MAY 13, 2016 ADDENDUM NO. 2 FOR TSA ADVANCED ... - Chicago · TSA ADVANCED VIDEO SURVEILLANCE PROGRAM-CCTV (H9016.14-00) SPECIFICATION NO. 130180A For which Bids were due in the office

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CITY OF CHICAGO Jamie L. Rhee DEPARTMENT OF PROCUREMENT SERVICES CHIEF PROCUREMENT OFFICER

MAY 13, 2016

ADDENDUM NO. 2

FOR

TSA ADVANCED VIDEO SURVEILLANCE PROGRAM-CCTV (H9016.14-00)

SPECIFICATION NO. 130180A

For which Bids were due in the office of the Chief Procurement Officer, Department of Procurement Services, Bid & Bond Room 103, City Hall, 121 N. LaSalle Street, Chicago, IL 60602 at 11:00 a.m., Central Time on May 17, 2016. The following additions and revisions are incorporated into the above-referenced Specification (the "Contract Documents") as noted. All other provisions and requirements as originally set forth, except as amended by previous addenda, remain in full force and are binding. Any additional work required by this Addendum shall conform to the applicable provisions of the original Contract Documents.

BIDDER MUST ACKNOWLEDGE RECEIPT OF THIS ADDENDUM IN THE SPACE PROVIDED ON THE PROPOSAL EXECUTION PAGE.

QUESTIONS, RESPONSES AND CHANGES

BID OPENING HAS BEEN POSTPONED TO MAY 26, 2016

Change 1: The Bid Opening Date has been postponed to May 26, 2016. For which Bids are due in the Department of Procurement Services, Bid & Bond Room, Room 103, City Hall, 121 N. LaSalle Street, Chicago, Illinois, 60602, at 11:00 a.m., Central Time.

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RESPONSES TO PROPOSERS QUESTIONS

Question 1:

Specification 2.1 D states “Housings and mounts shall be provided…” yet we do not know what cameras the CDA already has for this project. If this is correct then can we be provided the specific model numbers will be used? a. 2.1 CAMERAS b. D. Housings and Mounts: 1. Housings and mounts shall be provided to match requirement of site conditions and to approval of engineer. Housings and mounts shall be lightweight, tamper-resistant, aesthetically designed and meet IP42 standards. Manufacturer shall match that of cameras.

Response 1:

The CDA will purchase the cameras, but the contractor will purchase the mounts. The CDA commodities contract is not finalized, so it is impossible, at present, to determine the exact camera at this time. The City has been informed that the specifications for the mounts do not vary much between manufacturers. Any cost difference between various mounts must be included in the bid price.

Question 2: Do the VLANs need to be built? Or, are we connecting this hardware to an existing network with existing VLANs?

Response 2:

Contract Documents under note 1 on CCTV Fiber diagrams (TS1-TS5-04, T2-TS5-03, T3-TS5-04 and T5-TS5-03) indicate that contractor will provide cabling, terminations, and active network components. After the award of the Contract, the configuration shall be done by CDA after the Contractor coordinates with CDA.

Question 3: Are there existing switch configurations that our engineers can use to apply to the new network hardware? Or, will the hardware need to be configured from scratch?

Response 3: See Attachment 1, Revised Specification Part 3-Section 16823-Paragraph-1.2E.

Question 4: Are we going to leverage an existing IP Scheme for all of the new hardware? Or, will this location need a brand new IP Scheme configured?

Response 4: See Attachment 1, Revised Specification Part 3-Section 16823-Paragraph- 1.2C.

Question 5: What routing protocols need to be configured?

Response 5: See Attachment 1, Revised Specification Part 3-Section 16823-Paragraph- 1.2C.

Question 6: How many VLANs are required to be configured?

Response 6: See Attachment 1, Revised Specification Part 3-Section 16823-Paragraph- 1.2F.

Question 7: Section III 2.4 - What prepaid maintenance and support term is required (1 year, 3 year, 5 year, other) for the storage?

Response 7: 1 year after substantial completion of the project-See Attachment 1 Revised Specification Part 3- Section 16823- Paragraph 1.6.

Question 8: Section III 2.4 - What is the response and onsite SLA requirement for storage support (4 hour onsite, next business day, other)?

Response 8: See Attachment 1, Revised Specification- Part 3- Section 16823-Paragraph 1.6F.

Question 9: Section III 2.4.F – Should the 20% apply to the capacity, throughput or both?

Response 9: A minimum of 20% Spare Capacity is required for both capacity and throughput- Attachment 1 Revised Specification Section 16823- Part 3- Paragraph-2.4E.

Question 10: Section III 2.4 – When calculating ingest bandwidth requirements, should we assume ingest to be all of the camera’s specified?

Response 10: Yes- See Attachment 1 Revised Specification Part 3- Section 16823-Paragarph 2.4.

Question 11: Section III 2.4 – When calculating total bandwidth requirements, what are the playback requirements that should added to the ingest total?

Response 11: Playback requirements per the Verint System- See Attachment 1 Revised

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Specification Part 3-Section 16823 Paragraph 2.2.

Question 12: Section III 2.4 – Should the storage system be a single scalable pool preventing orphaned storage and easing management vs. multiple disparate storage systems?

Response 12: Yes. See Attachment 1 Revised Specification Part 3-Section 16823-Paragraph 2.4.

Question 13: Section III 2.4 – In addition to RAID disk protection, should the storage system continue to operate in the event of node and shelf failure?

Response 13: Yes. See Attachment 1 Revised Specification Part 3-Section 16823-Paragraph 2.4.

Question 14: “Receive CCTV Cameras furnished by owner” are the various camera mounts for both fixed and PTZ type cameras to be provided by owner as well?

Response 14: No, The camera mounts will be provided by the Contractor. The specific camera types will be given during the pre-construction meeting.

Question 15: Does the PoE Extender System need to have redundant power supplies?

Response 15: Detail 3 and 4 on sheet(s) Tx-TS3-01 indicate multiple power supply modules which also include the provisions of redundancy.

Question 16: Since there are no detailed specs on PoE components, is there a “basis of design” manufacturer for them? The drawings appear to depict Bertek Components.

Response 16:

Berk-Tek OneReach is one of the approved suppliers for the solutions but other solutions are acceptable per specification Section 16730, paragraph 2.02. Other vendors have done tests that have made similar technical solution work for about 1500 ft distances.

Question 17: Who is responsible for configuration and programing of the LAN?

Response 17: See Attachment 1, Revised Specification Part 3- Section 16823-Paragraph-1.2 F.

Question 18: Who is responsible for the configuration and programing of the VMS Verint software?

Response 18: See Attachment 1, Revised Specification Part 3-Section 16823-Paragraphs 1.2C and 1.2 D.

Question 19: Is a dedicated full time Safety Representative required for this project, or can this role be served by the site superintendent?

Response 19: The role may be served by the site superintendent. See Contract Documents- Specifications Part 1 of 3 Page S 3-2- Notes to Bidder (4).

Question 20:

Book II page 24 (2-17) Item4. a. Is it required that the contractor hire security personnel for this project? If so are we required to have a security person in each area we are working? Please explain.

Response 20: See Contract Documents, Part Two of Three, Section XV-Paragraph A.7. Contractor entry points not secured by Airport Security Police will require bonded security guards.

Question 21: Is the intent to have a dedicated 1-1/4” conduit run to each 1p/4p power Module? Can multiple power modules be fed by the same conduit in accordance with Chicago Electrical Code conduit fill?

Response 21:

Applicable note on the drawings T1-TS1-01-C thru T1-TS1-09-C, T2-TS1-10-C thru T2-TS1-15-C, T3-TS1-16-C thru T3-TS1-26-C, T5-TS1-27-C thru T5-TS1-34-C, T1-TS1-01 thru T1-TS1-09, T2-TS1-10 thru T2-TS1-15, T3-TS1-16 thru T3-TS1-26 and T5-TS1-27 thru T5-TS1-34 general note #3: "Provide hybrid fiber/power cable from the JB to the telecom room through new enclosed raceway." Also details 1 and 2 on drawing sheets Tx-TS3-02. The conduits for each power module are NOT required to be dedicated. Contractor may feed multiple JBs from the same conduit, limited by applicable maximum conduit fill

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requirements.

Question 22: Will there be a staging area available in each terminal where the work is taking place?

Response 22: See Dwg. # G-01-002 for Staging Area Location.

Question 23: Is the contractor responsible for removing the various ceiling types (Security, Egg Crate Spline, etc.) where new conduits are to be installed?

Response 23: Yes. Contract Documents, Part Three of Three Specification, Section 01732-Cutting and Patching

Question 24: Who currently maintains the existing Verint System and will we be required to use them for the Integration?

Response 24: The CDA maintains the existing Verint System and the CDA will perform the required integration.

Attachment 1 contains the revised Specifications for Part 3- Sections 16730 and 16823.

ATTACHMENT 1

REVISED SPECIFICATION

CITY OF CHICAGO DEPARTMENT OF AVIATION SUMMARY OF REVISIONS TSA ADVANCED SURVEILLANCE PROGRAM - CCTV CDA PROJECT NO. H9016.14-00

SUMMARY OF SPECIFICATION REVISIONS – 04/26/2016 Applicable to: ISSUED FOR BID, 03/29/2016 SECTION 16730 1.06.B.7 "System Commissioning and Test" Deleted SECTION 16823 1.1.D. "The Contractor shall be responsible [...]" revised to "The CDA shall be

responsible [...]" 1.1.D. "at the access control system head end [...]" revised to "at the head end

[...]" 1.2.C. "The Contractor shall include in the scope of work all necessary actions

and software licensing to complete the network configuration [...]" revised to "The CDA will be responsible for all necessary actions to complete the network configuration [...]"

1.2.D. "The Contractor shall include in the scope of work the integration [...]"

revised to "The CDA will be responsible for the integration [...]" 1.2.E Added New "The CDA will be responsible for all configuration, software,

and commissioning for the access switches, distribution switches, and core switches."

