MSU Telecommunications Wiring Design Guidelines
- 1.0Telecommunications Rooms
- 2.0Telecommunications Room Termination Equipment
- 3.0Telecommunications Workstation Outlet Termination Equipment
- 4.0Telecommunications Horizontal Cabling and Support Structure
- 5.0Telecommunications Cable
- 6.0Installation Guidelines for Telecommunications Cable
- 7.0Termination of Telecommunications Cables
- 8.0Testing of Telecommunications Category 6 Cables
- 9.0Telecommunications Labeling and Documentation
- 10.0Telecommunications Backbone and Riser Cables
- 11.0Telecommunications AutoCAD Drawing Legend
This document defines the standards used for voice and data wiring in buildings used by MSU departments. All telecommunications wiring will be performed by the Information Technology Department (ITC) or by contractors meeting ITC’s Campus Wiring Standards requirements. Throughout the document the word shall is mandatory. Where the word preferred is used we would like it done this way and it would be expected in new building construction. The terms cabling and wiring are used interchangeably. For more details about the industry telecommunication standards, which MSU complies with, see the TIA/EIA Commercial Building Telecommunications Cabling Standards as follows:
- Commercial Building Telecommunications Cabling 568-B.1-5;
- Commercial Building Standard for Telecommunications Pathways and Spaces 569-B;
- Commercial Building Grounding (Earthing) and Bonding Requirements for Telecommunications J-STD-607-A;
- Customer-owned Outside Plant Telecommunications Infrastructure Standard TIA-758-A.
All communication wiring contractors must be TE Connectivity (Tyco Electronics) authorized AMP NETCONNECT Design and Installation (AMP ND&I) contractors, and must register their Amp wiring installation for the AMP NETCONNECT 25 Year Performance Warranty. (For a listing of ND&I Contractors, visit http://www.ampnetconnect.com/search_contractor.asp.)
The telecommunications network systems contains cable, connectors, electronic equipment, and routing materials for MSU provided voice and data services and equipment throughout campus buildings. Voice/data cables are routed together from each individual telecommunications workstation outlet to a telecommunications room within 90 meters, preferably on the same floor.
New workstation outlets are typically either a single-gang box with two (2) Amp Netconnect Category 6 four-pair, Unshielded Twisted Pair (UTP) cables, or a double-gang box with four (4) Amp Netconnect Category 6 four-pair, Unshielded Twisted Pair (UTP) cables. Any cable can be used for either voice or data. All outlets are terminated and tested to Category 6 standards.
Some existing buildings have older standard cable and equipment, Category 5 or Category 5 Enhanced. These will be replaced by the newest standard of cable and equipment when remodeling, renovations or new construction is done. Therefore some Telecommunications Rooms will temporarily have a combination of cable and equipment types.
MSU has selected Corning for its fiber optic cable, patch panel and connector standards, and Amp Netconnect (Tyco) for its copper telecommunication outlet and cable product standard. The Amp Netconnect 25-Year Warranty shall be acquired by, or on behalf of ITC, to cover labor and materials on all new construction projects. ITC’s certifications and enrollment in the Amp Netconnect ND&I Program cover work done by the ITC Communication Wiring group.
MSU has selected Cisco for its data electronic equipment; Aruba Networks for its wireless network equipment; PowerDsine for its mid-span power over Ethernet product; and Avaya/Heritage Nortel for its telephone electronic equipment.
Under normal circumstances, the Information Technology Center (ITC) Communication Wiring group designs, installs, tests, certifies, and maintains inside and outside building cabling, communication outlet equipment, and telecommunication room patch panels and wire management components. They also ensure that all NEC and Building Code requirements are met with regard to wall and ceiling penetration sealing and fire-stopping.
ITC’s Infrastructure Systems and Operations (ISO) Networking group specifies the network switches and fiber optic termination equipment for each telecommunications room. Both groups terminate and test the fiber optic cable. ISO configures and installs the network switches and installs the necessary fiber patch cables and other accessory equipment to activate the network connections. ITC’s Telephone Services group defines and installs all telephone station equipment. Facilities Services electricians or contracted electricians install conduit, raceway, cable trays, j-hooks, electrical and raceway boxes, racks, seismic bracing and any other rough-in work required.
