GIS and Gas Pipelines

Cables and Pipes

In this course, you will learn how the gas pipeline network is structured and how geographic information systems (GIS) are used within the gas infrastructure. You will discover how to apply this technology to help build a smarter, safer, and future-proof gas network.

Course duration: 2 days

Taught by:

Ad van Gils

GIS and the Gas Pipeline Network

Prior knowledge of the topics covered in the Intro to GIS and Energy course is highly recommended.

GIS (Geographic Information System) plays an increasingly important role within the gas sector. From managing underground pipelines and pressure stations to planning expansions and minimizing risks such as leaks or pressure fluctuations—GIS provides insights that make gas networks smarter, safer, and more future-proof.

Geodata enables network operators to make faster and more reliable decisions. Whether it involves locating defects, determining optimal pipeline routes, or analyzing capacity and pressure zones, GIS provides the tools to keep the gas network stable, safe, and efficient.

In this course, you’ll learn how GIS is used within the gas pipeline network and how to apply this technology to contribute to a smarter, more resilient, and more sustainable gas network.

What will you learn in this course about GIS and gas pipelines?

In this course, you’ll discover how GIS technology is used to manage, expand, and optimize gas networks. You’ll learn both the theoretical foundations and the practical application of GIS within the gas infrastructure.

What to expect:

GIS in the gas sector – Learn how geodata is used to map and manage pipelines, pressure stations, regulating stations, and valves.
GIS tools and software for network management – Get acquainted with commonly used GIS platforms and discover how they are deployed by gas network operators.
Application of GIS in route planning and maintenance – Discover how GIS helps identify bottlenecks, risks, and maintenance priorities.
Capacity and safety analyses – Learn how GIS supports pressure calculations, risk modeling, and improving operational reliability.

This course will equip you with immediately applicable knowledge to effectively use GIS within the gas sector. Whether you work in network management, route development, or capacity analysis, you’ll learn how GIS helps you make better-informed decisions.

Why choose this GIS and Gas course?

There are many ways to delve into GIS, but this course stands out due to its strong focus on practical applications within gas networks. Both beginners and professionals will build valuable, immediately applicable skills here.

What makes this course unique?

  • Realistic practical scenarios – Theory is combined with case studies from the gas sector, so you immediately see how GIS is used in management and expansion projects.
  • Lessons from experts in GIS and network management – The instructors have extensive experience in geoinformation, underground infrastructure, and gas transmission & distribution.
  • Immediately applicable knowledge – You’ll learn how GIS is used for pressure zones, asset management, maintenance planning, and gas pipeline optimization.

This course is perfect for professionals who want to use GIS to make smarter, safer, and future-proof decisions within the gas network.

The basics of GIS for gas pipeline networks

GIS is much more than a mapping system: it is a powerful tool for visualizing complex underground pipeline networks. Network operators use GIS to make more accurate decisions and better plan future expansions and maintenance.

How is GIS used for gas pipelines?

  • Spatial analyses for fault and risk management – GIS identifies vulnerable pipeline segments, potential leakage zones, and high-risk areas.
  • Smart use of geodata for route planning – GIS helps determine safe, efficient, and cost-effective routes for new gas pipelines.
  • GIS and asset management – From regional transmission pipelines to distribution pipelines and valves: GIS makes monitoring, inspection, and maintenance more transparent.
  • Faster fault detection and maintenance prioritization – By linking GIS with sensor data and pressure measurements, anomalies can be detected and resolved more quickly.

With these basic principles, you can use GIS to create a more stable, safer, and future-proof gas network.

The importance of GIS in the expansion of the gas pipeline network?

The role of gas is changing due to the energy transition, sustainability efforts, and the potential use of green gas and hydrogen. This increases the need to modernize, rebuild, and adapt gas networks to accommodate future energy sources. GIS plays a crucial role in this by supporting network operators with planning, risk analysis, and capacity assessments.

How GIS contributes to expansion and modernization:

  • Capacity planning and network reinforcement – Analyze where pipelines or stations need to be expanded, replaced, or modified.
  • Optimization of pipeline routes – GIS combines geographic, technical, and environmental data to determine the best routes.
  • Support for the integration of green gas and hydrogen – GIS helps assess integration possibilities and grid impact.
  • Minimizing environmental impact – GIS makes it possible to account for soil conditions, existing structures, permitting requirements, and safety zones.

Smart gas networks and the role of GIS

The energy transition calls for flexible and smart gas networks. Modern networks use GIS to provide real-time insights, optimize pressure zones, and detect anomalies more quickly. GIS is thus an essential building block of future-oriented network management.

How GIS supports smart gas grids:

  • Real-time monitoring and incident management – GIS helps locate pressure drops, leaks, and abnormal patterns more quickly.
  • Supply and demand management – By combining geodata with consumption and production profiles, network operators can better respond to fluctuations.
  • Integration of decentralized feed-in – GIS shows where green gas or hydrogen can be safely and efficiently fed into the grid.