1.2.F Added New "A new LAN will be installed to support the CCTV of this

project. The CDA will be responsible for all final equipment connections, system integration, and programming."

1.3.F. Added to Existing “Record shop drawings and all record drawings are not

required to be submitted in a specific format. The A/E will be responsible for converting field mark-up drawings to the current version of MicroStation. The Record Drawings become property of the CDA.”

1.6.D. Added New “Software licenses shall be provided by the contractor and

maintained at the current version(s) throughout the contractual warranty period. The CDA will coordinate the activities of their maintenance contractor with the project construction team.”

2.4.B. “CCTV system head end shall be provided to accommodate requirements

of this project.” Deleted 2.4.G Added New “Contractor shall provide any required software licenses and

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CITY OF CHICAGO DEPARTMENT OF AVIATION SUMMARY OF REVISIONS TSA ADVANCED SURVEILLANCE PROGRAM - CCTV CDA PROJECT NO. H9016.14-00

additional hardware for the new storage. CDA will be responsible for programming and integration with the existing system.”

3.1.A. "Contractor must coordinate all work in OCC with CDA [...]" revised to

"Contractor must coordinate all work in OCC and all telecom rooms and DNCs with CDA [...]"

Summary Ends

CITY OF CHICAGO DEPARTMENT OF AVIATION 16730-1 COMMUNICATION CABLING TSA ADVANCED SURVEILLANCE PROGRAM - CCTV CDA PROJECT NO. H9016.14-00 ISSUED FOR BID, 03/29/2016, REVISED

COMMUNICATION CABLING SECTION 16730 PART 1 GENERAL 1.01 SECTION INCLUDES:

Furnish, install, test, and place in satisfactory operating condition, A.communication cabling as shown on the Drawings and as specified herein.

Communication cabling must be provided for use with the following B.

system:

1. IP Video Surveillance System (IPVSS) Communication cabling and components include racks, fiber shelves, C.

patch panels, splice closures, remote power injectors, power injector chassis, hybrid cables, adapters, terminal connectors, data and voice outlets, jacks, testing, and all other related equipment and services needed for a complete communication installation.

1.02 RELATED WORK As specified in other Sections A.

1.03 REFERENCES

A. See Specification Section 16010 1.03. B. Underwriters Laboratories, Inc. (UL):

1. U. L. 910: Plenum Cable 2. U. L. 1666: Riser Cable

C. Institute of Electrical and Electronics Engineers (IEEE): 1. IEEE Standard 383: Flame Retardancy.

D. American National Standards Institute (ANSI) 1. ANSI/TIA-568-C.0 - Generic Telecommunications Cabling for

Customer Premises. 2. ANSI/TIA-568-C.1 - Commercial Building Telecommunications

Cabling Standard. 3. ANSI/TIA-568-C.2 - Balanced Twisted-Pair Telecommunications

Cabling and Components Standards. 4. ANSI/TIA-568-C.3–2009+A1:2011, Optical Fiber Cabling


Components Standard. 5. ANSI/TIA-569-C - Telecommunications Pathways and Spaces. 6. ANSI/TIA-606-B - Administration Standard for

Telecommunications Infrastructure. 7. ANSI/TIA-607-B - Generic Telecommunications Bonding and

Grounding (Earthing) for Customer Premises. 8. ANSI/TIA/EIA-598-C–2005, Optical Fiber Cable Color Coding. 9. ANSI/TIA-758-B - Customer-Owned Outside Plant

Telecommunications Infrastructure Standard. 10. ANSI/EIA 310-D Dimensions

FAA Specification FAA-E-2761c, November 19, 1998, Cable, Fiber E.Optic, Multi-mode and Single-mode, Multi-fiber, with exceptions documented in this specification.

FAA Order 1830.7, Fiber Optic Transmission Systems and Equipment F.Policy.

FAA-STD-061, 10/15/2003. Fiber Optics Standard for G.Telecommunications Systems and Equipment, with exceptions documented in this specification.

ANSI/ICEA S-83-596-2011, Indoor Optical Fiber Cables. H. ICEA S-104-696-2001, Indoor-Outdoor Optical Fiber Cable. I. TIA-526 SERIES Standard Test Procedures for Fiber Optic Systems. J. TIA-455 SERIES General Requirements for Standard Test Procedures K.

for Optical Fibers, Cables, Transducers, Sensors, Connecting and Terminating Devices, and Other Fiber Optic Components.

IEC 60297-3-100 Mechanical Design of Cabinets L. EN 6000068-2-6 Vibration Test M. DIN IEC 61587-1 Vibration and shock Test, load carrying capacity N. DIN IEC 61587-2 Seismic test for earthquake resistance O. TIA TSB 140 Additional Guidelines for Field Testing Length, Loss, P.

Polarity of Optical Fiber. ANSI Cabinet Hardware standards. Cabinets shall also comply with Q.

the following safety standards: Quality -Environment-Safety -ISO 9001/2000 - ISO14001-OSHA -18001 R. MIL-STD-202, Test Methods for Electronic and Electrical Component S.

Parts. MIL-HDBK-454, Standard General Requirements for Electronic T.


Equipment. MIL-STD-810, Environmental Test Methods and Engineering U.

Guidelines. NFPA 262, Test for Flame-travel and Smoke of Wire and Cables Used V.

in Air-handling Spaces. NESC: National Electric Safety Code W.

NFPA: National Fire Protection Agency X. NETA: The International Testing Association Acceptance Testing Y.

Specification CEC: Chicago Electrical Code Z.

BICSI - Telecommunications Distribution Methods Manual. AA. BICSI - Information Transport Systems Installation Manual. BB. BICSI - Network Design Reference Manual. CC.

1.04 SUBMITTALS Submit the following in accordance with Section XI of Part 2 – General A.

Conditions and Specification Section 16010 1.04.B. 1. Installer Qualifications – Include resumes of staff and previous

project experienced with references. Proposed Products List. 2. Qualification data for firms and individuals specified in the

Quality Assurance section of this Specification to demonstrate their capabilities and experience. Provide copy of the RCDD certifications and manufacturer’s certifications. Certifications must be current. Manufacturer’s certification must/match be consistent with the products being installed.

3. Outline drawings of termination cabinets showing dimensions, cables, jumpers, and associated hardware for termination.

4. Provide written confirmation that products being submitted are acceptable to control systems supplier.

5. For each component and material submit shop drawing which must include: a. Manufacturer b. Model number c. General data and description d. Engineering specifications and data sheets e. Catalog cuts f. Submit manufacturer’s printed installation instructions

Submit a drawing showing the routing for the communication cabling B.


network. Include the following information: 1. Routing, length, and attenuation based on TIA-568-B. 2. Cable and conduit identification. 3. Locations of all handholes, manholes, pull boxes, and patch

panels. 4. Proposed fiber splice locations. Unless approved by the

Director prior to installation, splicing of fiber cables will not be allowed except where factory terminated pigtails are used for fiber terminations.

Test Documentation: C.1. General

a. All cabling must be tested prior to cabling in accordance with the definitions and procedures specified in the EIA/TIA testing standards to determine if the cable complies with the requirements called for in this Specification. For each type of cable supplied, provide a certificate of compliance stating that the finished cable meets the requirements of this Specification.

2. Fiber Cable Testing

a. All fibers in the finished fiber optic cable must be tested prior to cabling in accordance with the definitions and procedures specified in the EIA/TIA-455 Fiber Optic Test Procedures (FOTP’s) to determine if the fiber complies with Section 2.01 of this Specification. The fiber manufacturer must provide a certificate of compliance for the following properties where indicated by a “Yes”.

Table – Properties for Certification Single-mode Core Diameter Cladding Diameter Yes Protective Coating Diameter Yes Core-Cladding Concentricity Yes Core Non-Circularity Cladding Non-Circularity Yes Tensile Strength Yes Numerical Aperture Zero-Dispersion Wavelength Yes Zero-Dispersion Slope Yes Bandwidth Mode-Field Diameter Yes Cut-Off Wavelength Yes


b. Cable Assembly Tests

(1) The tests described in Sections 1.04.C.2.c and 1.04.C.2.d of this Specification must be performed on all fiber reels.

(2) The tests described in Sections 1.04.C.2.e and 1.04.C.2.l of this Specification must be performed on the basis of sampling. One 25-meter length of cable must be cut from the end of reels to be selected randomly, with a maximum sampling of one sample per each 15 km. A minimum sample for orders less than 15 km is one sample. Each sample will be identified by reel number, contract/order number, and specification number. The reels must be numbered sequentially for this purpose in the order of manufacture. The Commissioner must be notified in the event of failure to pass any test.

c. Optical attenuation – The optical attenuation of the cable

must be validated in accordance with the requirements of this Specification on all fibers of every reel of finished cable. The test results for each reel must be provided upon delivery in a sealed waterproofed envelope.

d. Optical bandwidth – The -3dB end-to-end optical

bandwidth of all fibers in all multimode cables must be determined by FOTP 30B. For lengths greater than 1 km, the required -3dB end-to-end bandwidth must be calculated from:

(1) BW-3dB ≥ 1,000 Mhz/(length in kilometers).85,

(50/125um) (2) BW-3dB ≥ 500 Mhz/(length in kilometers).85,

(62.5/125um)

e. Temperature dependence of attenuation – The temperature dependence of attenuation must be determined by FOTP 3 (for 48 hours or when it is ensured that the cable has uniformly reached the test temperature) on all fibers of one reel of cable selected at random. Measurements must be made at -40° C and +60° C, ±2° C.


f. Cable flexing – The specimen(s) selected from the sample must be prepared in accordance with FOTP 37A, except that a mandrel having a diameter up to 20 times the cable diameter shall be permitted. Test condition D (0° C and 40° C) of Table I of FOTP 37A shall suffice, as shall Test Level 2 (10 mandrel turns) of Table III. The test mass must be in accordance with Table II.

g. Compound flow test – Test specimens selected randomly

from the samples must be subjected to a compound flow test in accordance with FOTP 81A, Method B at a temperature of 60° C ±2° C (140°F ±3.5° F). There must be no evidence of compound flowing or dripping from any buffer tube or other cable component.

h. Water intercept tests – Test specimens selected

randomly from the sample must be tested per FOTP 82B. There must be no evidence of water leakage.

i. Cable pulling capacity test – This test must be performed

in accordance with FOTP 33A. This test must be a type acceptance test on a production run basis.

j. Sheath material properties certification – The

manufacturer must certify that the extrusion process used for application of the sheathing compound complies with the recommendations of the compound supplier.

k. Crush resistance test – Test specimens taken at random

from the samples must be subjected to the crush force as specified. The optical attenuation must not change from before the test to after the test in the tested sample.

l. Impact resistance test – test specimens taken at random

from the samples must be subjected to the impact force as specified. The optical attenuation must not change from before the test to after the test in the tested sample.