- Telecommunications Rooms, also known as MDF, IDF, or BDFs (Main, Intermediate, or Building Distribution Facilities), are preferably on each floor in a central and accessible area, and are common access points for backbone and horizontal building cable pathways. Telecommunications Rooms shall contain telecommunications and network equipment, cable terminations, and associated cross-connect or patch cabling. On the lowest floor of the building they shall also contain the cable entrance facilities for voice and data. Telecommunications rooms shall be dedicated to the telecommunication function and related support facilities. They should not be shared with electrical installations other than those required for provisioning telecommunication services. Equipment not related to the support of the telecommunications rooms (e.g., piping, ductwork, pneumatic tubing) should not be installed in, pass through, or enter the telecommunications room. Telecommunications rooms shall be located as close as practicable to the center of the area served, and preferably in the core area.
- The maximum horizontal distribution cable distance shall be 90 meters (295ft). If the length of any cable run to a workstation outlet exceeds the 90-meter limitation or if the floor has in excess of 10,000 square feet, additional telecommunications rooms must be installed.
- Telecommunications rooms shall be 10' by 11’ in size if the serving area is 10,000 square feet; 10’ by 9’if the serving area is 8,000 square feet; 10’ by 7’ if the serving area is 5,000 square feet. In locations where space or outlet numbers are limited, other options such as a single rack, wall mounted racks or enclosed lockable cabinet(s) may be considered. Adequate clearance and access shall be provided to all racks and cabinets, and include any swing radius of cabinet doors or rack frame. It is preferred there be one telecommunications room on each floor, stacked under each other, to facilitate vertical distribution of riser cables.
- Multiple telecommunications rooms in a building will be connected with multi-mode and/or single-mode fiber optics cable. The type of cable will be determined at the planning stage, taking into consideration the amount of network traffic between closets, the distance between the telecommunications rooms and the difficulty of running other cables at a future date.
- A minimum of one dedicated 20 amp circuit and 20 amp duplex receptacle shall be installed to power the active electronics located in each telecommunications room. In room where there are two active electronics racks, it is preferred there be two dedicated 20 amp circuits. The receptacle(s) shall be located on the side of, on top of, or at the bottom of the vertical wire manager for the active electronics racks, as determined by the ITC representative for the project. Where racks are placed proximate and perpendicular to a wall, the outlet may also be mounted on the wall adjacent to the nearest rack or wire manager. A Line-Interactive Uninterruptible Power Supply (UPS) shall be provisioned in every Telecommunications Room, to provide reasonable back-up power to the active electronics if electrical service fails. All racks and cable tray shall be grounded. Grounding systems are integral to the provisioning and protection of telecommunications systems and cabling. In addition to helping protect personnel and equipment from hazardous voltages, a proper grounding system may reduce electromagnetic interference (EMI) to and from the telecommunications cabling system. Grounding and bonding shall meet the requirements and practices of application authorities or codes; and shall conform to ANSI/TIA/EIA-607 requirements.
- Below are environmental and other factors that shall be addressed in the design of the telecommunications room.
- 1.6.1Electromagnetic Interference – telecommunications rooms shall be located away from sources of electromagnetic interference such as electrical power supply transformers, motors and generators, x-ray equipment, radio or radar transmitter, and induction sealing devices.
- 1.6.2Plywood Backboard – a telecommunications room requires an 8’ x 4’, ¾” plywood board securely fastened to one wall. The plywood will be fire-rated (fire-retardant) and painted.
- 1.6.3Ceiling – Ceiling height will be a minimum clear height of 8 feet without obstructions; however most installations shall be 10 feet to accommodate overhead pathways. For purposes of access and flexibility, it is preferred that dropped ceilings are not provisioned in the telecommunications rooms.
- 1.6.4Treatment – Floors, walls, and ceiling shall be treated to eliminate dust. Finishes shall be light in color to enhance room lighting. Floors shall have anti-static properties where feasible.
- 1.6.5Lighting – Lighting shall be a minimum of 500 lx (50 foot-candles) measured 3 feet above the finished floor, in the middle of all aisles between cabinets and racks. The lighting shall be controlled by one or more switches located near the entrance doors to the room. Lighting fixtures shall not be powered from the same electrical circuit as the telecommunications equipment in the telecommunications room.
- 1.6.6Door – The door shall be a minimum of 36 inches wide and 80 inches high, without doorsill, hinged to open outward (codes permitting).
- 1.6.7Floor loading – Telecommunications rooms shall be located on floor areas designed with a minimum floor loading of 50 lbs/ft2.
- 1.6.8Seismic considerations – All racks shall be bolted to the floor, and braced horizontally to a wall and vertically to the ceiling, by strut members or cable trays.