GIS software and practical applications

The right software is essential for effective GIS use in the gas sector. The main platforms support visualization, fault logging, capacity assessment, and asset management.

  • ArcGIS, SmallWorld, and QGIS – Commonly used tools for analyzing and managing pipeline networks and critical assets.
  • Real-time monitoring with GIS – Systems that help network operators quickly detect anomalies and optimize operational processes.

Enroll

€ 1195,- (VAT included)
  • Course duration: 2 days
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Dagindeling

Day 1 – Basics, GIS Network Structure, and Gas

Introduction to Gas Networks
  • Structure of the gas pipeline network (low, medium, and high pressure)
  • Key network components: pipes, valves, regulating stations, metering and mixing stations, pressure-reducing stations
  • Legal and technical requirements (safety zones, NEN standards, inspection and maintenance guidelines)
Basics of GIS for gas pipelines
  • What is GIS and why is it essential for gas network management
  • Data layers, map projections, topology
  • Visualizing pipelines, assets, and network components
GIS tools and software
  • Working with ArcGIS, QGIS, and SmallWorld
  • Importing, managing, and analyzing network data
  • Standard workflows of gas network operators (change management, pipeline registration, fault investigation)
Analysis and data processing
  • Mapping pipeline routes and assets
  • Interpreting geodata and network documentation (P&IDs, pipeline records, soil information)
  • Basic spatial analyses (buffering, intersections, thematic maps)
Safety and risk assessment using GIS
  • Identifying vulnerable pipeline segments (corrosion risk, aging, pressure zones)
  • Site analysis for risk areas (leakage risk, soil conditions, excavation damage)
  • Use of GIS models for preliminary risk calculations

Day 2 – Application, route planning & advanced analyses

Route Design Using GIS
  • Determining optimal routes for new power lines
  • Considerations: soil data, buildings, ecology, permits
  • Practical exercise: designing a cable route
Capacity analysis and grid expansion
  • Using GIS for load and capacity planning
  • Visualizing bottlenecks and future expansion needs
  • GIS for the integration of solar and wind farms
Asset management and maintenance planning
  • Asset registration and lifecycle management in GIS
  • Linking fault and inspection data to geographic maps
  • Prioritizing maintenance based on risk and impact
Smart grids & real-time GIS
  • GIS in smart power grids
  • Real-time monitoring, fault detection, and data integration
  • Examples of GIS-driven smart grid solutions
Practical cases & final assignment
  • Development of a realistic grid management case
  • Integration of all topics covered
  • Discussion of results and best practices
Course duration: 2 dagen
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Leerdoelen

  • Mapping Underground Gas Infrastructure
  • You can accurately visualize and analyze gas pipelines, valves, pressure stations, control stations, and other network components using GIS.
  • Conducting spatial analyses for safety, capacity, and risk assessment
  • You will learn to identify bottlenecks, pressure risks, vulnerable pipeline segments, and situations prone to potential failures or leaks using geodata and analytical models.
  • Apply GIS for route design and network expansion
  • You will be able to determine optimal routes for new gas pipelines based on environmental factors, soil data, regulations, safety zones, and technical constraints.
  • Supporting maintenance planning and asset management with GIS
  • You will discover how GIS is used to prioritize maintenance, predict defects, and monitor assets such as pipelines, stations, valves, and pressure regulators throughout their lifecycle.
  • Use of GIS software and tools in gas network management
  • You will be able to work with commonly used GIS platforms (such as ArcGIS, QGIS, or SmallWorld) and understand which functionalities are relevant for gas network management.
  • Using GIS for gas network modernization (green gas, hydrogen, pressure optimization, smart gas grids)
  • You will learn how GIS is used to integrate sustainable gases, assess network capacity and pressure zones, and support smart gas networks.

Want to know more?

Do you have questions about the course content? Or are you unsure whether the course aligns with your learning goals or preferences? Would you prefer an in-house or private course? We’d be happy to help.

FAQs About GIS and Gas

GIS combines pipeline data, measurement values, and environmental information to quickly pinpoint anomalies. By linking pressure and flow data to geographic maps, potential leaks or high-risk pipeline segments can be identified and addressed more quickly.

The course covers ArcGIS, QGIS, and GE SmallWorld, among other topics. You will learn how to use these tools to visualize pipeline networks, conduct risk analyses, plan maintenance, and develop new routes.

Once the project is complete, you can manage pipes, valves, pressure regulators, and other assets via GIS, prioritize malfunctions, analyze lifecycle information, and support maintenance plans with spatial data.

Yes. The course demonstrates how GIS is used to assess locations for green gas injection or hydrogen blending, analyze the impact on pipeline capacity, and determine which parts of the network are suitable for future energy sources.