3. Provide factory certified test report verifying that all outdoor and

indoor-outdoor rated fiber optic cable is not susceptible to damage due to submersion with jet fuel and potassium acetate solution.

4. Document results of tests (shop test, field test, acceptance test) and submit copies of documents to the Commissioner/CM as tests are completed.


1.05 QUALITY ASSURANCE Provide in accordance with Section VI of Part 2 – General Conditions A.

and as specified herein. Communication cables and related equipment must be the products of B.

approved manufacturers. Fabrication of the cables and related equipment must utilize the most advanced commercial materials and manufacturing processes. Manufacturer must be ISO 9001 and TL-9000 certified.

The communication cabling installer must be qualified in the installation C.of structured cabling systems. The term qualified means experienced in performing the Work required by this section on projects of comparable scope, size, and complexity. The Contractor must be able to demonstrate to the satisfaction of the Commissioner and Chief Procurement Officer that it and/or any subcontractors performing such Work have the qualifications, experience, and, if applicable, licenses and permits to perform Work in accordance with the terms ad conditions of this Contract. The Contractor must submit evidence of such qualifications, licenses, and permits upon request by the Commissioner.

Experienced cable installers who are regularly engaged in the D.installation of communication cables must perform cable installation.

Experience professionals who are regularly engaged in splicing and E.termination of communication cables must perform cable splicing and terminations.

Installer must have on staff a Registered Communications Distribution F.Designer (RCDD), certified by the Building Industry Consulting Service International (BICSI) and by the manufacturer that will provide the system warranty.

The Contractor must retain the services of the cable manufacturer’s G.technical representative to certify that the cable installation is in accordance with the manufacturer’s installation requirements.

The Contractor must retain the services of an independent testing firm H.who must perform acceptance testing of the communication cable installation. The testing firm must have experience in the inspection and testing of cables of the specified type and must be a member company of NETA.

1.06 SCOPE OF WORK This specification describes the installation of the IP Video Surveillance A.

System (IPVSS). Contractor's work includes the construction and installation of the IPVSS infrastructure. IPVSS includes all the low-voltage wire and cable, connecting hardware, pathway, and


telecommunications infrastructure to support the following application: 1. CCTV (Video Surveillance over IP)

Contractor shall provide, based on these specifications, all equipment, B.material, labor and services required to construct and install the IPVSS including, but not limited to: 1. Wire and Cable infrastructure. 2. Raceway and boxes and wire management systems within

communications rooms. 3. Horizontal cabling and terminations. 4. Information media outlets. 5. Equipment cabinets and racks. 6. Telecommunications grounding in communications rooms and

bonding and grounding of IPVSS systems. 7. System documentation.

Scope and work requirements are also specified in the IPVSS C.drawings as part of the IT and Telecommunications drawing set. The IPVSS drawings are part of this specification. In addition to what is specified herein, the Contractor shall provide all equipment, materials, labor and service required to provide and install the IPVSS as indicated in the drawings.

Contractor shall provide all equipment, materials, labor and services, D.not specifically mentioned or shown, which may be necessary to complete or perfect all parts of the installation. Contractor shall ensure that they are in compliance with requirements stated or reasonably inferred by the preliminary design documents.

Contractor shall be certified to install IPVSS cable and components by E.the manufacturer and warrantor of the system.

All cameras for this project shall be furnished by the owner. F.1.07 WORK REASONABLY INFERRED

Execute the Work in accordance with the intent and meaning of the A.Drawings and Specifications. Provide all accessories and other items essential for the proper performance and completion of the Work. Execute all Work, including the provision of necessary materials, which can be reasonably inferred, whether or not specifically shown or described in the Drawings and Specifications.

1.08 DELIVERY, STORAGE, AND HANDLING Provide in accordance with Section 16010 1.06. A.

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The completed cable must be packaged for shipment on non-B.returnable wooden reels. Required cable lengths must be stated in the purchase order.

Top and bottom ends of the cable must be available for testing. C. Both ends of the cable must be sealed to prevent the ingress of D.

moisture. Each reel must have a weather resistant reel tag attached identifying E.

the reel and cable. A cable data sheet must accompany each cable. F.

1.09 WARRANTIES AND GUARANTEES See Specification Section 16010 1.07. A.

1.10 EXTRA MATERIALS AND SPARE PARTS Furnish two (2) spare connectors for each type used. The connectors A.

must be of a type and manufacturer that are generally available. Furnish two (2) spare patch cords for each type used. B.

1.11 ENVIRONMENTAL REQUIREMENTS See Specification Section 16010 1.09. A.

1.12 SPECIAL REQUIREMENTS See Specification Section 16010 1.10. A.

1.13 SHOP TESTS Communication cables must be shop tested at the manufacturer’s A.

plant in accordance with the manufacturer’s standard testing procedures.

All optical fibers in cables must be 100 percent attenuation tested. The B.attenuation must be measured at 1310 nm and 1550 nm for single-mode fibers. The manufacturer must store these values for a minimum of five years. These values must be available upon request. Shop tests must be performed prior to shipment of the fiber optic cables.

The Contractor must submit manufacturer’s shop test reports. C.PART 2 PRODUCTS 2.01 COPPER CABLE

Manufacturers A.1. Products of one of the following Manufacturers will be

acceptable: a. Systimax


b. CommScope

c. Belden

d. Berk-Tek

e. Siemon

f. Mohawk

g. Panduit

h. Or Engineer approved equal

B. Horizontal cabling is the cabling from the remote power injector to the Work Area (WA) and includes the horizontal cable, Information Media Outlet (IMO), and patch cords. 1. Recognized media types for horizontal cabling are:

a. Category 6, 23 AWG solid conductors 2. Maximum horizontal cable length for four-pair Cat 6, copper

cable from the remote power injector to the IMO is 295 feet. 3. Only one transition point is allowed in horizontal cable. 4. Maximum equipment cable length from the IMO to the device

should be limited to 10 ft. Maximum cable length for jumpers and patch cords in the Enclosure should be limited to 17 feet.

5. Cables shall not be split behind the face-plate. 6. Horizontal cables routed in outdoor environments (e.g. exposed

to weather) shall be rated "outdoor" cable. C. COMMUNICATIONS CONNECTING CORDS, DEVICES, ADAPTERS

1. Structured Cabling Network (IPVSS) Work Area infrastructure and devices include the IMO and the patch cords used to connect end-point devices. a. Patch cords shall be factory terminated and tested.

Contractor shall not use patch cords produced in the field.

b. All CAT 6 cables, 4-pair horizontal cable shall be terminated using the T568 B pinout.

c. Cords used to connect work area equipment at the IMO or active equipment in MCR/SCR shall be factory manufactured, terminated and tested for both copper and fiber.

d. Patch cords shall be RJ-45 to RJ-45 (copper) and LC to LC (fiber optic).


D. POWER INJECTOR DEVICES 1. Camera infrastructure devices include remote power injectors

mounted inside junction boxes near clusters of no more than three cameras per junction box. Contractor shall install junction boxes to be concealed but accessible.

2. Devices also include rack mount chassis-mounted power injector cards and power supplies at closet end.

E. CABLE MANAGEMENT SYSTEM 1. All cables and end outlets shall be labeled using a labeling

system following ANSI/TIA-606-B. 2.02 HYBRID FIBER OPTIC / POWER CABLE

A. Manufacturers 1. Products of one of the following Manufacturers will be acceptable:

a. Berk-Tek b. Omnitron Systems c. Interlogix d. Belden e. Or Engineer approved equal

B. General

1. Provide hybrid cable compatible with power injector devices for connection from telecom cabinet power injector chassis to remote power injector.

2. Hybrid cable shall transmit camera information over fiber and camera power over copper utilizing a power injector system.

3. Maximum horizontal cable length for hybrid cable is 960 feet. 2.03 FIBER OPTIC CABLE


acceptable: a. Corning Cable Systems

b. Systimax

c. Berk-Tek

d. ADC/Krone

e. Belden


f. Or Engineer approved equal

General B.1. Provide fiber cables of loose-tube or tight-buffered construction,

comprised of singlemode fibers as called for in this Specification or on the Drawings.

2. 8.3/125μm singlemode fiber optic cables must be used for the IPVSS. Refer to the Drawings for the fiber optic strand count and additional cable requirements.

3. Outdoor and indoor/outdoor rated cables for all system applications must include an outer jacket to provide protection from hydrocarbon fuels.

4. Potassium acetate is used as a de-icing agent. Outdoor and indoor/outdoor rated cables for all system applications must have outer jacket that provides proper protection from this agent.

Guaranteed Channel Performance C.1. The 8.3/125μm Singlemode Guaranteed Channel Performance

a. The 8.3/125μm Singlemode fiber optic channel must support the following applications: 10BASE-FL, 100BASE-FL, 100VG-AnyLAN Demand Priority Access Method, 1000 BASE-ZX (1,550 nm wave), 1000BASE-SX, 1000BASE-LX, 52/155/622 Mb/s ATM, 1000 Mb/s Cell-Based ATM, FDDI, 133/266/531/1062 Mb/s Fiber Channel, EIA-423.A, Digital Signal Level (DSL), Token Ring LAN, Vendor-Independent Active Token Ring, 100Mb/s Token Ring, Composite Analog Baseband Video, Broadband Video, Voice and BAS.