- 1.6.9HVAC shall be included in the design of the telecommunications room to maintain a consistent room temperature of approximately 72 degrees F. It shall be operational 24 hours per day and 365 days per year.
- 1.6.10Contaminants – The telecommunications room shall be protected from contaminants and pollutants that could affect operation and material integrity of the installed cable and equipment.
- 1.6.11Vibration – Potential vibration sources, which can lead to service failures over time, should be considered and mitigated in the design of the telecommunications room.
- 1.6.12Security – The telecommunications room will have only 1 access door into the space and a lock shall be installed, keyed to MSU’s Mechanical Room designation.
- 1.6.13Fire Protection – Fire protection of the telecommunications room shall be provided per applicable code. If sprinklers are required, the heads shall be provided with wire cages to prevent accidental operation. Drainage troughs shall be placed under the sprinkler pipes to prevent leakage onto the equipment within the room.
- See TIA/EIA Standard 569-B Commercial Building Telecommunications Pathways & Spaces for more details in planning and installing telecommunications rooms.
- Contractor’s needing access in MSU established Telecommunications Rooms must contact ITC 24 hours in advance.
- Termination floor racks, wall racks and cabinets shall be industry standard 19" equipment (relay) racks. Preferred mounting equipment is at least two Chatsworth floor racks (one for active electronics and one for cable terminations) with double sided Chatsworth vertical wire management units mounted in between the termination racks. Floor racks shall be bolted to the floor, to each other and braced to the ceiling or walls to meet seismic standards. Racks and cable trays shall be grounded as per TIA/EIA Standard 607-A Commercial Building Grounding & Bonding. Part numbers for Chatsworth racks are as follows:
Chatsworth Relay Rack 46353-5-03 Chatsworth Wire Management Unit 11729-5-03 Great Lakes Wall Mount Cabine GL36WM
- AMP Netconnect patch panels shall be installed on the racks to terminate the Unshielded Twisted Pair (UTP) horizontal wiring. Amp Category 6 high density patch panels are unloaded kits, black in color as follows:
AMP High Density 48 Port Patch Panel Kit 1375015-2 AMP High Density 24 Port Patch Panel Kit 1375014-2
- Amp Telephone patch panels are installed in the rack to terminate the riser and distribution telephone cable in the rear, and to have telephone patch cables plugged in the front:
AMP 24 Port 557403-1 AMP 48 Port 557411-1 AMP 96 Port 557415-1
- Siemon Rear Wire Minders shall be installed on the back of the rack, and Amp 2U Wire Managers shall be installed in the front to aide in dressing the cables. For all patch panels 2 of each are needed, one above and one below the patch panel. Part numbers for these products are as follows:
Siemon Rear Wire Minders WM-BK Amp Wire Manager 558331-1
- At each communication outlet location AMP Netconnect components shall be installed in a single or double gang electrical or surface box. All conduit and surface raceway boxes at each workstation outlet shall be “deep” models. If installation is in a single gang or surface-raceway box, an AMP Single Gang Faceplate is needed. If installation is in a double gang box, an AMP Double Gang Faceplate is needed. Part numbers for the AMP products are as follows:
AMP Single Gang 2 port Faceplate 557505-1 AMP Single Gang 4 port Faceplate 558088-1 AMP Double Gang 4 port Faceplate 83935-1
- AMP Netconnect inserts shall be used in the workstation outlet. AMP Category 6 modular inserts shall be used for voice and data. If no insert is required, an AMP SL Series blank insert shall be installed. Part numbers for the inserts are as follows:
AMP Category 6 Modular Insert 1375055-1 AMP SL Series Blank Insert 1116412-1
- Typically the top cable of the communication outlet is used for the telephone connection, and the bottom cable is used for the network connection. Because both cables are Category 6, they can be used for voice or data service as required.
- The horizontal cabling is the portion of the telecommunications cabling system that extends from the horizontal cross-connect in the telecommunications room, to the work area telecommunications outlet. The horizontal cabling shall be installed in a star topology. It is preferred that a telecommunications room should be located on the same floor as the work areas served. The maximum horizontal distance shall be 90 meters (295 feet). For ease of cable installation and future expansion in hallway or major distribution routes, cable trays are the preferred method for distributing the horizontal wiring from the telecommunications room to the communication outlets. J-hooks, spaced every 4 feet, may be used for distribution of small cable bundles above suspended ceiling spaces, from major distribution routes to room outlet locations. Cable trays shall be designed to accommodate a maximum calculated fill ratio of 50% to a maximum of 6 inches inside depth, to allow for future cable installations. Cable tray products shall be B-Line or Flex Tray brand. No cable may be attached to any other utility structure, or laid on top of ceiling tile.
