GIS for Urban Service Mapping Training Course

Advanced Urban Planning and Development

GIS for Urban Service Mapping Training Course provides practical and advanced skills for using Geographic Information Systems (GIS), spatial data analytics, remote sensing, and digital mapping technologies to assess, visualize, and manage urban services.

Course Overview

 GIS for Urban Service Mapping Training Course 

Introduction 

GIS for Urban Service Mapping Training Course provides practical and advanced skills for using Geographic Information Systems (GIS), spatial data analytics, remote sensing, and digital mapping technologies to assess, visualize, and manage urban services. The course focuses on urban service mapping for water supply, sanitation, drainage, roads, transport, waste management, electricity, healthcare, education, public safety, parks, and other essential infrastructure. Participants will develop competencies in geospatial data collection, spatial analysis, database management, map production, service accessibility analysis, network analysis, and urban spatial planning, enabling evidence-based decision-making and more efficient allocation of municipal resources. 

The training integrates modern GIS workflows, GPS and mobile data collection, satellite imagery, OpenStreetMap, spatial databases, geocoding, web mapping, and geospatial visualization to support smart cities and sustainable urban development. Through practical exercises and global case studies, participants will learn how to identify service gaps, analyze spatial inequalities, prioritize infrastructure investments, and communicate findings through professional thematic maps and interactive dashboards. The course also supports Sustainable Development Goals, climate-resilient urban planning, digital transformation, inclusive service delivery, and data-driven municipal governance. 

Course Objectives 

By the end of the course, participants will be able to: 

  1. Apply GIS principles to urban service mapping and spatial planning. 
  2. Develop accurate geospatial datasets for urban infrastructure and public services. 
  3. Use GPS, mobile GIS, and field-survey technologies for data collection. 
  4. Perform spatial analysis to identify urban service coverage and accessibility gaps. 
  5. Create professional thematic maps and geospatial visualizations. 
  6. Apply network analysis to roads, transport, utilities, and emergency services. 
  7. Integrate remote sensing and satellite imagery into urban mapping workflows. 
  8. Manage urban spatial databases using modern GIS technologies. 
  9. Analyze spatial inequality and service accessibility across urban communities. 
  10. Develop GIS-based decision-support tools for municipal planning. 
  11. Apply web GIS and interactive dashboards for urban service monitoring. 
  12. Support smart-city development, climate resilience, and sustainable urban management. 
  13. Communicate GIS findings effectively to planners, policymakers, engineers, and communities. 


Organizational Benefits
 

  1. Improved urban infrastructure planning and asset management. 
  2. Faster identification of service delivery gaps and underserved areas. 
  3. Better allocation and prioritization of municipal resources. 
  4. Improved spatial data management and institutional knowledge. 
  5. Enhanced monitoring of urban infrastructure projects. 
  6. Stronger evidence-based planning and decision-making. 
  7. Improved coordination between municipal departments and service providers. 
  8. Enhanced emergency response and disaster preparedness. 
  9. Greater support for sustainable and climate-resilient urban development. 
  10. Improved transparency through accessible maps, dashboards, and spatial information. 


Target Audiences
 

  1. Urban planners and development planners. 
  2. GIS specialists and geospatial analysts. 
  3. Municipal and local government officials. 
  4. Civil, environmental, and infrastructure engineers. 
  5. Surveyors, cartographers, and land management professionals. 
  6. Utilities, transport, and public-service managers. 
  7. Environmental and development practitioners. 
  8. Smart-city, urban analytics, and information technology professionals. 


Course Duration: 5 days
 
Course Modules

Module 1: Fundamentals of GIS for Urban Service Mapping
 

  • GIS concepts, components, coordinate systems, and spatial data models. 
  • Urban service mapping principles and applications. 
  • Vector, raster, point, line, and polygon datasets. 
  • Map projections, georeferencing, and spatial accuracy. 
  • Urban service inventory and geospatial data requirements. 
  • Global Case Study: GIS-supported municipal service planning in Singapore. 


Module 2: Urban Geospatial Data Collection
 

  • GPS and mobile GIS data collection techniques. 
  • Field surveys, geotagging, and attribute-data collection. 
  • OpenStreetMap and crowdsourced geospatial information. 
  • Data quality control, validation, and metadata development. 
  • Designing field-data collection workflows. 
  • Global Case Study: OpenStreetMap-based humanitarian and urban mapping in Nairobi. 