Fiber Optic Cable Optical Specifications D.1. The Singlemode Fiber Optic cable must have the following

optical specifications:

Table – Single-mode Optical Specification Mode Field Diameter 9.2 +/-0.3μm @ 1310 nm,

10.4 (nominal) @ 1550 nm Group Index of Refraction 1.478

Operating Wavelength 1310 nm/1550 nm

Maximum Attenuation 0.7 dB/km at 1310 nm, 0.7 dB/km at 1550 nm

Point Discontinuities @ 1310 nm or 1550 nm <= 0.15 dB


Gigabit Ethernet Distance 16,400 feet

Proof Test <= 100 kpsi

Cable Cutoff Wavelength < 1260 nm

Riser Rated Fiber Optic Building Cable E.

1. For application requiring 6 or fewer fibers, the cable must consist of dielectric strength members, individual sub-cables and a ripcord covered by an outer jacket. Each sub-cable must consist of the main fiber strand with a 250 μm fiber coating and a 900μm tight buffer.

2. For applications requiring more than 6 fibers (6-24 count), the fiber cable must be organized in subgroups with each subgroup containing no more than (6) individual fiber subcables. The cable must consist of dialectic strength member, subgroup cables and a ripcord covered by an outer jacket. Each subgroup cable must consist of no more than 6 individual sub-cables with dielectric strength members, a ripcord, and a color coated subgroupcable jacket. Each sub-cable must consist of the main fiber strand with a 250μm fiber coating and a color coated 900μm tight buffer. For fiber cables with fiber strand counts greater than 24 (24-144 count), subgroup cables with no more than 12 subcables are acceptable, up to a maximum bundle of 144 strands.

3. The cable must be reinforced with Aramid yarn for superior strength.

4. The cable must not contain metallic elements or central strength members.

5. Individual fiber strands and or groupings must be color coded per ANSI/FIA/EIA guidelines.

6. The cable must meet the following Physical Specifications:

Table - Physical Specification Fiber Type Single-mode

Core Diameter 8.3 μm

Core Non-Circularity Error < 5.0%

Cladding Diameter 125 +/- 1.0 μm

Core/Clad Concentricity Error <= 3 μm

Clad Non-Circularity Error <= 2.0%


Coating Diameter 250 μm

Buffer Diameter 900 μm

Storage Temperature -40 to 70°C

Operating Temperature -20 to 70° C

Cable or Subunit Min Bend Radius During Installation 15 times cable/subunit diameter

Cable or Subunit Min Bend Radius After Installation 10 times cable/subunit diameter

Crush Resistance Per Telcordia Standards

Impact Resistance Per Telcordia Standards

Flex Resistance Per Telcordia Standards

Approval Listings NEC OFNR, CSA FT-4

Flame Resistance UL-1666 (For riser and general building applications)

Fiber Type Single-mode

Single-mode Outer Jacket Color Yellow

Plenum Rated Fiber Optic Building Cable F.1. For application requiring 6 or fewer fibers, the cable must

consist of dielectric strength members, individual sub-cables, and a ripcord covered by an outer jacket. Each sub-cable must consist of the main fiber strand with a 250μm fiber coating and a 900μm tight buffer.

2. For applications requiring more than 6 fibers (6-24 count), the fiber cable must be organized in subgroups with each subgroup containing no more than 6 individual fiber subcables. The cable must consist of dialectic strength member, subgroup cables, and a ripcord covered by an outer jacket. Each subgroup cable must consist of no more than 6 individual sub-cables with dielectric strength members, a ripcord, and a color coated subgroup cable jacket. Each sub-cable must consist of the main fiber strand with a 250μm fiber coating and a color coated 900μm tight buffer. For fiber cables with fiber strand counts greater than 24 (24-144 count), subgroup cables with no more than 12 subcables are acceptable, up to a maximum bundle of 144 strands.

3. The cable must be reinforced with Aramid yarn for superior strength.

4. The cable must not contain metallic elements or central strength members.

5. Individual fiber strands and or groupings must be color coded per ANSI/TIA/EIA guidelines.

6. The cable must meet the following Physical Specifications:


Table - Physical Specification Fiber Type Single-mode







Buffer Diameter 900 μm








Approval Listings NEC OFNR, CSA FT-6

Flame Resistance UL-910 (For plenum, riser and general building applications)

Single-mode Outer Jacket Color Yellow

Indoor-Outdoor Riser Related Cable Loose Tube Fiber Optic Cable G.

1. For application requiring 6 or fewer fibers, the cable must consist of dielectric strength member, individual sub-cables in a filled buffer tube and a ripcord covered by an outer jacket. Each sub-cable must consist of the main fiber strand with a 250μm fiber coating. The cable must have a gel or dry water blocking system to fill all voids and indices to prevent the intrusion of moisture.

2. For applications requiring more than 6 (6-24 count), the fiber cable must be organized in subgroups with each subgroup containing no more than 6 individual fiber subcables. The cable must consist of dielectric strength member, subgroup cables, additional dielectric strength members, and a ripcord covered by an outer jacket. Each subgroup cable must consist of no more than 6 individual sub-cables with a filled color-coded buffer tube. Each sub-cable must consist of the main fiber strand with a 250μm fiber coating. The cable must have a gel or dry water blocking system to fill all voids and indices to prevent the


intrusion of moisture. For fiber cables with fiber strand counts greater than 24 (24-144 count), subgroup cables with no more than 12 subcables are acceptable, up to a maximum bundle of 144 strands.

3. The fiber must use a carefully controlled refractive index profile to achieve low attenuation and high bandwidth at both operating wavelengths, the fiber bandwidth must meet the standards for FDDI and support Ethernet, Fast Ethernet, Gigabit Ethernet, Token Ring, ATM, and FDDI applications.

4. The buffer tubes must be compatible with standard hardware, cable routing, and fan-out kits.

5. The cable must be designed for point-to-point applications as well as midspan access, provide a high-level of protection for fiber installed in the outside plant environment.

6. This cable is designed to connect equipment or facilities that are separated by an outdoor type environment.

7. It must be suitable for indoor/outdoor conduit or tray installations.

8. Individual fiber strands and or groupings must be color coded per ANSI/TIA/EIA guidelines.

9. The cable must meet the following Specifications:

Table - Physical Specification Fiber Type Singlemode








Installation Temperature -30 to 70° C


Maximum Tensile Load 2670 N Short Term 810 N Long Term







Water Penetration Meet 1 Meter Test Per TIA/EIA 455-81 Standard

Compound Flow Meets TIA/EIA 455-81 Standard

Approval & Listings NEC OFN, CSA FT-4

Outer Jacket Color Black

Indoor-Outdoor Plenum Rated Loose Tube Fiber Optic Cable H.

1. For application requiring 6 or fewer fibers, the cable must consist of dielectric strength member, individual sub-cables in a filled buffer tube, and a ripcord covered by an outer jacket. Each sub-cable must consist of the main fiber strand with a 250μm fiber coating. The cable must have a gel or dry water blocking system to fill all voids and indices to prevent the intrusion of moisture.

2. For applications requiring more than 6 fibers (6-24 count), the fiber cable must be organized in subgroups with each subgroup containing no more than 6 individual fiber subcables. The cable must consist of dielectric strength member, subgroup cables, additional dielectric strength members, and a ripcord covered by an outer jacket. Each subgroup cable must consist of no more than 6 individual subcables with a filled color-coded buffer tube. Each subcable must consist of the main fiber strand with a 250μm fiber coating. The cable must have a gel or dry water blocking system to fill all voids and indices to prevent the intrusion of moisture. For fiber cables with fiber strand counts greater than 24 (24-144 count), subgroup cables with no more than 12 subcables are acceptable, up to a maximum bundle of 144 strands.

3. The fiber must use a carefully controlled refractive index profile to achieve low attenuation and high bandwidth at both operating wavelengths, the fiber bandwidth must meet the standards for FDDI and support Ethernet, Fast Ethernet, Gigabit Ethernet, Token Ring, ATM, and FDDI applications.

4. The buffer tubes must be compatible with standard hardware, cable routing, and fan-out kits.

5. The cable must be designed for point-to-point applications as well as midspan access, provide a high-level of protection for fiber installed in the outside plant environment.

6. This cable is designed to connect equipment or facilities that are


separated by an outdoor type environment. 7. It must be suitable for indoor/outdoor conduit or tray

installations. 8. Individual fiber strands and or groupings must be color coded

per ANSI/TIA/EAI guidelines. 9. The cable must meet the following Specifications:

Table - Physical Specification Fiber Type Singlemode








Installation Temperature -30 to 70° C


Maximum Tensile Load 2670 N Short Term 810 N Long Term

Cable or Subunit Min Bend Radius During Installation 15 times cable/submit diameter





Water Penetration Meet 1 Meter Test Per TIA/EIA 455-82 Standard

Compound Flow Meets TIA/EIA 455-81 Standard

Approval & Listings NEC OFN, CSA FT-6

Flame Resistance UL-910 (For plenum, riser, and general building applications)

Outer Jacket Color Black

2.04 FIBER TERMINATION HARDWARE


acceptable: a. Corning Cable Systems


b. Systimax c. ADC d. 3M Telecom Systems

Rack Mountable Combination Fiber Optic Shelves with Integral Splice B.Tray 1. Low Profile Combination Modular Shelf

a. The fiber-optic shelf must be used for a combination of splicing and termination of fiber-optic building cable or outside plant (OSP) cables.

b. The shelf must be used for a combination of splices and

terminations with a minimum capacity of 24 fibers strands using LC connections.

c. The shelf must be either 19-inch or 23-inch rack

mountable as indicated on Drawings.

d. The modular shelf must be a 3U or 2U-height fully enclosed shelf, with integrated front cable management trough included.

e. The shelf must have slide-out tray for easy access.

f. The modular shelf system must have interchangeable

adapters, available in LC for 50, 62.5, and 8.3 solutions. The adapter must be offered with or without pre-assembled and factory-terminated pigtails and couplers.

g. A modular shelf must provide easy access and

administration of a minimum of (2) individual removable splice trays.

h. Provide factory-terminated pigtails for connection to fiber

shelves. Pigtails must be fusion spliced.

i. Each modular shelf must be equipped with the following:

(1) Hinged front doors for easy access (2) Front cable management trough (3) Top cover panel (4) Blank labels for identifying fiber splices and

terminations


j. Provide splice trays, as required. k. Provide dust caps for all terminated, spare fiber strands.

l. Provide blank modules, as applicable.

