SCTE ISBE Broadband Fiber Installer (BFI)

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SCTE ISBE Scope The SCTE ISBE Broadband Fiber Installer certification describes the knowledge of a technician who will plan, install, verify, and troubleshoot fiber networks, including service issues at the customer s premises. The successful certification candidate has the knowledge to support the distinct types of radio frequency over glass (RFoG) and passive optical networks (PON), along with preparing fiber for connectivity. The certification builds on the knowledge gain from the Broadband Premises Installer (BPI) and/or Broadband Premises Technician (BPT) certification. I. Technology, Systems & Requirements Competency A Recognize fiber optic network configuration and understand how optical signals flow from a fiber deep or optical distribution network (ODN) to the premises. Knowledge, Skills, and Abilities 1. Define fiber deep a. Near passive optical network (PON) b. Node + 0 2. Contrast fiber deep architecture with an HFC 3. Define optical distribution network (ODN) a. Define passive optical network (PON) 4. Contrast ODN architecture with an HFC a. Centralized split architecture b. Distributed split architecture c. Distributed tap architecture 5. Distributed access architecture (DAA) a. Remote PHY b. Remote MAC 6. Define in basic terms optical signal levels a. Minimum optical signal levels at the customer premises test point locations b. Examples of expected optical signal levels at customer premises test point locations i ii Page 1 of 14 Optical signal faults and limitations Comparison of optical and coaxial signals

iii Optical transmission loss B Recognize fiber to the x (FTTx) network configuration and understand how optical signals flow from the optical distribution network (ODN) to the premises. C Understand basic digital signal characteristics and how digital signals are used in optical distribution network (ODN). 1. Fiber to the x (FTTx) a. FTTH or FTTP b. FTTN c. FTTMDU d. FTTC e. FTTB 1. Basics of digital signals a. Define in basic terms digital b. Digital signal levels i Knowledge of expected signal levels at customer premises test point locations 2. Digital modulation a. Define in basic terms baseband digital modulation b. Digital multiplexing i Multiple video programs in 6 MHz or 8 MHz bandwidth c. Contrast with AIM d. Describe two-way signal flow D Recognize the components of a fiber deep architecture, distributed access architecture (DAA), optical distribution network (ODN). Page 2 of 14 1. Define fiber deep, DAA and ODN components: a. Telecom center (headend, hub) i Optical transmitter (a) FP ii (b) DFB Optical receiver (a) FP (b) DFB (c) Photodiode iii Optical amplifier (a) EDFA (b) YEDFA iv Optical multiplexer v Optical de-multiplexer vi Optical line terminal (OLT) b. Optical transport network (OTN) c. Fiber deep

i Multiplexing point (a) Aerial enclosure (b) Node chassis d. ODN i Fiber distribution cabinet (FDC) ii Aerial enclosure iii Fiber pedestal e. DAA i Node chassis f. Customer s premises i R-ONU (RFoG) ii ONU (EPON) iii ONT (GPON) 2. Describe the purpose and function of the following network devices: a. Passive devices i Optical Taps (a) Tap function (b) Tap configuration (c) Troubleshooting the tap ii Optical splitters iii Optical couplers iv Splice trays v Splice enclosures vi Line power inserters (LPI) (a) Shunts vii Traps b. Active devices i Optical amplifiers (a) EDFA (i) Wavelength (ii) Gain 3. Define in basic terms the following optical system wavelength allocations: a. Nanometers (nm) b. Reverse i Frequency (a) Mid-split ii Wavelengths iii Shared wavelengths c. Forward i Frequency (a) Mid-split i Wavelengths ii Shared wavelengths iii Spectrum allocation (analog, digital, SDV, VoD, HSD, Channel bonding, DOCSIS 3.1) Page 3 of 14

E Understand fiber network powering. 1. Traditional access network powering a. Recognize the symbols and letters that represent electrical units a. Voltage levels b. Centralized c. Distributed 2. Fiber deep powering 3. DAA powering 4. ODN powering Page 4 of 14

II. Fiber Optic Theory A Describe the characteristics and properties of optical fiber and cables used within the drop system of the telecommunications network. 1. Define the following optical drop cable physical, intrinsic and extrinsic properties: a. Describe the components of an optical link b. Wavelength vs. frequency characteristics i. Electromagnetic spectrum ii. Index of refraction c. Describe optical drop cable construction i List the physical fiber drop cable components: (a) Core (b) Cladding (c) Coating (d) Strength member (e) Armor (f) Jacket (g) Buffer tube (h) Aramid yard (i) Rip cord (j) Color code (i) EIA/TIA-598 color identifiers ii Contrast the difference between aerial and underground drop cable d. List typical fiber drop cable sizes (by diameter) i TBD e. Cables i. Fiber bundles ii. Loose tube 1. Central 2. Stranded iii. Tight buffer iv. Ribbon fiber 1. Stacked f. Describe fiber cable attenuation properties: i Define in basic terms dbm ii Define in basic terms mw iii Define in basic terms attenuation iv Explain the effect cable length has on fiber cable v Calculate optical cable attenuation 2. Describe in basic terms the following optical fiber properties: a. Define mode and optical fiber types: Page 5 of 14

