up the cable reels on the same side of the junction box as the conduit section in which the cable is to be placed. Make the reel level and bring it into proper alignment with the conduit section so the cable will pass from the top of the reel in a long smooth bend into the duct without twisting. Do not pull the cable from the bottom of the reel. Feed the cable by manually rotating the wheel. Pull the cable in the conduit with a cable grip designed to provide a firm hold on the exterior covering of the cable. Use an approved cable feeder guide between the cable reel or storage stack and the face of the duct to protect the cable, and to guide the cable into the duct as it is payed off the reel or from the storage stack. The dimensions and set -up of the feeder guide are to be such that the cable does not bend at any location to a radius less than the cable's minimum allowable bending radius. Do not exceed this minimum- bending radius at any time during cable installation. Keep cable ends sealed at all times during installation, using an approved cable end cap. Do not use tape to seal the cable end. Keep the cable end sealed until termination takes place. Provide a minimum of 50 feet of slack for cables that are not immediately terminated. At any time, the allowable pulling tension is to be 70% of the manufacturer's maximum pulling tension for pulling by the outer jacket. Ensure the allowable pulling tension is not exceeded at any time during cable installation by using one of the following methods, as approved:

• Pulling the cable by hand.

• Approved mechanical means.

If the cable is pulled by mechanical means, use a clutch device to ensure the allowable pulling tension is not exceeded. Also, attach a strain gauge to the pulling line at the cable exit location, and at a sufficient distance from the take -up device, s o the strain gauge can be read throughout the entire cable pulling operation. Use an approved lubricant if needed, in the amount recommended by the cable manufacturer, to facilitate pulling the cable. Lubricate the cable as it is payed off the cable reel or storage stack into the cable feeder. Place an approved cable lubricator (funnel) around the cable just ahead of the cable feeder to facilitate proper lubrication of the cable. After the cable has been installed, wipe the exposed cable in a junction box or cabinet clean of cable lubricant with a cloth before leaving the junction box or cabinet. Take every precaution to ensure the cable is not damaged during storage and installation. Do not allow workers to step on the cable or run it over with any vehicle or equipment. Do not pull the cable along the ground, over edges or corners, over or around obstructions, or through unnecessary curves or bends. Use approved cable guides, feeders, shoes, and bushings to prevent damage to the cable during installation. Replace and reinstall all damaged cables at no additional cost to the Department. Install conduit for fiber optic backbone. Place conduit for interstate and limited access roads along the shoulder right-of-way to limit interference of vehicular traffic. Alternative placement can be in the median provided enough right -of-way exists to not interfere with opposing vehicular traffi c in a multilane divided highway without special traffic control provisions. Install conduit in continuous intervals with maximum distance of 1,100 feet between junction boxes. Place junction boxes at every crossroad for future lateral construction. Place junction boxes at all 90 -degree horizontal bends. Place junction boxes within 8 feet of all transition points. Install conduit for lateral fiber optic cable in continuous intervals with maximum distance of 500 feet between junction boxes. Place junction boxes at all 90-degree horizontal bends. Place junction boxes within 8 feet of all transition points. Install cable into orange duct for ITS applications. Cable runs are to be continuous between allowable termination points in equipment cabinets and multiplexer nodes. Carefully determine the length of cable necessary to reach from termination point to termination point. Do not splice fiber optic cable in conduit or junction boxes. Cable may be furnished, installed, and pulled through an intermediate junction box if approved. Intermediate junction boxes will be considered part of cable installation, and no separate payment will be made for this work. Pull the necessary length of cable to be installed from one equipment cabinet or multiplexing node to the immediate next downstream equipment cabinet or multiplexing node. Carefully store the remaining length of cable to be installed in the next conduit in a manner that is not hazardous to pedestrian or vehicular traffic yet ensures no damage to the cable occurs. Store the cable in a manner that allows that length of cable to

be safely pulled into the next conduit and is approved. In junction boxes, store 50 feet of slack fiber optic cable for the distribution fiber and 20 feet of slack fiber for the termination fiber spur that passes through the junction box. In addition, provide 50 feet of slack fiber for all fiber types at a junction box adjacent to an equipment field device cabinet. Neatly store slack cable on the side walls of the junction box using approved racking hardware. No separate payment will be made for equipment used to install, terminate, and test the fiber optic cable. The unit price for fiber optic cable includes all cable ties, clamps, associated material, and labor required to install the cable. The firm or subcontractor involved in the installation of the fiber optic cable must meet the requirements of Section 102.01.

