GIS MAPPING AND SPATIAL ANALYSIS APPLICATION IN URBAN PLANNING COURSE

COURSE OVERVIEW

GIS Mapping and Spatial Analysis Application in Urban Planning Course is a comprehensive practical programme designed to equip urban planners, architects, surveyors, engineers, geographers, municipal authorities, development professionals, and other practitioners with advanced Geographic Information Systems (GIS) skills for effective urban planning and spatial decision-making. The course focuses on the application of GIS mapping, spatial analysis, geospatial data management, digital cartography, urban growth analysis, land-use planning, infrastructure mapping, environmental assessment, demographic analysis, and location intelligence in modern urban development. Participants will learn how to integrate spatial and non-spatial data to understand urban patterns, identify development opportunities and constraints, and support evidence-based urban planning decisions.

The training provides practical knowledge in GIS data acquisition, coordinate reference systems, georeferencing, digitization, spatial databases, map production, remote sensing integration, satellite imagery interpretation, and geospatial visualization. Participants will develop competencies in managing vector and raster datasets, creating thematic maps, performing spatial queries, conducting proximity and overlay analysis, analyzing urban land-use patterns, mapping population distribution, and evaluating accessibility to essential infrastructure and services. The course also explores the use of GIS for urban development control, zoning, transportation planning, housing analysis, environmental management, disaster-risk assessment, and sustainable city planning.

Participants will further develop advanced spatial analysis capabilities through network analysis, suitability analysis, terrain analysis, buffer analysis, interpolation, hotspot analysis, change detection, urban expansion modeling, and multi-criteria decision analysis. The programme demonstrates how GIS can support smart city development, sustainable urban mobility, climate-resilient urban planning, infrastructure investment, public-service delivery, informal settlement upgrading, environmental monitoring, and urban growth management. Emphasis is placed on practical workflows that enable participants to transform complex geospatial datasets into clear maps, analytical outputs, planning scenarios, and actionable recommendations for urban development.

Through practical GIS exercises, spatial datasets, mapping assignments, urban planning scenarios, geospatial analysis workflows, remote sensing applications, and relevant general case studies, participants will develop an integrated GIS-based urban planning framework. The course is particularly valuable for organizations seeking to strengthen spatial planning, land-use management, infrastructure planning, urban analytics, geospatial intelligence, development control, environmental planning, and data-driven decision-making. By the end of the programme, participants will be better equipped to use GIS mapping and spatial analysis as strategic tools for designing inclusive, efficient, sustainable, resilient, and well-managed urban areas.

COURSE OBJECTIVES

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

1. Explain the principles, concepts, applications, and importance of GIS in urban planning.
2. Acquire, organize, manage, and analyze geospatial data for urban development.
3. Apply coordinate reference systems, projections, georeferencing, and spatial data transformation.
4. Create accurate digital maps, thematic maps, and professional urban planning maps.
5. Conduct spatial analysis using overlay, buffer, proximity, and spatial query techniques.
6. Analyze land use, land cover, urban expansion, population distribution, and settlement patterns.
7. Integrate satellite imagery and remote sensing data into urban planning analysis.
8. Apply network analysis, suitability analysis, and multi-criteria decision analysis to planning problems.
9. Develop GIS-based decision-support outputs for infrastructure, transportation, housing, and environmental planning.
10. Design an integrated GIS mapping and spatial analysis framework for evidence-based and sustainable urban planning.

ORGANIZATION BENEFITS

1. Strengthens organizational GIS and geospatial analysis capacity.
2. Improves evidence-based urban planning and spatial decision-making.
3. Enhances land-use planning and development-control processes.
4. Improves mapping of infrastructure, utilities, transport networks, and public facilities.
5. Supports efficient urban growth monitoring and management.
6. Strengthens environmental and climate-resilient urban planning.
7. Improves identification and analysis of underserved communities and informal settlements.
8. Supports better infrastructure investment and resource allocation.
9. Enhances spatial data management, visualization, and analytical reporting.
10. Strengthens smart-city planning, urban analytics, and geospatial decision-support capabilities.

TARGET PARTICIPANTS

This course is designed for Urban Planners, Town Planners, City Managers, County and Municipal Government Officials, Architects, Surveyors, GIS Specialists, Geographers, Cartographers, Civil Engineers, Transport Planners, Environmental Planners, Land Administration Professionals, Real Estate Professionals, Housing Officers, Infrastructure Planners, Development Practitioners, Researchers, Monitoring and Evaluation Professionals, Disaster Risk Management Professionals, Community Development Officers, Public-Sector Managers, Smart City Professionals, and other professionals involved in urban development, land-use planning, spatial analysis, infrastructure planning, environmental management, and geospatial decision-making.

COURSE OUTLINE

MODULE 1: INTRODUCTION TO GIS AND URBAN PLANNING

1. Fundamentals, concepts, components, and applications of Geographic Information Systems
2. Role of GIS mapping and spatial analysis in modern urban planning
3. Geographic, demographic, socioeconomic, environmental, and infrastructure datasets
4. GIS workflows for urban development and spatial decision-making
5. GIS applications in sustainable cities, smart cities, and resilient urban development
6. Introduction to GIS software, project organization, and urban planning datasets
   General Case Study: A growing municipality wants to establish a GIS-based urban planning system. Participants identify relevant spatial datasets, planning requirements, infrastructure layers, and analytical workflows needed to support coordinated urban development.