Module 3: Mapping Water Supply and Sanitation Services
 

  • Mapping water networks, reservoirs, pipelines, and access points. 
  • Spatial analysis of water-service coverage. 
  • Mapping sewerage, sanitation, and drainage infrastructure. 
  • Identifying underserved communities and infrastructure gaps. 
  • GIS-based water and sanitation asset management. 
  • Global Case Study: Urban water-network mapping and service analysis in Cape Town. 


Module 4: Mapping Roads, Transport, and Mobility Services
 

  • Mapping road networks, public transport routes, and terminals. 
  • Road hierarchy and transportation accessibility analysis. 
  • Network analysis for travel distance and service accessibility. 
  • Mapping pedestrian, cycling, and mobility infrastructure. 
  • GIS applications for transport planning and congestion analysis. 
  • Global Case Study: GIS-based public transport planning in London. 


Module 5: Mapping Health, Education, and Public Facilities
 

  • Mapping hospitals, clinics, schools, markets, and public facilities. 
  • Service catchment and proximity analysis. 
  • Identifying population areas with limited service access. 
  • Facility location and spatial prioritization techniques. 
  • Integrating demographic and socioeconomic datasets. 
  • Global Case Study: Spatial accessibility analysis for healthcare facilities in Accra. 


Module 6: Utilities, Waste Management, and Environmental Services
 

  • Mapping electricity networks, waste facilities, and collection routes. 
  • GIS-based solid-waste collection and route optimization. 
  • Mapping parks, green spaces, and environmental assets. 
  • Spatial analysis of pollution, flooding, and environmental risks. 
  • Urban utility asset inventory and monitoring. 
  • Global Case Study: GIS-supported waste management planning in Curitiba. 


Module 7: Spatial Analysis, Remote Sensing, and Urban Accessibility
 

  • Spatial overlays, buffers, proximity, density, and hotspot analysis. 
  • Remote sensing applications for urban growth and land-use mapping. 
  • Satellite imagery classification and change detection. 
  • Accessibility, equity, and service-gap analysis. 
  • Multi-criteria spatial analysis for infrastructure prioritization. 
  • Global Case Study: Remote sensing and GIS for urban expansion monitoring in Johannesburg. 


Module 8: Web GIS, Dashboards, and Urban Decision Support
 

  • Designing interactive web maps for urban service information. 
  • GIS dashboards for monitoring infrastructure and service delivery. 
  • Spatial databases and data-sharing workflows. 
  • Visualization of key urban service performance indicators. 
  • GIS decision-support systems for municipal planning. 
  • Global Case Study: Smart-city GIS dashboards and urban management in Barcelona. 


Training Methodology
 

  • Instructor-led presentations and interactive technical discussions. 
  • Demonstrations of GIS software, spatial analysis, and mapping workflows. 
  • Practical computer-based GIS exercises using realistic urban datasets. 
  • Field-data collection and mobile GIS simulation exercises. 
  • Individual and group-based urban service mapping assignments. 
  • Analysis of international urban GIS projects and case studies. 
  • Problem-solving exercises focused on real municipal service challenges. 
  • Practical map production, visualization, and dashboard development. 
  • Question-and-answer sessions, peer learning, and instructor feedback. 
  • End-of-course practical project involving complete urban service mapping. 


Register as a group from 3 participants for a Discount

Send us an email: info@datastatresearch.org or call +254724527104

Certification

Upon successful completion of this training, participants will be issued with a globally- recognized certificate.

Tailor-Made Course

We also offer tailor-made courses based on your needs.

Key Notes

a. The participant must be conversant with English.
 
b. Upon completion of training the participant will be issued with an Authorized Training Certificate
 
c. Course duration is flexible and the contents can be modified to fit any number of days.
 
d. The course fee includes facilitation training materials, 2 coffee breaks, buffet lunch and A Certificate upon successful completion of Training.
 
e. One-year post-training support Consultation and Coaching provided after the course.
 
f. Payment should be done at least a week before commence of the training, to DATASTAT CONSULTANCY LTD account, as indicated in the invoice so as to enable us prepare better for you.
 

Course Information

Duration: 5 days

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