B Recognize the extrinsic and intrinsic factors that create or influence optical fiber losses. C Describe the types of wave division multiplexing (WDM) used in a telecommunications network. D Recognize the types of fiber connectors used in a cable operator s fiber network. i Multimode ii Single-mode 1. Define intrinsic a. Impurities b. Absorption c. Scattering d. Dispersion e. Reflection i RIN ii Fresnel f. ORL 2. Define extrinsic a. Microbends b. Macrobends i Bending limits c. Fiber alignment a. Define wave division multiplexing (WDM) i Wave division ii Effects on optical signal iii Applications iv Calculate optical attenuation b. Define DWDM i ITU Grids & Channels c. Define CWDM i Grid and Channels 1. Identify the fiber connectors used at the premises, along with the connector s insertion loss, reflectance and durability a. APC i SC b. UPC i LC ii SC c. ST d. MTRJ e. FC f. MPO 2. Contrast the pros and cons for the different types of connector polishes used in a fiber network a. Flat (True) polish b. FC Flat polish c. PC polish d. Super polish Page 6 of 14

III. Installation Competency A. Compare the fiber prep tools, cleaners and splicing equipment used in an FTTP architecture. B Recognize the use and function of customer premises optical devices. C Recognize the types of optical cables used within the drop system; describe proper handling techniques. Knowledge, Skills, and Abilities 1. Demonstrate proper cleaning of fiber optics a. Wet Cleaning i Solvent wipes ii Isopropyl alcohol b. Dry Cleaning i Lint free wipes ii Tape wipes c. Wet to Dry 2. Tools a. Fiber optic stripper b. Scissors or shears c. Tweezers d. Wire stripper e. Jacket stripper 1. Radio frequency over glass (RFoG) a. Identify all connectivity ports i RF ii Optical SC/APC iii Optical pass-thru b. Understand power configuration c. LED operation d. Identify operating frequency i DOCSIS 3.1 ii MoCA 2.5 e. Wavelengths used 2. Ethernet passive optical network (EPON) a. Identify all connectivity ports i Twisted Pair ii Optical b. Understand power configuration c. LED operation d. Wavelengths used e. IPTV 3. Gigabit passive optical network (GPON) a. Identify all connectivity ports i Optical b. Understand power configuration c. LED operation d. Wavelengths used e. IPTV 1. Differentiate between the fiber cable types: a. Underground b. Aerial messenger c. National Electrical Code (NEC) classification Page 7 of 14

D Recognize the function and use of interfaces and terminations within the customer s premises. E Recognize the proper steps for stripping and cleaning a fiber. B Recognize the proper steps for performing a splice. 2. Demonstrate use of the correct cable type for various customer installations 3. Demonstrate proper cable handling techniques: a. Minimum bend radius b. Drip loops c. Structural considerations i Fastening ii Attachments d. Describe the impact of improper handling techniques e. Describe the impact of improper fastening techniques f. Describe fiber drop fundamentals 4. Understand the types of optical drop cables and components at the premises 5. Understand the types of optical connectors used at the premises 6. Explain the purpose and need of security shields and demonstrate installation and removal 7. Explain fiber drop cable preparation 8. Describe the following equipment interfaces and explain any unique characteristics: a. Waterproofing i Silicone grease ii Aqua seals/rubber gaskets b. Fiber splices/connectors i Fusion (a) LID (b) PAS (c) Ribbon ii Mechanical iii Air gaps c. Fiber handling i Safety 1. Safety 2. Describe the proper stripping process a. Strip the jacket b. Strip the coating 2. Describe the proper cleaving process a. Hand cleaving b. Bench tool cleaving 3. Fiber inspection 1. Safety 2. Mechanical a. Describe the proper process for performing a mechanical splice b. Index matching gel c. Loss inspection 3. Fusion Page 8 of 14