2. 4U Combination Modular Shelf

a. The fiber-optic shelf must be used for a combination of splicing and termination of fiber-optic building cable or outside plant (OSP) cables.

b. The shelf must be used for combined termination and

splicing for up to 72 fibers strands with LC connections.

c. The shelf must be either 19-inch or 23-inch rack mountable as indicated on Drawings.

d. The modular shelf must be a 4U-height fully enclosed

shelf, with integrated front cable management trough included.

e. It must be designed to combine both splicing and

termination in a sliding format, which in turn provides both rear and full front access.

f. A single shelf must be provided for splicing, termination,

and fiber management.

g. The modular shelf system must have interchangeable adapters, available in LC for 50, 62.5, and 8.3 solutions. The adapter must be offered with or without pre-assembled and factory-terminated pigtails and couplers.

h. The modular shelf must provide easy access and

administration of (6) individual slide out splice trays.

i. Provide factory-terminated pigtails for connection to fiber shelves. Pigtails must be fusion spliced.

j. The shelf must include the following:

(1) Hinged front and rear doors constructed of black

polycarbonate and equipped (rear door) with knockouts for optional lock mechanism


(2) The adapter panels must mount on a hinged

panel, allowing full access to the rear of the adapters and splice trays

(3) Cable entry protectors for incoming building fibers

(4) Fiber jumper bend limiters

(5) Top cover panel

(6) Blank labels for identifying fiber splices and

terminations

k. Provide splice trays, as required. l. Provide dust caps for all terminated, spare fiber strands.

m. Provide blank modules, as applicable.

Fiber Optic Connectors C.1. General

a. The connector must be generally available for singlemode and multi-mode fiber optic cables.

b. Unless otherwise noted on the Drawings, LC connectors

must be used for the specified system.

2. LC Fiber Optic Connectors a. Provide factory-terminated connectors with pigtails. b. The connector must be available for singlemode fiber

optic cables.

c. The connector must utilize a zirconia ferrule for fiber alignment.

d. The connector must have push-pull hardware for easier

connections, as well as high optical stability.

e. The connectors must have an average loss of less than or equal to 0.3 dB.

Fiber Patch Cords and Pigtails D.


1. Provide factory terminated fiber patch cords and pigtails consisting of buffered, graded index fiber with 125 micron cladding. Core size to match application requirements. The 900 micron fiber coating must be covered by Aramid yarn and a jacket of flame retardant PVC. Provide factory-terminated connectors with ceramic ferrules. Provide the connector type as called for in this specification or on the Drawings.

2. Provide two-strand riser rated zipcord style cords for all duplex patch through and equipment connections. Provide single strand cords for single equipment connections.

3. Provide the quantities and length of patch cords required to make orderly, manageable connections between all patch panels and equipment being cross connected. Provide LC to ST patch cords if required to make connections to equipment.

4. Mated Connector Loss: 0.2 dB typical, guaranteed maximum of 0.5 dB, 500 insertions.

5. Operating Temperature: -40 Degree C to +70 Degree C.<0.3 dB change.

6. Cable Retention: 11.2 lb. minimum, <0.2 db change.

2.05 FIBER CABLE SPLICING General A.

1. Fiber optic splices are not allowed except where factory terminated pigtails are used for fiber terminations in fiber shelves, unless depicted on contract drawings to meet maximum cable length requirements. If field conditions warrant additional splices, submit a written request to the Commissioner and obtain approval prior to splicing cables.

2. Fiber optic splices must be fusion splices performed in the field by a qualified splicer. Mechanical splices are not allowed.

3. Splicing equipment must provide 3-axis alignment for fiber coatings of 250 to 900 micrometers and a splice loss of less than 0.05 dB.

4. Provide heat shrink splice protection for all fiber optic splices. 5. For splicing performed in fiber shelves or housings, provide

adequate number of splice trays to fully transition all installed fibers to factory-terminated pigtails.

6. Provide fiber optic splice closures with fiber trays for all fiber splicing required in manholes, handholes, and outdoor locations


unless indicated otherwise on Drawings. Rack Mountable Fiber Optic Splice Housing B.

1. 4U Fiber Optic Splice Housing a. The housing must be a 4U-height fully enclosed shelf,

with integrated front cable management trough included. 3U-height fully enclosed shelves are also acceptable.

b. The housing must be used for splicing of fiber-optic

building cable or outside plant (OSP) cables.

c. The housing must be either 19-inch or 23-inch rack mountable as indicated on Drawings.

d. The housing must be used when the application prohibits

the use of the 4U Combination Modular Shelf, termination of fiber optic cables are not required at the location, or as indicated on Drawings.

e. The housing must be used for splicing for up to 144 fiber

strands.

f. A housing must provide easy access and administration of (6) individual slide out splice trays.

g. The housing must include the following:

(1) Hinged front and rear doors constructed of black

polycarbonate (2) Cable entry protectors for incoming building fibers

(3) Fiber bend limiters

(4) Top cover panel

(5) Blank labels for identifying fiber splices

h. Provide splice trays, as required. Fiber Optic Splice Closures C.

1. Manufacturers: a. Products of one of the following Manufacturers will be

acceptable:


(1) Corning Cable Systems (2) Commscope

(3) ADC

(4) 3M Telecom Systems

2. Fiber optic splices are not allowed except where factory

terminated pigtails are used for fiber terminations in fiber shelves, unless depicted on contract drawings to meet maximum cable length requirements. If field conditions warrant additional splices, submit a written request to the Commissioner and obtain approval prior to splicing cables. Splice closures of appropriate type (indoor/outdoor) must be provided for all splices other than those cables spliced in fiber shelves or housings.

3. When approved, provide splice closures constructed of thermoplastic, suitable for “butt” or “through” cable entry, moisture tight sealing arrangement, removable splice tray organizer, splice trays for mechanical splices, grounding lugs or equivalent for grounding cable armor. a. The optical fiber splice closure must meet all

requirements stated in this Specification. b. The splice closure must be resistant to solvents, stress

cracking, and creep. The housing materials must also be compatible with chemicals and other materials to which they might be exposed in normal applications. For splice closures installed in manholes/handholes the housing material must be compatible with hydrocarbon fuels and potassium acetate.

c. The optical fiber closure must be capable of accepting

any optical fiber cable used in interoffice, outside plant, and building entrance facilities.

d. The optical fiber closure must be available in distinct

sizes to accommodate a variety of cable entries as specified in the table below:

Table - Cable Capacity Canister (Butt) Configuration Branch (In-Line) Configuration


e. As an option, the ability to double the cable capacity of an installed canister splice closure by use of a kit must be available. Such a conversion must not disturb existing cables or splices.

f. Encapsulation must not be required to resist water

penetration.

g. The splice closure must be re-enterable. The closure end cap must be capable of accepting additional cables without removal of the sheath retention or strength member clamping hardware on previously installed cables or disturbing existing splices. The optical fiber splice closure must provide a clamping mechanism to prevent positioning of the central member or strength members and to prevent cable sheath slip or pullout.

h. The splice closure must have appropriate hardware and

installation procedures to facilitate the bonding and grounding of metal components in the closure and the armored cable sheath. The cable bonding hardware must be able to accommodate a copper conductor equal to or larger than a #6 AWG.

i. Aerial splice closures must have available the necessary

hardware to attach and secure the closure to an aerial strand.

j. The closure must accommodate splice trays suitable for

single fiber, single fiber heat shrink, mechanical, or ribbon heat shrink splices.

k. Spliced fibers must not be subjected to a bend radius

smaller than 30 mm (1.2 inches). Buffer tubes must not be subjected to a bend radius smaller than 38 mm (1.5

Express Entries/ Max. Cable

Diameter (mm)

Drop Port Entries/Max. Cable

Diameter (mm)

Express Entries/ Max. Cable

Diameter (mm)

Drop Port Entries/Max. Cable

Diameter (mm) 2/32 6/25 4/32 12/25 2/25 4/18 4/25 8/18 2/20 3/15 4/20 6/15


inches).

l. The installation for the splice closure must not require specialized tools or equipment, other than those normally carried by installation crews.

m. Provide splice trays, as required.

2.06 INNERDUCT

A. Materials for innerducts for airfield communication cables will be subject to acceptance through manufacturer’s certification of compliance with applicable Specifications. 1. All innerduct must be provided with a pull rope. 2. Footage label must be sequentially marked on the innerduct.

B. Indoor Installations 1. Innerduct that is installed indoors, as indicated in the Contract

Drawings, must meet the following requirements. a. The plenum rated innerduct must be recognized per CEC

Articles for Plenum, Riser and General Purpose Raceway for optical fiber and telecommunications cables.

b. The riser rated innerduct must be recognized per CEC Articles for Riser and General Purpose Raceway for optical fiber and telecommunications cables.

c. The innerduct must conform to UL 2024. d. As indicated on the Contract Drawings, provide 1.00-inch

plenum or riser rated innerduct for FAA indoor applications. The innerduct for indoor applications must meet the following Specifications. (1) Type Corrugated (2) Material PVC (Riser Rated)

PVDF Resin (Plenum Rated) (3) Inner Diameter 1.05 inches (+0.010 inch,

-0.020 inch) (4) Outside Diameter 1.31 inches (+0.010 inch,

-0.020 inch e. As indicated on the Contract Drawings, provide 1.25-inch

plenum or riser rated innerduct for CDA indoor applications. The innerduct for indoor applications must meet the following Specifications. (1) Type Corrugated (2) Material PVC (Riser Rated)

PVDF Resin (Plenum Rated)


(3) Inner Diameter 1.38 inches (+0.010 inch, -0.020 inch)

(4) Outside Diameter 1.65 inches (+0.010 inch, -0.020 inch

f. Innerduct color must be yellow for FAA single mode fiber, grey for FAA copper control cable, and must be orange for all other applications.