- J-hooks shall be attached to building members with fasteners appropriate for the material. Wood screws or lag bolts shall be used for wood, wood screws with plastic anchors shall be used for plaster and concrete, and self taping screws shall be used for sheet metal. Threaded metal hooks attached to threaded anchors are also acceptable.
- Unistrut or equivalent may be used where necessary to provide attachment points for conduit or cable tray. All thread hangers shall be mounted with threaded anchors.
- Occasionally large hooks that will carry the weight of many cables may be used, and attached with lag bolts, metal concrete anchors, or metal anchors with epoxy. The anchors shall extend into the mounting material at least 3 inches.
- Hooks shall be mounted no more than four (4) feet apart. Closer spacing may be necessary in areas where cables are routed around corners or are in close proximity to other mechanical or electrical systems.
- Where raceway, cable tray and conduit are used it shall be sized according to the list below. The minimum size for raceway and conduit is 1 inch diameter. Use B-Line cable tray products. No more than two 90 degree bends are allowed between pull points, although no 90 degree bends is preferred. Use sweeping bend products when 90’s are required. The number of cables that can be installed in a conduit is limited by the allowed maximum pulling tension of the cables. A maximum fill of 40% is preferred to allow for future additions of cable.
- Surface Raceway, Cable Tray and EMT Conduit
EMT Conduit Sizing Chart
EMT Conduit Size Maximum Cables 1 Inch 4 1-1/4 Inch 6 1-1/2 Inch 8 2 Inch 14 2-1/2 Inch 17 3 Inch 20 Cable Tray – B-Line Products WB4C Connector Assembly WB4RSPL Radius Bend WB6CH Hanger WB514CB Bracket WR4RSP Radius Bend WB08BE End Cap WB2DO Dropout WB408 Basket 8” x 2” – 8 Ft WB204 Basket 8” x 4” – 8 Ft
- No section of interior conduit shall be longer than 100 feet between pull points. No section of conduit shall contain more than two 90-degree bends, or equivalent between pull points. For conduits with an internal diameter of 2 inches or less, the inside radius of a bend in conduit shall be at least 6 times the internal diameter. For conduits with an internal diameter of more than 2 inches, the inside radius of a bend in conduit shall be at least 10 times the internal diameter. Conduit sizing is directly related to the planned diameter of the cable bundle and the maximum pull tension that can be applied to the cable without degradation of the cable transmission properties. Any single conduit run extending from a telecommunication rooms shall not serve more than three outlet boxes; it is preferred to only serve one box. Conduits shall be reamed to eliminate burrs and sharp edges. Pull string or rope shall be placed in installed conduits.
- Surface raceway systems shall not force cable into a bend radius less than 1.21 inches under condition of maximum fill.
- When cables are installed in an un-insulated drywall wall, no box is required; instead a device mounting bracket can be mounted securely in the wall.
- When a conduit and surface raceway box is used as both a jack and pull box, the minimum box depth shall be 3-1/8".
- Cable in exposed finished areas shall be installed in EMT conduit. The preference is not to use surface raceway combining electrical and communications cabling. However, power poles may be used for this when necessary.
- Unshielded Twisted Pair (UTP) Category 6 cable shall be used for horizontal wiring of campus buildings. Cable shall be Amp Incorporated (Tyco Electronics) Category 6, four pair UTP per the TIA/EIA standards. Plenum rated cable will be used throughout a building if cable routing is in return air spaces. The following are the part numbers for Category 6 cable (spools in a box):
Non-plenum Category 6 cable – gray TE620R-GYRB Plenum Category 6 cable – gray TE620P-GYRB
- A minimum of two UTP Category 6 cables shall be run to each jack. Wall phone locations may have only 1 cable. At the telephone location, a wall-phone outlet is installed; Part No. IC630DB6.
