
This course teaches ftth fiber network planning using AutoCAD and QGIS, from site previews and calculation points to quantities, costs, and maintenance in Egypt's telecom field.
Trace the path from the central office to the customer's terminal box, covering OLT ports in GPON, feeder to distribution cables, 4-core to 288-core cables, color-coded fibers, and splicing.
Learn to design fiber bundles for underground microduct networks, including primary and secondary bundles, 4-way, 7-way, 12-way, and 24-way capacities, connectors, and end caps, with routing sketches in AutoCAD.
The odf organizes splices with a splice tray and outputs patch connectors. 36-core and 144-core odfs occupy 3u and 4u and fit in cabinets or manholes and handholes.
Plan and configure a 22u FTTH cabinet to route 120 fiber strands from a 144-core input through 144-core ODF, 36-core ODF, and 1:8 splitters to 30 terminal boxes.
Analyze how terminal boxes and cabinet splitters achieve target splitting ratios. See how 1:8 and 1:4 in cabinets combine to reach 1:64 from the central office to the customer.
Install AutoCAD via Autodesk with a university email for a 1–2 year license, and download QGIS from the site. Then join a step-by-step session to build a project from scratch.
Learn ftth network planning with AutoCAD and QGIS by modeling buildings, placing 1:4, 1:8, 1:16, and 1:64 boxes, and routing fiber bundles while considering trenches.
Learn to plan FTTH network routes in AutoCAD by locking layers, counting 1:8 boxes with BCOUNT, and drawing 24-way and 7-way bundles with arcs, fillets, and joins.
Advance ftth network planning by labeling terminal boxes and bundles and routing 24-way and 7-way main bundles with drops. Automate cabinet and box numbering using the num lisp via appload.
Model the FTTH cabinet layout in AutoCAD, add data for boxes, bundles, and cables, and compute lengths and quantities using dist, lisp, bcount, and tcount.
Plot the cabinet location using Google Earth coordinates, then design the electrical layout in AutoCAD and QGIS with riser diagrams, splitters, ports, and cable data.
Master QGIS onboarding, install and use QuickMapServices, load OSM and ESRI layers, create box points, building polygons, and cables with attribute tables, and compare to AutoCAD's data entry.
Learn to populate QGIS layers for FTTH planning by creating fields (type, x, y), assigning types (4, 8, 16), enabling editing, applying categorized symbology, and importing data as delimited text.
Extract buildings and roads automatically in QGIS with QuickOSM, clip to a defined area, and export to DXF/DWG for AutoCAD, with options to save as shapefile.
Open AutoCAD files in QGIS and export back, by setting UTM coordinates, aligning points with a reference cabinet, and converting between DXF formats for seamless GIS integration.
Explain ftth cabling with 24-way cables, boxes, gates, and connectors, compare overhead street installation to wall routing, and discuss cost savings and installation considerations.
This course teaches you how to design Fiber-to-the-Home (FTTH) networks using QGIS and AutoCAD.
You will learn fiber optic network planning, outside plant (OSP) design, routing, cabinets, splitters, and real-world FTTH workflows.
The course is designed for telecom engineers, GIS engineers, and anyone interested in fiber network design.
In this course, you will start by understanding the fundamentals of FTTH network architecture, including feeder, distribution, and drop network concepts. You will learn how to analyze service areas, prepare GIS data, and organize spatial layers for efficient fiber planning.
The course provides hands-on training using QGIS to perform clustering, centroid generation, and shortest path routing based on real road networks. You will learn how to design optimized fiber routes, calculate distances, and prepare network layouts suitable for real deployment scenarios. Practical workflows are explained step by step, focusing on automation and accuracy.
Using AutoCAD, you will learn how to prepare clean and professional fiber network drawings, including ducts, handholes, cabinets, and fiber routes. The course also covers essential design considerations such as splitter placement, cabinet sizing, and network scalability.
This course is based on real telecom projects and industry practices, making it ideal for engineers who want practical skills rather than theory only. By the end of the course, you will be able to design complete FTTH networks from scratch and apply these skills in real-world telecom projects, consultancy work, or professional network planning roles.