C. Pull Rope 1. Provide pull rope in all innerduct with minimum pull strength of

1250 pounds for outdoor applications and 900 pounds for indoor applications. The pull rope must extend 6 feet beyond the termination at each end.

D. Duct Plugs and Conduit Seals 1. Duct plugs and conduit/innerduct seals must be constructed of

high impact plastic and fully corrosion resistant. Where fasteners are required they must be stainless steel. The duct plugs and conduit/innerduct seals must provide a water tight and gas tight installation. The devices must be easily installed or removed. The design must be of a split type configuration for retrofitting without any disassembly of existing conduits, innerducts, or cables. The compressible gaskets must be elastic, expandable, and durable for a permanent or temporary installation. Where conduits or innerducts contain pull ropes or cords the plug devices must have internal fastening loops to secure the rope or cord with slack within the conduit or innerduct for access at a later date during cable installations. a. Blank Duct Plugs – Compression type mechanical plugs

must be installed to seal spare conduits and spare innerducts of various sizes at all building/facility entrances and at the first manhole or handhole outside of the building/facility entrance. Plugs are to be sized per conduit inside diameters as required.

b. Innerduct Seals – Compression type mechanical seals

must be provided to seal annular space around innerducts within conduits at all building entrances and at the first manhole or handhole outside of the building/facility entrance. Seals must be split type that can be installed around existing innerducts that are in place with or without cable.

c. Cable Seals – Compression type mechanical seals must

be provided to seal all cable entrances in conduits and all


cable entrances in innerduct at all building entrances and at the first manhole or handhole outside of the building/facility entrance. Fiber optic cable are installed individually, one cable of various diameter within one innerduct. 5KV or 600 volt power cables must have seals selected per total number of cables, diameter of cables, and conduit sizes as required.

E. Pulling Lubricant 1. A water based propylene glycol solution must be used when

placing innerduct into duct banks as well as placing cable into innerduct.

2. The lubricant must have characteristics intended for the pulling of MDPE and HDPE fiber sheaths through PVC innerduct.

F. Provide all fittings, terminations, connectors, etc. for a complete integrated raceway system.

G. Acceptable innerduct manufacturers are Carlon, EW&C and Innerduct, or engineer approved equal.

2.07 BONDING AND GROUNDING Communication bonding and grounding must be in accordance with A.

the Chicago Electric Code and NFPA. Horizontal cables and equipment must be grounded in compliance with B.

ANSI/NFPA 70 and local requirements and practices. 1. Horizontal equipment includes cross connect frames, patch

panels and racks, active telecommunication equipment, and test apparatus and equipment.

Telecommunications Bonding Backbone C.Provide a Telecommunications bonding Backbone utilizing a #6-AWG or larger bonding conductor that provides direct bonding between equipment rooms, equipment cabinets, and telecommunications rooms. This is part of the grounding and bonding infrastructure (part of the telecommunications pathways and spaces in the building structure), and is independent of equipment or cable.

PART 3 EXECUTION 3.01 Installation

All Work must be in full compliance with standards, requirements, A.rules, regulations, codes, statutes, and ordinances, etc., of local, county, and state governments, local utilities, and labor regulations, and must be consistent with acceptable trade practice and standards.


Install the equipment in strict accordance with the final review shop B.Drawings and the equipment manufacturer’s recommendations.

Final adjustments to the equipment must include verification of the C.proper mechanical operation, verification of the operation, and setting of the equipment and devices.

Adjust the location of equipment to accommodate the Work in D.accordance with field conditions encountered.

The equipment must be installed with work space clearances required E.by the Chicago Electrical Code.

The equipment must be installed to permit maintenance and F.replacement of parts, and must be clear of all openings with swinging or moving doors, partitions, or access panels.

Install cable directly from shipping reels. Ensure that cable is not: G.1. Dented, nicked, or kinked. 2. Subjected to pull stress greater, or bend radius less, than

manufacturer’s specification. 3. Subjected to treatment, which may damage cables during

installation. During installation, lubricate cables with lubricants specially formulated H.

for the type of cabling jacket being installed. The Contractor must ensure that the maximum pulling tensions of the specified cables are not exceeded and cable bends maintain the proper radius during their placement in facilities. All pulleys used to aid in the installation of the cables must be sized according to the minimum bending radius. Failure to follow the appropriate guidelines will require the Contractor to provide in a timely fashion the additional material and labor necessary to properly rectify the situation. This must also apply to any and all damages sustained to the cables by the Contractor during the implementation.

Provide fiber shelves, fiber housings, splice closures, splice trays, I.patch panels, pigtails, patch cables, jacks, etc., as required and as indicated to install a complete communications network as indicated.

Seal cables into innerducts to stop ingress of water and grit with J.expansion plugs or duct seal.

Fiber Optic Cable Splices K.1. All fiber optic cable splices must be fusion type. 2. Unless approved by the Commissioner prior to installation,

splicing of fiber cables will not be allowed except where factory terminated pigtails are used for fiber terminations.


3. Completed splices must be covered with a protective sleeve, heat shrink type, to restore the protective properties of the fiber coating and buffering. Deviations to the splice, location, and pull plan will not be permitted without written approval from the Commissioner. All fiber colors must be continuous from end to end. Switching or staggering of the color scheme within the cable at splice points is not allowed. Fibers must be spliced in order.

4. Cables must be brought out of splice enclosures in a controlled environment to perform fusion splice operation. Splice must be completed by returning the cable to the splice enclosure such that excess cable does not impede future entrance and utilization. Cable must be secured at regular intervals.

Labeling L.1. Refer to Specification Section 16195 for cable labeling

requirements. Sequencing M.

1. Provide cables in accordance with sequencing requirements. Support cables in riser conduits and riser innerducts at intervals as N.

required by the National Electrical Code. As required to provide cable strain relief, provide mesh type cable grips at appropriate intervals to ensure that the cable’s maximum tensile load is not exceeded. Care must be taken to ensure that the minimum bend radius of the cable is met at the top of the cable raiser. Cable grip must be suitable for the type of cable installed.

Exposed cables installed on vertical cable tray must be support at O.intervals of no more than 4 feet using Velcro cable ties.

Bonding and Grounding P.1. The contractor is responsible for providing an approved ground

at all newly installed distribution frames, and/or insuring proper bonding to any existing facilities.

2. The Contractor is responsible for ensuring ground continuity by properly bonding all appropriate cabling, closures, cabinets, service boxes, racks, cable trays, and framework.

3. All grounds must consist of #6 AWG copper wire and must be supplied from an approved building ground and bonded to the main electrical ground.

4. Grounding must be in accordance with the CEC and all local codes and practices.

Power Separation Q.


1. The Contractor must not place any communication cabling alongside power lines, or share the same conduit, channel, or sleeve with electrical apparatus.

Miscellaneous Equipment R.1. The Contractor must provide all necessary screws, anchors,

clamps, tie wraps, distribution rings, raceway, miscellaneous grounding, and support hardware, etc., necessary to facilitate the installation.

Special Equipment and Tools S.1. It is the responsibility of the Contractor to furnish any special

installation equipment or tools necessary to properly complete the installation.

2. Tools must include, but are not limited to: a. Tools for terminating cables b. Testing and splicing equipment for balanced twisted pair

and fiber cables, c. Communication devices d. Jack strands for cable reels e. Cable winches

Cable Storage T.1. The Contractor must not roll or store cable reels without an

appropriate underlay. Cable Records U.

1. The Contractor must maintain conductor polarity (tip and ring) identification at the main equipment room (switch room), risers, and station connecting blocks in accordance with industry practices.

3.02 CABLE TERMINATIONS Terminate cables in accordance with TIA/EIA standards. A. Provide factory-terminated pigtails suitable for fusion splicing in the B.

field. Provide all equipment, mounting kits, and consumable materials C.

required for a proper installation as defined by the manufacturer. Each individual cable must be clearly and uniquely identified. At a D.

terminal cabinet or backboard provide a type written directory listing the cable, identification code, and type of signal. The directory must be mounted within the termination cabinet or on the backboard and protected by a clear plastic cover.


Provide a minimum of 10 feet (3 meters) of neatly coiled, slack cable at E.each terminal cabinet or backboard for flexibility.

3.03 PHYSICAL INSPECTION General Procedures: A.

1. Conduct physical checkout of the communication network. 2. Physical checkout must be performed prior to functional testing.

Check Procedures: B.1. Verify that cable reels have been off-loaded from truck carefully

and not damaged. 2. Verify that the cable assemblies are of the type and quantity as

specified. 3. Verify that cable construction is of the type specified. 4. Verify that all equipment have been installed plumb and level at

locations indicated. 5. Verify that fiber optic splice closures have been installed at

locations indicated. 6. Verify that cable connections or terminations within patch fiber

shelves, fiber housings, splice closures, patch panels, and jacks are in accordance with cable manufacturer’s printed recommendations.

3.04 FIELD TESTING A. Conduct the following field tests after cable installation:

1. Visually, inspect terminal connectors for out-of-round condition and surface defects such as microchips and cracks using a 100X (minimum) inspection microscope.

B. Cable Testing 1. At a minimum, provide test results as outlined in the

ANSI/TIA/EIA Standards (latest edition) for the applicable cable being installed.