- Patch cables shall be of the same performance category, or higher, as the horizontal cables to which they connect, and manufactured by Amp Netconnect. Patch cables used are to be factory terminated cables. Patch cables should be 14 feet or shorter at the workstation outlet location (the preferred length is 10 feet). A 3' to 14’ patch cable shall be used in the telecommunications room from the AMP patch panel to the network switches (the preferred length is one that is just the right length from the network switches to the patch panel port after dressing in wire managers). In no case shall the total distance from workstation outlet to the patch panel exceed 90 meters. Bootless patch cables are preferred. The part numbers are listed below:
Amp Category 6 Patch Cord – Bootless – 1 foot – black TCPC-6RUVB-BK-01F Amp Category 6 Patch Cord – Bootless – 3 feet – black TCPC-6RUVB-BK-03F Amp Category 6 Patch Cord – Bootless – 5 feet – black TCPC-6RUVB-BK-05F Amp Category 6 Patch Cord – Bootless – 7 feet – black TCPC-6RUVB-BK-07F Amp Category 6 Patch Cord – Bootless – 10 feet – black TCPC-6RUVB-BK-10F Amp Category 6 Patch Cord – Bootless – 14 feet – black TCPC-6RUVB-BK-14F
- The minimum horizontal cable bend radius, under no-load conditions, shall be four times the diameter of the Category 6 cable. The minimum inside bend radius, under no load conditions, for 4-pair UTP patch cable shall be .25 inches.
- The maximum tensile loading shall not exceed 25 pounds on the Category 6 cable.
- Cable ties shall not be installed as to place a strain on the cable jacket.
- Cables that serve several adjacent rooms shall be grouped together into bundles. A single large cable bundle is preferable to several small bundles. It is preferred that the cables be grouped in a way that reduces the quantity of bundles.
- Cables in service areas such as attics, crawl spaces, mechanical chases, and above lay in ceilings shall be held in place with metal J-hooks or cable tray. The J-hooks shall keep cables neatly bundled and shall be located so as to reduce interference with future maintenance and construction projects. Cables shall be mounted at least 1' above drop tile ceilings, shall never lie on the ceiling, and shall always be supported every 4 feet.
- In areas where the installation of hooks is impossible, a discussion with an ITC Communication Wiring representative should be initiated. The cables may be bundled with plastic tie wraps spaced no more than four feet apart, so long as the tie wraps are tight enough to neatly bundle the cables together, but loose enough to permit the pulling of individual cables within the bundle.
- Adhesive or electrical tape used for bundling cables during installation shall be removed once the cables are in place. This will allow the slack in individual cables to be more easily removed.
- It is preferred that pull string be left in conduits, cable trays and cable hooks to allow for future expansion. Pull string shall be left in places that will be difficult to access in the future.
- Cables that are part of a bundle shall be of uniform length. Uniform cable length is achieved by pulling on individual cables in a bundle after the bundle has been placed in the hooks or raceway and before the cables are terminated.
- Cable bundles shall hang with minimal tension between the hooks. Check cable bundles to verify that individual cables do not have excessive tension, or are supporting the weight of several other cables.
- At vertical to horizontal transitions, cable bundles shall have a uniform loop containing one to three feet of recoverable slack. Additional hooks may be required to support this slack.
- Long vertical runs shall require intermediate strain relief hooks. These hooks shall support the weight of the cable between it and the next strain ¬relief hook. One foot of slack shall be left at each strain relief hook so as to insure proper loading of the hooks. Preferably cable tray will be used.
- Four inches of recoverable slack shall be left at each outlet box.
- Twenty four inches of recoverable slack in each cable shall be neatly bundled and placed in the wire management units located adjacent to the passive rack.
- Slack or extra cable not mentioned in this section is unacceptable and shall be removed prior to termination.
- Patch cables will be neatly dressed in wire managers from the patch panel insert to the electronic switch and telephone patch panel. The upper one-half of a patch panel will have patch cables go directly up to the horizontal wire manager, then right or left to the vertical wire manager, then up or down to the network switch. The lower one-half of the patch panel will have patch cables go directly down to the horizontal wire manager, then right or left to the vertical wire manager, then up or down to the network switch.
- All cables shall be terminated and tested at installation time.
- Twisted Pairs shall not be untwisted more than 0.5 inches, and preferred .025 inches, from the point of termination for Category 6 cable.
- The cable jacket or outer sheath shall be left intact as close to the termination as possible.
- Cables will be neatly dressed with tie wraps at the rear of the patch panel onto Siemon Rear wire managers, but not cinched so tightly as to indent the cable sheaths.
- A Fluke Category 6 tester shall be used to test each cable to Category 6 standards, such as distance, attenuation; NEXT, crosstalk, opens, shorts, pair polarity and connector pin-out.
- Test results will be saved on the tester and then downloaded to the campus network.
- Data will be submitted to Amp Netconnect for the 25-Year Warranty program.
