Fibre Optic Splicing Technician Course

Lesson 1 • Fibre Types and Specifications

Differentiates single-mode and multimode fibre by core diameter, bandwidth, and application. Provides the classification knowledge needed for splice selection.

Lesson 2 • Principles of Light Transmission

Covers total internal reflection, refractive index, and numerical aperture as they apply to fibre optics. Connects optical physics to practical signal behaviour in cables.

Lesson 3 • Cable Construction and Design

Examines loose-tube, tight-buffered, and ribbon cable architectures and their protective elements. Prepares technicians to handle cables correctly before splicing.

Lesson 1 • Splicing Workspace Setup

Defines cleanliness, lighting, and organisation standards for a productive splice environment. Directly impacts splice quality and repeatability.

Lesson 2 • Fibre Optic Safety Hazards

Identifies laser radiation, glass shard ingestion, and chemical exposure as primary hazards. Establishes the safety mindset required before any hands-on work begins.

Lesson 3 • Essential Splicing Tools Overview

Surveys stripping tools, cleavers, fusion splicers, and OTDRs at an introductory level. Prepares students to recognise and handle equipment covered in later chapters.

Lesson 1 • Precision Fibre Cleaving

Explains cleaver mechanics, blade angle, and tension settings to achieve flat, perpendicular end-faces. Cleave angle directly determines fusion splice loss.

Lesson 2 • Fibre Cleaning Methods

Covers dry, wet, and combination cleaning protocols to remove contamination from bare fibre. Clean fibre is mandatory before cleaving and splicing.

Lesson 3 • Cable and Buffer Stripping

Teaches controlled removal of outer jacket, buffer, and coating without nicking the fibre. Errors here cause downstream splice failures and must be mastered first.

Lesson 1 • Fusion Splicer Setup and Calibration

Covers powering on, electrode conditioning, arc calibration, and splice programme selection. Correct setup prevents systematic splice errors across an entire job.

Lesson 2 • Fibre Loading and Alignment

Demonstrates correct fibre placement in V-grooves and alignment verification using splicer cameras. Misalignment is the primary cause of elevated splice loss.

Lesson 3 • Common Fusion Splice Defects

Identifies bubbles, fat splices, thin splices, and offset defects through splicer imagery. Defect recognition enables immediate corrective action in the field.

Lesson 4 • Arc Fusion and Splice Execution

Walks through the prefuse, align, and fuse sequence and interprets real-time splicer feedback. Students practise until splice loss estimates are consistently low.

Lesson 1 • Testing Mechanical Splice Performance

Measures insertion loss and return loss of completed mechanical splices using power meters. Confirms whether the splice meets the link budget requirements.

Lesson 2 • Mechanical Splice Assembly Procedure

Guides step-by-step assembly of common mechanical splice types using prepared fibre ends. Emphasises consistent technique to minimise insertion loss.

Lesson 3 • Mechanical Splice Principles

Explains index-matching gel, fibre alignment channels, and clamping mechanisms in mechanical splices. Contrasts performance and cost trade-offs with fusion splicing.

Lesson 1 • Splice Tray Organisation

Demonstrates fibre routing, bend radius management, and splice placement within trays. Organised trays enable fast identification and re-entry during maintenance.

Lesson 2 • Cable Strain Relief and Anchoring

Secures cables at enclosure entry points to prevent tensile stress from reaching splices. Proper anchoring is critical for aerial, buried, and duct-installed cables.

Lesson 3 • Enclosure Sealing and Weatherproofing

Applies gaskets, gel seals, and mechanical closures to achieve rated environmental protection. Sealing failures are the most common cause of moisture-related splice degradation.

Lesson 4 • Splice Enclosure Types and Selection

Compares dome, inline, and wall-mount enclosures by application, capacity, and environmental rating. Correct enclosure selection prevents premature field failures.

Lesson 1 • OTDR Principles and Setup

Explains backscatter, Fresnel reflection, and dead zones to build OTDR interpretation skills. Correct setup parameters prevent misdiagnosis of splice and connector events.

Lesson 2 • Optical Power Meter and Light Source Testing

Performs end-to-end insertion loss testing using a stabilised light source and power meter pair. Establishes baseline link loss before OTDR analysis.

Lesson 3 • Test Documentation and Reporting

Produces OTDR trace files, loss tables, and summary reports meeting project specifications. Proper documentation supports acceptance testing and future maintenance.

Lesson 4 • Troubleshooting with Test Equipment

Uses OTDR and power meter data together to isolate high-loss splices and cable faults. Combines multiple test methods for definitive fault location.

Lesson 1 • Live-Network Restoration Procedures

Executes emergency splice restoration on in-service cables with minimal traffic disruption. Prioritisation, speed, and coordination with network operations are critical.

Lesson 2 • Aerial and Underground Splicing

Addresses environmental, access, and safety challenges specific to aerial lashing and direct-buried work. Field conditions require adapted workflows and enclosure choices.

Lesson 3 • Capstone Field Simulation Exercise

Completes an end-to-end splicing project from cable preparation through OTDR-verified acceptance. Integrates all course competencies in a timed, evaluated scenario.

Lesson 4 • Ribbon Fibre Mass Fusion Splicing

Operates mass fusion splicers to splice 12- and 24-fibre ribbon arrays simultaneously. Ribbon splicing dramatically increases throughput in high-count cable installations.