Structured Cabling Course

Lesson 1 • Safety and Regulatory Compliance Basics

Introduces electrical safety, fire codes, and personal protective equipment relevant to cabling work. Establishes non-negotiable safety habits before hands-on practice begins.

Lesson 2 • Structured Cabling System Architecture

Introduces the hierarchical subsystem model from entrance facility to work area. Provides the conceptual map students use throughout all subsequent chapters.

Lesson 3 • Telecommunications Spaces and Pathways

Defines physical spaces where cabling infrastructure is housed and routed. Students learn space planning principles that affect every installation decision.

Lesson 1 • Coaxial and Specialty Copper Media

Introduces coaxial cable types used in broadband, CCTV, and antenna systems alongside specialty copper applications. Expands component selection knowledge beyond twisted-pair.

Lesson 2 • Copper Connectors and Patch Panels

Covers RJ-45 modular plugs, keystone jacks, and patch panel construction for copper systems. Students match connector category to cable category for compliant channel performance.

Lesson 3 • Copper Hardware and Cable Management

Covers patch cords, cable managers, and labeling hardware used in copper distribution frames. Students design organized, maintainable copper termination zones.

Lesson 1 • Fiber Optic Transmission Principles

Explains light propagation, modal bandwidth, and attenuation in optical fiber. Grounds component selection decisions in the physics of fiber transmission.

Lesson 2 • Outside-Plant Fiber Considerations

Addresses aerial, direct-buried, and conduit-routed outside-plant fiber cable and associated hardware. Prepares students for campus and inter-building backbone installations.

Lesson 3 • Fiber Distribution Hardware

Covers fiber distribution units, splice enclosures, and patch panels used to organize and protect fiber terminations. Students design fiber zones that support future moves, adds, and changes.

Lesson 4 • Fiber Optic Connectors and Adapters

Introduces LC, SC, ST, MPO, and other connector types with their polish styles and insertion loss specifications. Students match connector type to equipment interface and performance requirement.

Lesson 1 • Copper Splicing Methods

Introduces gel-filled, heat-shrink, and mechanical splice connectors for copper conductor joining. Students select the appropriate splice method for each application and environment.

Lesson 2 • Modular Plug Termination and Patch Cord Assembly

Teaches field-termination of RJ-45 plugs and fabrication of custom-length patch cords. Students produce patch cords that meet category performance requirements.

Lesson 3 • Keystone Jack and Patch Panel Termination

Covers step-by-step termination of keystone jacks and patch panel ports to T568A/B standards. Students practice until terminations consistently pass channel performance tests.

Lesson 1 • Fiber Preparation and Cleaving

Covers fiber stripping, cleaning, and precision cleaving as prerequisites to any termination or splice. Cleave quality is the single greatest predictor of splice and connector loss.

Lesson 2 • Mechanical Splicing Techniques

Teaches assembly of mechanical splices for single-mode and multimode fiber in field conditions. Students achieve consistent splice loss within acceptable limits without fusion equipment.

Lesson 3 • Fusion Splicing Operations

Introduces fusion splicer setup, arc calibration, and splice cycle execution for both fiber types. Students operate fusion splicers to produce splices with loss below 0.1 dB consistently.

Lesson 4 • Fiber Connector Termination Methods

Covers epoxy/polish, pre-polished mechanical, and pre-terminated pigtail methods for fiber connectors. Students select the fastest compliant method for each job site condition.

Lesson 1 • Installation Sequencing and Crew Coordination

Covers task sequencing, crew role assignment, and coordination with other trades on active job sites. Proper sequencing reduces rework and keeps projects on schedule.

Lesson 2 • Site Survey and Scope Development

Covers structured site survey methodology, obstacle identification, and scope-of-work documentation. A thorough survey prevents costly change orders and installation delays.

Lesson 3 • Reading and Producing Installation Drawings

Teaches interpretation of floor plans, riser diagrams, and rack elevations used in cabling projects. Students produce clear, dimensionally accurate installation drawings from site survey data.

Lesson 4 • Project Closeout and Handover

Addresses punch-list resolution, as-built documentation, test report delivery, and client training at project end. A complete handover package protects the installer and satisfies the client.

Lesson 1 • Fiber Optic Loss Testing

Teaches OLTS setup, reference methods, and bidirectional loss measurement for fiber links. Students apply the correct reference method to obtain accurate insertion loss results.

Lesson 2 • Copper Test Parameters and Diagnostics

Explains NEXT, FEXT, return loss, insertion loss, and propagation delay as copper performance metrics. Students use diagnostic plots to locate and identify specific fault types.

Lesson 3 • Copper Channel and Permanent Link Testing

Covers field tester setup, test limit selection, and execution of channel and permanent link tests. Students distinguish between channel and permanent link configurations and their respective limits.

Lesson 4 • Optical Time-Domain Reflectometry

Introduces OTDR operation, trace interpretation, and event identification for fiber link characterization. Students use OTDR data to locate splices, connectors, and faults along a fiber span.

Lesson 1 • Data Center Cabling Architecture

Addresses top-of-rack, end-of-row, and middle-of-row cabling architectures and structured cabling within data center white space. Students select the optimal architecture for a given data center design.

Lesson 2 • High-Speed Copper and 25G/40G Applications

Covers Cat 8 cabling, shielded channel requirements, and alien crosstalk mitigation for 25GBASE-T and 40GBASE-T. Students design copper channels that support current and near-future speeds.

Lesson 3 • Single-Mode Fiber for High-Density Campuses

Introduces OS2 single-mode fiber applications, wavelength-division multiplexing, and ultra-low-loss connector requirements. Students design single-mode backbone systems for large campus environments.

Lesson 4 • Intelligent Infrastructure and DCIM Integration

Covers automated infrastructure management systems, intelligent patch panels, and integration with data center infrastructure management platforms. Students configure AIM systems for real-time connectivity tracking.