2. Fiber Optic Cables a. Test all fiber optic cable strands for continuity and

performance before and after the cables are pulled and terminated.

b. All singlemode fiber cables must be tested at both 1310μm and 1550μm after installation.

c. Provide end-to-end dB loss testing for each fiber.


d. Test each fiber strand utilizing an OTDR bi-directional tester at the wavelengths specified above. Overall, the OTDR test results must be made up of the wavelength of the conducted test, the link length, measured attenuation in both directions including average results, cable identification, and the locations of the near end, the far end, and each splice point or points of discontinuity.

e. No splice may show a loss of greater than 0.3 dB and no connector may show a loss of greater than 0.75 dB.

3. Contractor tests must utilize a compliant cable tester for the

respective cable being installed. Provide equipment, instrumentation, and supplies necessary to perform testing. The Commissioner will have the option to witness and participate actively in on-site tests. a. Notify Commissioner at least 3 days prior to testing.

4. Each cable and associated connector must be 100% identified and tested. Printed test results for each fiber strand are required.

5. Hard-copy and electronic-copy results for each cable must be submitted as part of “As-Built” project performance acceptance records. In addition to the above information, the documentation will also include a pass/fail indication for the specified cable, the test date, the serial number, and software version of the test equipment, and a copy of the calibration certificate for the test equipment. The above acceptance records and documentation must be submitted to the Commissioner to support the milestone the cable is associated with and at project closeout. The Contractor must also provide manhole/handhole checklists as specified in Section L-118, for each structure fiber optic cabling was installed in (to indicate which particular cell and innerduct each cable was installed).

6. At no additional cost to the Owner, the Contractor must replace all cables and/or mated connector pairs that do not meet performance standards and perform retests until cable meets requirements.

PART 4 WARRANTY A. An End-to-End Warranty for the IPVSS shall be for a minimum period

of 20 years. The warranty shall cover products, performance and applications assurance for cabling systems designed and installed by the cabling system manufacturer’s certified Contractor. The necessary


documents shall be submitted only by the Manufacturer’s Representative.

PART 5 METHOD OF MEASUREMENT - Deleted PART 6 BASIS OF PAYMENT - Deleted

END OF SECTION 16730

CITY OF CHICAGO DEPARTMENT OF AVIATION 16823-1 VIDEO SURVEILLANCE SYSTEM TSA ADVANCED SURVEILLANCE PROGRAM - CCTV CDA PROJECT NO. H9016.14-00 ISSUED FOR BID, 03/29/2016, REVISED

VIDEO SURVEILLANCE SYSTEM SECTION 16823

PART 1 - GENERAL

1.1 SUMMARY

A. The Work detailed within the Contract Documents has been specified to meet certain requirements for performance, appearance and costs. Some information, such as exact locations of field equipment, exact wire routing, and exact conduit requirements have been intentionally omitted. It shall be the responsibility of the Contractor to implement the guidelines and requirements contained in the Contract Documents and translate them into a complete installation containing all elements necessary for a complete, operational and functionally integrated Closed Circuit Video Security System.

B. Provide all Work as detailed in the Contract Documents as a turnkey installation including all material, labor, warranties, taxes, freight and permits. Only items and requirements specifically stated to be provided by others shall not be a requirement for this Section of the Work.

C. All CCTV cameras will be integrated on the network as depicted on construction drawings.

D. The CDA shall be responsible for all Graphical maps (GUI) configurations, alarms configurations/management, database and software configurations etc. at the head end servers and monitoring workstations located in the O’Hare Communications Center, for all the new equipment installed in the areas shown on the drawings. The GUI shall provide as a minimum: 1. As built maps and graphical representation of the facility 2. Location of cameras and all security equipment 3. Click on the camera icons shall display live video in the same GUI 4. Online alarms display, control and management 5. Camera controls including video switching

E. Feed of the CCTV shall be viewed in a location coordinated with the Commissioner.

1.2 RELATED DOCUMENTS

A. Drawings and general provisions of the Contract, including General and Supplementary Conditions and Division 1 Specification Sections, apply to this Section.

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B. The Contractor shall review the project construction and completion schedules and shall coordinate execution of the scope of work as defined in this document and all other Documents with all other sub-Contractors and service providers engaged by the CDA and their representatives for work related to this facility.

C. The CDA will be responsible for all necessary actions to complete the network configuration and commissioning of the VSS system.

D. The CDA will be responsible for the integration of the VSS system with the facility’s LAN including all necessary infrastructure and software configurations.

E. The CDA will be responsible for all configuration, software, and commissioning for the access switches, distribution switches, and core switches.

F. A new LAN will be installed to support the CCTV of this project. The CDA will be responsible for all final equipment connections, system integration, and programming.

1.3 SUBMITTALS

A. It shall be the responsibility of the Contractor to provide complete and detailed technical information for all equipment, components and materials. In the event that submitted technical information is not sufficient to permit the CDA to readily confirm that proposed equipment, components and materials will meet or exceed the performance and technical specifications, the proposed equipment, components or materials shall be rejected. The CDA shall determine the final decision as to whether proposed equipment, components and materials are acceptable. In no case shall acceptance by the CDA of proposed equipment, components and materials relieve the Contractor of his responsibility to produce completed systems, which comply with these specifications.

B. Pre-Fabrication Submittal: Submit Pre-fabrication Submittals in accordance with the construction schedule. Pre-fabrication Submittals shall consist of Product Data, Shop Drawings and a detailed completion schedule. Partial submittals will not be accepted without prior written approval from the Engineer.

C. Review of the Pre-fabrication Submittals by the Engineer is for purposes of tracking the Work and contract administration, and shall not relieve the Contractor of responsibility for any deviation from the Contract Documents, or from providing equipment and / or services required by the Contract Documents which were omitted from the Pre-fabrication Submittals.

D. No portion of the Work shall commence nor shall any equipment be procured until the Engineer has reviewed the Pre-fabrication Submittals. All Work shall be in accordance with the Contract.

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E. Product Data: Submit Product Data in accordance with the contract documents. Include the following:

1. Equipment schedules listing all system components, the manufacturer, model number and quantity of each.

2. Manufacturer’s literature sheets for all system components, including any warranty information. Literature sheets containing more than one device or component model number shall be clearly marked to delineate items included in the Work.

3. A complete list of cable and wiring types and sizes, as well as the manufacturer and model number for each component.

F. Shop Drawings: Record shop drawings and all record drawings are not required to be submitted in a specific format. The A/E will be responsible for converting field mark-up drawings to the current version of MicroStation. The Record Drawings become property of the CDA. Submit Product Data in accordance with the contract documents. Include the following:

1. Floor Plan Drawings: Indicate device locations, wire runs and wire designations on floor plan drawings. Wire runs shall be shown as single lines, drawn horizontally and vertically between devices and processing equipment, and shall be tagged to indicate type, gauge and conductor quantity. Wire quantities shall be tallied as they are combined when traveling together in single pathways and clearly delineated on the plans.

2. A drawing legend sheet describing all symbols used on the drawings and containing a description of each device, complete with manufacturer name and model number.

3. System riser diagram with all devices, wire runs and wire designations. 4. Schematic block diagrams for each system showing all equipment

(typical), interconnects, data flow, etc. 5. Wiring diagrams for each subsystem defining the interconnection of all

inputs and outputs for all equipment. Diagrams shall indicate exact equipment counts.

6. Plans and elevations of the security console(s) and equipment racks quantifying all equipment to be mounted therein and including notes detailing the fabrication of such. All materials, methods for construction and finishes shall be fully detailed.

G. The Contractor shall submit a testing plan. The testing plan shall detail test procedures and test reports that indicate testing methods for Factory Acceptance Tests (FAT). The tests shall clearly demonstrate that the CCTV system and its components fully comply with the requirements specified herein. At a minimum the tests shall demonstrate each specification section of this document including but not limited to the ability of the system to indicate violation of detection zones from the automated video surveillance system, the ability to search recorded video based on date/time or event and the ability to

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store recorded video on-line for the specified period of time.

1.4 QUALITY ASSURANCE

A. Manufacturer's Qualifications: Firms regularly engaged in manufacture of CCTV systems, components and accessories, of types, capacities and characteristics required for this job, whose products have been in satisfactory use in similar installations for not less than five (5) years.

B. Installer's Qualifications: Firms with at least five (5) years of successful installation experience with projects of similar size and environments utilizing the brand of CCTV equipment proposed for this project. Installation experience must be for work completed within the last three (3) years

C. Code compliance: The Contractor shall have a thorough understanding of and comply with Local Electrical Codes and regulations as applicable to construction and installation of CCTV equipment and signal distributions systems at the facility. When there is a conflict between codes, the more stringent will apply.

D. Unless accepted otherwise by the Engineer, use manufacturers and installers that employ a Quality Management System complying with the program described in ISO 9001-2000, or similar system.

1.5 RADIO INTERFERENCE

A. RF Interference Compliance: All equipment shall be tested and found to comply with the limits of CISPR 22 and FCC Part 15. These limits are designed to provide reasonable protection against harmful interference when the equipment is operated in a commercial environment. If the equipment is not installed and used in accordance with the instruction manual, harmful interference to radio communications may result. If this is found to be the case, the harmful interference caused by this equipment will be corrected by the Contractor at the Contractor’s own expense.

1.6 WARRANTY

A. Period: Provide a manufacturer’s warranty on the Work in accordance with the special conditions of the contract. If, within the warranty period or within such longer period of time as may be prescribed by law, or by the terms of any applicable special warranty required by the Contract Documents or provided by a manufacturer, any of the Work or equipment is found to be defective or not in accordance with the Contract Documents, the Contractor shall correct it promptly including all parts and labor, at the Contractor’s expense.


B. Software Maintenance: During the warranty period all software including the operating system software shall be maintained at the most current version available from the manufacturer at no additional cost.

C. During the warranty period, all periodic and routine maintenance of the installed components to maintain the factory warranty shall be provided at no additional cost under this contract.

D. Software licenses shall be provided by the contractor and maintained at the current version(s) throughout the contractual warranty period. The CDA will coordinate the activities of their maintenance contractor with the project construction team.

E. Tie-ins: During the warranty period, components may be connected/disconnected from the system as applicable. New devices will be connected in a similar manner as shown on the drawings for this contract by a qualified company and the existence of the new connections or the removal of provided connections shall not void the system warranty on the original system.