cabinets, and at the TMC shown on the plans, unless directed otherwise. Splice through all fibers not used at a particular cabinet, and cap unused fibers that end in a cabinet. Provide and install patch cables at the TMC or Multiplexers where connection is to be made from an existing patch panel to a communications device. At fiber optic termination points provide a fiber optic splice enclosure. Make all fiber terminations by splicing the fiber to factory connected pigtails using fusion splicing only. The pigtails are to be buffered, strengthened with aramid, and mee t the requirements for fiber optic cable. All pigtail connectors are to be the ceramic ST type. Use the pigtails to connect the fiber optic cable to the equipment in the cabinet or at the multiplexers. Permanently label all fiber optic connectors, whether on pigtails or equipment, to preclude improper connection. The Representative will approve the labeling method(s) before use. The cost of terminating, including the cost of splicing kits, pigtails, connectors, fiber optic cable caps, moisture sealants, and mounting hardware is considered incidental to furnishing and installing fiber optic cable, and will not be paid separately.

Spectrum, Received Signal Strength Indicator (RSSI), Link Quality and Performance for each wireless node as shown on the communications plan sheet. Submit results of the analysis to the Department for approval before any repeater pole installation. Any location not meeting the minimum RSSI level will require lateral adjustment to the location to achieve a minimum RSSI receive threshold reading as recommended by the manufacturer. Install the radios and panel antennas cable according to the manufacturer’s guidelines. Adjust antenna alignment to achieve the maximum RSSI level reading. Configure wireless link radio according to the manufacturer’s recommendations before deploying in the field.

the Design Drawings. Install modem in accordance with the manufacturer’s recommendations. Coordinate with the Department for installation of the existing SIM card and existing cellular provider to provide service to the proposed Cellular modem. Orient antenna to achieve the best signal possible. This may req uire multiple attempts. Once connectivity has been established coordinate with the Representative, PennDOT’s Systems and Performance Unit i n the Operations and Performance Section of the Bureau of Operations, District ITS staff, and Commonwealth of Pennsylvania Office of Administration -Information Technology (OA/OIT) for the integration of the ITS Communications subsystem into the existing ATMS and test accordingly.

and slack loop according to Publication 647.

1204.4MEASUREMENT AND PAYMENT—

Measured from junction box to junction box plus the slack cable required. Includes field splices and connectors necessary for the splices made at equipment locations. Tracer wire installation is incidental to the installation of the Fiber Optic Cable .

Measured from junction box to junction box plus the slack cable required. Includes field splices and connectors necessary for the splices made at equipment locations. Tracer wire installation is incidental to the installation of the Fiber Optic Cable .

Includes all material costs, wireless line of sight costs as well as construction costs associated with the installation of a fully functional Wireless Radio site.

• 25% of payment will be made upon installation of the Radio.

• 55% of payment will be made upon integration into new or existing link.

• 20% of payment will be made upon successful System Acceptance.

Includes all material costs, cellular field study costs as well as construction costs associated with the installation of a fully functional Wireless Radio Repeater site.

• 25% of payment will be made upon installation of the Cellular Modem.

• 55% of payment will be made upon integration into new or existing network.

• 20% of payment will be made upon successful System Acceptance.

Includes all material costs for wood pole and associated guy system, messenger cable system, and fiber slack loop system. Grounding is incidental to the installation of the Aerial Fiber Optic Wood Pole.