

Fiber Optic Network Design using GIS Level02 (FOND2)
Price
$3000
Location
Date
TBA
Feb 2, 2025
About the Course
The Fiber Optic Network Design using GIS – Level 02 course is an advanced program that builds on the foundational knowledge from Level 01. This course focuses on more complex fiber network architectures, in-depth GIS analysis, advanced design principles, and project management. Participants will dive deeper into the practical aspects of using GIS for large-scale fiber deployments, including planning for high-capacity networks such as 5G backhaul and enterprise fiber networks. There is also a focus on automation, cost optimization, and collaboration within GIS platforms.
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1. Review of Fiber Optic Network Design and GIS Fundamentals
Recap of fiber network design basics: FTTH, PON, backhaul, and FTTx
Overview of GIS tools and concepts from Level 01
Advanced GIS data management and integration
Importance of scalability, reliability, and performance in advanced fiber network design
2. Advanced GIS Tools and Techniques for Fiber Design
Advanced GIS data layers: 3D mapping, population density, and land-use planning
Working with high-resolution data and geospatial imagery for precise planning
GIS scripting and automation tools (Python, ModelBuilder)
Hands-on session: Automating routine GIS tasks for fiber network planning
3. High-Density Fiber Networks for 5G Backhaul and Enterprise Solutions
Understanding the requirements for 5G backhaul and its impact on fiber design
Planning high-density networks for large enterprises, data centers, and smart cities
Designing fiber networks with high bandwidth and low latency for 5G
Hands-on session: Designing a 5G fiber backhaul network in a GIS environment
4. Multi-Dwelling Units (MDU) and Dense Urban Area Fiber Design
Challenges of designing fiber networks for MDUs and dense urban areas
Optimizing fiber deployment for apartment buildings, skyscrapers, and business districts
GIS tools for mapping indoor/outdoor transitions, vertical cabling, and shared infrastructure
Hands-on session: GIS-based fiber planning for a complex MDU deployment
5. Network Resilience and Redundancy Planning Using GIS
Designing fiber networks for high availability: redundancy, diverse routing, and failover
GIS analysis for identifying risk factors (natural disasters, construction, urban growth)
Planning backup routes, loop topologies, and ring architectures
Hands-on session: Implementing resilient network designs using GIS tools
6. Cost Optimization Strategies for Fiber Networks
Advanced cost analysis using GIS data: trenching, aerial vs underground, labor, and materials
Route optimization techniques to reduce costs while maintaining performance
Exploring alternative technologies (aerial deployment, microtrenching) using GIS simulations
Hands-on session: Cost optimization scenario using a real-world project
7. Regulatory, Environmental, and Compliance Considerations
Navigating complex regulations for fiber deployment in urban, rural, and protected areas
Using GIS for compliance tracking: environmental zones, ROW permits, and utility regulations
GIS integration with regulatory bodies and automatic compliance checking
Hands-on session: Compliance planning and analysis for a fiber project using GIS
8. Fiber Network Expansion Planning and Forecasting
Planning for future network growth: capacity forecasting, user density analysis
Using GIS to identify new service areas, underserved populations, and market opportunities
Tools for network expansion: automation of fiber placement, resource allocation, and scaling
Hands-on session: Designing an expansion plan for a growing fiber network using GIS
9. Automating Fiber Design and Documentation with GIS
Using GIS for automated fiber routing and network design
Integrating GIS with other design and engineering tools (CAD, Network Inventory Systems)
Automatically generating network diagrams, bill of materials (BOM), and installation documentation
Hands-on session: Automating network design and documentation generation in GIS
10. Advanced Fiber Network Simulation and Analysis
Simulating fiber network performance using GIS: signal degradation, power loss, and latency
GIS tools for testing the impact of network load, traffic patterns, and failure scenarios
Using GIS to simulate real-world scenarios (disaster recovery, demand spikes)
Hands-on session: Running a network performance simulation using GIS tools
11. Collaboration and Project Management in Large-Scale Fiber Deployments
Best practices for managing large fiber projects using GIS-based collaboration platforms
Working with cross-functional teams: contractors, ISPs, government bodies, and utilities
Cloud-based GIS platforms for real-time collaboration, updates, and project tracking
Hands-on session: Collaborating on a large-scale fiber project with multiple stakeholders
12. Advanced Case Studies and Real-World Projects
In-depth case studies of large-scale fiber deployments using GIS
Lessons learned from successful projects in urban, rural, and international settings
Discussing unique challenges and solutions in real-world fiber network designs
13. Capstone Project: Comprehensive Fiber Network Design
Participants will complete a complex fiber network design project, simulating a real-world scenario
Tasks include: route planning, regulatory compliance, cost estimation, performance simulation, and collaboration
Present the final design, complete with GIS maps, documentation, cost analysis, and a project report
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Certification
Exam Preparation: Review of key concepts and practices in preparation for industry certification exams.
Certification Requirements: Understanding the requirements and process for obtaining professional certification.
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Course Prerequisites:
Completion of Level 01 Fiber Optic Network Design using GISÂ or equivalent experience
Familiarity with basic GIS tools and fiber optic network design concepts
Experience with fiber optic technologies and deployment is beneficial but not mandatory
This advanced course equips participants with the skills to design, plan, and manage large, complex fiber optic networks using sophisticated GIS tools and techniques. It is ideal for professionals looking to handle high-demand projects like 5G backhaul, metropolitan fiber networks, or national broadband initiatives.
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