- As-built drawings shall be provided and at minimum shall include cable routes, telecommunication room and outlet locations. Drawings will be given to Facilities Services for entry onto their CADD system.
- Each outlet and patch panel pair of ports shall be clearly labeled in both the telecommunications room and the workstation location with the workstation room number. If there are multiple jacks in a room, the numbering shall include a hyphen suffix designation, such as 232-1, 232-2, and will begin at the main doorway and proceed clockwise around the room. Single jacks in a room shall be labeled with just the room number and will not have a hyphen suffix designation, such as 233, 234. If there are jacks located in the center of the room, after going around the exterior of the room, go up the middle from the main doorway. The label at the outlet will be placed on either the top of the faceplate (if difficult to see the front of the faceplate), or on the top label indentation on the front of the faceplate. Four-plex or greater density jack plates will be labeled as two (or more) jacks rather than one, such as 101-1, 101-2. Each jack consists of 2 cables.
- At the design stage, plans will be made to route the appropriate size indoor telephone backbone cable from the building MDF location to the telecommunications room(s), if they are in different locations. The telephone backbone cable will be installed in conduit unless cable hooks or cable tray is used and will be concealed from public spaces. The telephone backbone cable will be terminated on Category 3 telephone patch panels, with 2-pair (4-conductor) 6-position jacks.
- For each set of 25-pair cable binder-groups and 24 patch-panel ports, the 25th cable pair (violet-slate) shall be terminated on the white-orange positions of the 24th patch-panel port. Thus, all 25 pairs of a telephone cable binder-group will be terminated on the patch panel, and the 24th port of each group will be a 4-conductor connection.
- When workstation outlets are made active for telephone lines, a telephone patch cord (6-conductor flat silver-satin cross-over cable) will be installed between the telephone patch panel(s) and the appropriate Amp Netconnect station cable patch panel port. Determine the appropriate patch cord length and dress it in the cable manager.
- The following telephone patch panels are to be used:
Amp 24 Port 557403-1 Amp 48 Port 557411-1 Amp 96 Port 557415-1
- At the design stage, plans will be made to route backbone cable from the fiber optic building entrance termination location to the telecommunications room. Indoor fiber riser cable will be used and installed in conduit, cable tray, or in innerduct in cable hooks in concealed spaces.
- A determination will be made as to whether multi-mode or single-mode fiber optic cable, or both, will be used. Fiber optic cable will be terminated and tested before the fiber is put into use. Riser cable connections will be made to the fiber optic building entrance location equipment, and in the telecommunications room active rack.
- For both fiber optic outdoor and backbone cabling, Corning brand cable is required, and Corning panels and connectors are required at both the feed location and the terminating location. Termination in a fiber panel in the telecommunications rack is the preferred arrangement.
- Parts used are as follows:
For either indoor multi-mode or single-mode fiber optic cable Corning Fiber Interconnect Center CCH-02U For more than 2 fibers optic cables use the WCH model of rack panel Corning Fiber Panel WCH-04P or 06P Corning Connecting Panels CCH-CP06-25T for multi-mode ST Corning Connecting Panels CCH-CP06-38 for single-mode SC Corning Unicam Connectors – ST 95-000-50 for multi-mode Corning Unicam Connectors – SC 95-000-41 for single-mode For outdoor fiber optic cable, use Buffer Tube Fan-Out Kit if necessary, FAN-BT47-12
- If telephone service will be provided by fiber optic cabling rather than telephone copper cabling, a Nortel Fiber Remote system is installed in the telecommunications room.
- The following Legend and symbols will be used on all telecommunication drawings and plans:
- Facilities Services CADD Manager or contracted architect/engineers will provide CADD drawings showing outlet locations, major cable routing, and telecommunication rooms.
Legend Single voice/data workstation jack with two 4-pair Cat 6 cables in a single gang electrical box. Double voice/data workstation jack with four 4-pair Cat 6 cables mounted in a single gang electrical box. Wall phone jack Cable bundle containing several voice and data cables. Open circle at end of cable bundle designation indicates a horizontal to vertical transition of the cable bundle where cables proceed downwards from the transition. Black dot at end of cable bundle designation indicates a horizontal to vertical transition of the cable bundle where cables proceed upwards from the transition. Arrow at end of cable bundle designation indicates that various cable pairs in the bundle are distributed to voice/data workstation outlets in the areas near the arrows. Telecommunications room where all voice and data cables are terminated.
MSU-Bozeman Information Technology Center
Communication Wiring Design Guidelines
Created: June 20, 2013
Revised: July 15, 2013