F. Response Times: For the Warranty Period, the following response times shall be maintained:

1. The initial call to the Contractor shall require the type of call to be classified as critical or non-critical. The nature of the problem and the effect on facility operations will be the deciding factor in classifying the problem. The determination by the facility representative as to the classification of the problem is final. For the purpose of defining the priority of the call, the Contractor shall have personnel accessible to facility personnel via phone call-back within one (1) hour of initial call. This availability is to be provided 24 hours a day, 365 days a year.

a. Non-critical Items: For purposes of this section, these are defined as failures or problems, which do not affect the overall safety, security, or operation of the facility. For example, the loss of a single camera would usually be considered non-critical.

b. Critical Items: For purposes of this section, these are defined as failures or problems, which do affect the overall safety, security, or operation of the facility. The failure of a power supply resulting in the loss of multiple cameras would be examples of critical items requiring immediate remedy.

2. Non-critical items: The Contractor shall diagnose and remedy the problem during normal working hours of the next working day. The initial response shall be the morning of the next day if received before noon or by the noon the next day if received before close of business. Normal business hours are defined as 8:00 AM to 17:00 PM.

3. Critical Items: Critical Items require the Contractor to respond with all due speed. These will possibly need to be responded to outside of normal

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business hours. 4. The Contractor must respond on-site to diagnose and remedy critical item

calls within (4) hours of the initial call.

PART 2 - PRODUCTS

2.1 CAMERAS

A. All cameras shall be supplied by the owner and installed by the contractor.

B. IP Day/Night Cameras Fixed:

1. All Fixed cameras shall have the following as minimum: 2. Chip Size: 1/3" 3. Type: Color, Vandal-Resistant 4. Mechanism: Fixed 5. Minimum Illumination: 0.3 lx (Color), 0.2 lux (B/W) at F1.3 (WIDE) 6. Lens: 3.6x varifocal lens 7. Advanced Technology: Face Detection, Focus Assist, Wide Dynamic

Range, Face Wide Dynamic Range 8. Power: 12 V DC: 320 mA, PoE (IEEE 802.3af): 4.2 W (Class 2 device) 9. Scanning Area: 4.8mm (H) x 3.6 mm (V) 10. Scanning Mode: Progressive scan 11. Effective Pixels: Approx. 1.3 Megapixels 12. MPEG4 video compression 13. Resolution: HD (1280x 720) 14. Frames per second: 30

C. IP Day/Night Cameras PTZ:

1. All PTZ cameras shall have the following as minimum: 2. Chip Size: 1/4" 3. Type: Color 4. Mechanism: P-T-Z 5. Connectivity: IP 6. Resolution: HD (1,280x720) 7. Minimum Illumination: Color: 0.5 lx, B/W: 0.06 lx at F1.6 (Shutter:1/30 s,

AGC: High) 8. Color: 0.031 lx, B/W: 0.004 lx at F1.6 (Shutter: 16/30 s, AGC: High) 9. Lens: 18x optical zoom with 12x digital zoom enabling 216x zoom; 10. 36x extra optical zoom under VGA resolution with 12x digital zoom

enabling 432x zoom 11. Advanced Technology: Super Dynamic, Face Super Dynamic, Face

Detection, Video Motion Detection 12. Power: 24 V AC, PoE


13. MPEG4 video compression 14. Frames per second: 30

D. Housings and Mounts:

1. Housings and mounts shall be provided to match requirement of site conditions and to approval of engineer. Housings and mounts shall be lightweight, tamper-resistant, aesthetically designed and meet IP42 standards. Manufacturer shall match that of cameras.

2.2 Video Management Software

A. All equipment shall integrate with existing Verint system.

2.3 Servers (used for the video management system)

A. (2) Intel Xeon E5-2440 2.40GHz, 15M Cache, 7.2GT/s QPI, Turbo, 6C, 95W Storage Hard drive archiving capability in a variation of sizes shall be RAID 5

B. Signal Format TCP/IP

C. Alarm History Log Available through a query

D. Remote Control Full remote control operation via TCP/IP protocol, with control.

E. LAN/WAN Connection Ethernet 100/1 000 BaseT as needed

F. Programming On-screen programming and operation through a PC keyboard and mouse and/or remote programming through Client PC Interface.

G. Alarm Notification Via network.

H. Alarm Inputs and Outputs :As required to fully integrate the Fire Alarm System alarms and Access Control System alarms

I. (6) 16GB RDIMM, 1600MT/s, Low Volt, Dual Rank, x4 Data Width

J. (8) 600GB 15K RPM SAS 6Gbps 3.5in Hot-plug Hard Drive

K. Manufacturers: 1. IBM 2. HP 3. Dell 4. Or Engineer approved equal


2.4 Storage

A. A new recording storage shall be added as depicted on the drawings. The video recording parameters shall be located in the server room. Analytically, Resolution 720p, Compression MPEG4-10, Frames per second: 25, Days of Storage: 30, RAID 6 technology. Recording for CCTV shall be continuous.

B. All CCTV equipment shall be powered by UPS via the POE switches.

C. Contractor shall provide live demo for all camera types from different brands which comply with technical specification to be approved by end users.

D. Contractor shall provide verification of CCTV storage calculations.

E. Contractor shall consider a minimum of 20% spare capacity for CCTV storage system.

F. Storage system shall be EMC or Engineer approved equal.

G. Contractor shall provide any required software licenses and additional hardware for the new storage. CDA will be responsible for programming and integration with the existing system.

2.5 Access Switches

A. The access switches shall be installed in the telecom rooms as depicted on project drawings. The total number of access switches is 22 (one in each of 19 telecom rooms, one each in DNC1 and DNC5, and one in the OCC for the VSS servers).

B. Access switches shall support both Layer 2 and Layer 3 switching.

C. Features shall include (but not be limited to): 1. 48 10/100/1000 data PoE+ and UPOE models with energy-efficient

Ethernet (EEE) 2- and 24-port SFP-based models 2. Scalability and resiliency with 480 Gbps of stack throughput providing

power stacking among stack members for power redundancy 3. Three optional uplink modules with 4 x Gigabit Ethernet, 2 x 10 Gigabit

Ethernet, or 4 x 10 Gigabit Ethernet ports 4. Dual redundant, modular power supplies and three modular fans providing

redundancy 5. Full IEEE 802.3at (PoE+) with 30W power on all copper ports in 1 rack

unit (RU) form factor 6. Software support for IPv4 and IPv6 routing, multicast routing, modular

quality of service (QoS), Flexible NetFlow (FNF), and enhanced security features.

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D. Manufacturers 1. Cisco 2. Or Engineer Approved Equal

2.6 Distribution Switches

A. The distribution switches shall be installed in the DNC telecom rooms as depicted on project drawings. The total number of distribution switches is 5 (one in each of 4 DNC rooms, and one in the OCC for the VSS servers).

B. Manufacturer and model: Cisco Catalyst 4500-X (WS-C4500X-24X-ES) with dual 750W power supplies, or Engineer approved equal

2.7 Core Network Router

A. Manufacturer and model: Cisco Nexus 7700 (N77-C7706-B26S2E-R), plus all necessary appurtenances for mounting, installation and operation.

B. The core router shall be installed in the OCC.

PART 3 - EXECUTION

3.1 INSTALLATION

A. Contractor must coordinate all work in OCC and all telecom rooms and DNCs with CDA prior to any hardware or software configuration or installation to ensure integration and compatibility with all existing systems.

B. Manufacturer's Instructions: Install access control systems and components where required, in accordance with the specifications, equipment manufacturer's written instructions, in compliance with applicable Electrical Codes, and with recognized industry practices, to ensure that the CCTV system complies with requirements and serves intended purposes.

C. Field Of View Adjustment: Aim each fixed CCTV camera for the optimum view of the area that it is intended to cover, using a monitor to view the camera output. Final aiming shall be agreed to and accepted by the Project Engineer prior to project close out.

3.2 CABLING AND POWER SUPPLIES

A. The design for CCTV communication cabling shall require conduit from the camera to the nearest junction box/remote power injector. CCTV communication cable shall route through conduit to junction box. Cable shall be

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a minimum of CAT-6 and be plenum rated where required.

B. The basis of design for CCTV power is Power-Over-Ethernet.

C. A rack mounted multi-output device shall supply the CCTV power for multiple cameras (no more than three per 4-port power injector) connected to remote power injectors located in the junction boxes. Fast acting external transient voltage surge suppression shall be provided on each output circuit. The multi-output device shall be powered from a rack mounted UPS power supply sized to provide 30 minutes of continuous operation of a fully loaded CCTV power supply device. The UPS powering the multi-output device shall have a primary power source from a generator-backed circuit.

D. All CCTV recording, processing and viewing equipment shall be powered from UPS equipment that is connected to a generator backed primary power supply in the OCC. The UPS supplying power to this CCTV equipment shall be sized to provide 30 minutes of run time for a fully configured system. If the attached equipment is capable of being shut down in an orderly fashion to prevent malfunctions on restart, the UPS shall be interfaced with this equipment to initiate the orderly shutdown just prior to the UPS shutting down.

3.3 OPERATION AND MAINTENANCE MANUAL

A. The Contractor is directed to provide complete documentation of the CCTV System for the purpose of system operation and maintenance during and after the warranty period. It is intended that the operation and maintenance manuals be exhaustive in the coverage of the system to the extent that they may be used as the sole guide to the troubleshooting, identification and repair of defective parts. The intent of this section is to provide documentation as the system specific supplement to the maintenance manual. These manuals shall include basic wiring diagrams, schematics, and functional details such that going to the actual equipment and making reference to this manual may easily identify any component, wire, or piece of equipment in the system. It is required that everything in the system be neatly labeled and easily identifiable. Every, wire, fiber, component, or piece of equipment, and other such items shall have a number or letter designation. All of these identification characteristics shall be included in the maintenance and operation manuals.

END OF SECTION 16823