C Recognize the basic methods and procedures of planning and installing aerial optical drop cable at the customer s premises. D Recognize the basic methods and procedures of planning and installing underground optical drop cable at the customer s premises. E Recognize the basic methods and procedures of attaching the optical drop cable at the tap. F Recognize the methods and procedures of installing exterior wire and cable at the customer s premises. G Demonstrate optical cable and/or ONT/ONU/R-ONU bonding practices at the customer s premises. a. Describe the proper process for performing a fusion splice b. Heat-shrink sleeve c. RTV sealant d. Loss inspection 4. Splice on Connectors 1. Explain each of the following considerations regarding aerial drop cable routing techniques during aerial drop installation: 2. Demonstrate proper pole attachments. 3. Explain each of the following pole or strand attachments when routing the drop cable from the pole: 4. Define aerial trespass and explain how and why it should be avoided. 1. Describe underground cable layout, and how to locate, identify, open, and inspect a pedestal 2. Explain the purpose of using a utility location service. 3. Explain the following placement methods used to bury the underground drop cable: 4. Explain each of the following considerations regarding underground drop cable routing techniques: 1. Define tap and each of the following as applicable to the tap; explain purpose and installation method for each of the following: 2. Describe how to inspect the tap and its associated equipment a. Measure signal levels 1. Demonstrate the ability to perform a optical cable house attachment in a typical cable television system. a. Demonstrate proper house attachment procedures b. Explain drop cable routing at the house c. Knowledge of the codes governing attachments to electrical masts 1. Explain the purpose and function of the grounding electrode system. 2. Identify the proper locations for bonding the residential cable television drop cable 3. Describe the following: a. Bonding blocks b. Ground (bonding) wire i Drop attachment ii Ground electrode attachment 4. Demonstrate the proper bonding techniques in the following circumstances: a. Single family homes Page 9 of 14

H Recognize the methods and procedures of ONT/ONU/R- ONU attachment at the customer s premises. b. Mobile homes c. Multiple dwelling units (MDUs) 1. Explain how to perform an attachment at a multiple dwelling unit (MDU) 2. Explain how to perform an attachment at a residential location 3. Explain how to perform an attachment at a business location a. Describe the procedures for performing a disconnect Page 10 of 14

IV. Troubleshooting and Maintenance Competency A Recognize the function, use, care, and maintenance of test equipment. B Recognize the metrics used for optical network health. C Recognize and understand the divide and conquer (isolation) method of troubleshooting. Knowledge, Skills, and Abilities 1. Demonstrate proper use of a video fiber scope a. Inspection process i Proactive ii Reactive b. Define end face zones c. Explain metrics for each zone 2. PON Power Meter a. Defined b. Applications 3. OTDR a. Defined b. Operation i Dead zone 4. Visual fault locator (VFL) a. Defined 5. Reference cable modem a. Defined 6. Optical spectrum analyzer (OSA) a. Defined 1. Attenuation a. Optical power related to RF power 2. MER 3. BER a. Pre BER b. Post BER c. Errored seconds 4. PNM 5. Return noise from premises 6. OMI 1. Explain the steps in the troubleshooting process: a. Symptom analysis i Verify problem symptoms with customer b. Problem isolation c. Divide and conquer d. Problem resolution/repair e. Confirm problem resolution/repair 2. Diagnose equipment problems: a. Identify signal issues b. Interpret premises signal level readings (too high; too low) c. List the procedures for troubleshooting the set-top box and interactive program guide (IPG) 3. Ability to troubleshoot forward and return path 1. Physical layer Page 11 of 14

D Recognize the troubleshooting areas of the OSI model. E Understand the PON provisioning process F Troubleshoot HSD G Troubleshoot VoIP H Troubleshoot Video I Understand how to conduction the following measurements 2. Data link layer 3. Network Layer 4. Transport Layer 5. Session Layer 6. Presentation Layer 7. Application Layer 1. Define provisioning a. Back-office b. OSS i Servers 2. List the provisioning steps a. DML i Virtual CM b. RFoG DOCSIS c. DPoE d. DPoG 1. Ability to troubleshoot a HSD service in an optical network 1. Ability to troubleshoot a VoIP service in an optical network 1. Ability to troubleshoot a video service in an optical network 1. OTDR a. Launch b. Dynamic range c. Splice d. Attenuation e. Bad splice f. Macrobend g. Isolating shorts h. Identifying opens i. Fiber identification j. Distance 2. PON power meter a. Optical power levels b. Demonstrate proper use of an optical power meter Page 12 of 14

V. Standards Competency A Recognize the regulatory agencies and/or standards that govern practices for providing fiber services to the customer s premises. Knowledge, Skills, and Abilities 1. Identify the regulatory agencies that govern fiber optic technology: a. IEEE b. SCTE c. ITU d. IEC Page 13 of 14

VI. Safety Competency A Recognize the industry standard safe work practices, for personal protective equipment (PPE) and other job-related safety. Knowledge, Skills, and Abilities 1. Knowledge of Occupational Safety and Health Act of 1970 2. Describe the eye protection used during fiber optic installation work a. ANSI rating b. Eye exposure i EDFA ii Laser 3. Describe hardhats used during installation and service work; explain the minimum industryadopted rating: a. ANSI rating 4. Describe voltage testers used during installation and service work; explain use and maintenance. a. Foreign voltage detector 5. Fiber scraps 6. Chemicals Page 14 of 14