MODULE 2: GEOSPATIAL DATA ACQUISITION AND MANAGEMENT

1. Sources and types of geospatial data for urban planning
2. Vector and raster data structures and applications
3. Spatial databases, attribute tables, and data organization
4. Data quality, accuracy, completeness, and metadata management
5. Coordinate reference systems, map projections, and spatial transformations
6. Data integration, editing, validation, and preparation for spatial analysis
   General Case Study: A city planning department receives cadastral, road, population, satellite, and utility datasets from different agencies. Participants standardize, validate, organize, and integrate the datasets into a common GIS project.

MODULE 3: DIGITAL MAPPING AND CARTOGRAPHY FOR URBAN PLANNING

1. Principles of digital cartography and professional map design
2. Creating base maps, thematic maps, and planning maps
3. Symbology, labeling, classification, legends, scales, and north arrows
4. Mapping land use, zoning, population, infrastructure, and public facilities
5. Map layouts, printing, publishing, and digital map presentation
6. Communicating spatial information to planners, managers, communities, and decision-makers
   General Case Study: A municipal authority needs maps showing residential, commercial, industrial, institutional, recreational, and conservation zones. Participants create professional thematic maps to support public consultation and development planning.

MODULE 4: SPATIAL ANALYSIS TECHNIQUES IN URBAN PLANNING

1. Spatial queries, selection techniques, and attribute-based analysis
2. Buffer and proximity analysis for urban facilities and infrastructure
3. Overlay analysis for land-use and development assessment
4. Spatial joins, intersections, unions, and relationship analysis
5. Hotspot identification and spatial pattern analysis
6. Interpreting spatial-analysis results for planning decisions
   General Case Study: A city wants to identify neighborhoods located more than two kilometers from health facilities. Participants use GIS buffer and proximity analysis to identify underserved areas and recommend potential locations for new facilities.

MODULE 5: LAND USE, ZONING AND URBAN DEVELOPMENT ANALYSIS

1. GIS-based land-use classification and land-use mapping
2. Zoning analysis and development-control applications
3. Mapping residential, commercial, industrial, agricultural, and institutional land
4. Detecting land-use conflicts and incompatible development
5. Monitoring urban expansion and development patterns
6. Supporting integrated land-use and spatial development plans
   General Case Study: Rapid development is occurring around a city's peripheral areas. Participants analyze land-use changes and identify development pressures, incompatible land uses, agricultural conversion, and opportunities for controlled urban expansion.

MODULE 6: REMOTE SENSING AND SATELLITE IMAGERY FOR URBAN PLANNING

1. Fundamentals of remote sensing and satellite imagery
2. Satellite data sources and applications in urban analysis
3. Image preprocessing, classification, and interpretation
4. Land-use and land-cover change detection
5. Mapping urban expansion, vegetation, built-up areas, and environmental changes
6. Integrating remote sensing and GIS for urban monitoring
   General Case Study: A metropolitan area has experienced rapid expansion over the past decade. Participants compare satellite imagery from different periods to identify built-up growth, loss of vegetation, changes in open space, and emerging development corridors.

MODULE 7: TRANSPORTATION AND NETWORK ANALYSIS

1. GIS applications in urban transportation and mobility planning
2. Road-network mapping and transportation infrastructure analysis
3. Network analysis, shortest-path analysis, and route optimization
4. Accessibility analysis for schools, hospitals, markets, and public facilities
5. Public transport corridor and service-area analysis
6. Supporting sustainable urban mobility and transport planning
   General Case Study: A city seeks to improve access to public health facilities. Participants conduct network and accessibility analysis to identify communities with poor travel access and evaluate potential locations for additional facilities.

MODULE 8: URBAN INFRASTRUCTURE AND PUBLIC FACILITY MAPPING

1. GIS mapping of roads, water systems, drainage, electricity, and telecommunications
2. Mapping schools, hospitals, markets, emergency facilities, and public services
3. Utility-network data management and infrastructure visualization
4. Infrastructure condition and service-coverage analysis
5. Identifying infrastructure gaps and investment priorities
6. GIS-based infrastructure planning and asset management
   General Case Study: A local authority wants to prioritize infrastructure investments. Participants map existing infrastructure, analyze service coverage, identify gaps, and develop spatial priorities for roads, drainage, water, and public facilities.

MODULE 9: URBAN ENVIRONMENTAL AND CLIMATE-RISK ANALYSIS

1. GIS applications in environmental planning and urban sustainability
2. Mapping flood-prone areas, wetlands, drainage systems, and environmentally sensitive zones
3. Urban heat, vegetation, air-quality, and environmental exposure analysis
4. Climate-risk mapping and vulnerability assessment
5. GIS applications in disaster-risk reduction and climate-resilient planning
6. Developing environmental planning and adaptation decision-support maps
   General Case Study: A rapidly urbanizing area experiences frequent flooding. Participants combine elevation, drainage, rainfall, land-use, settlement, and infrastructure data to identify flood-risk zones and support climate-resilient urban planning.

MODULE 10: URBAN POPULATION, HOUSING AND INFORMAL SETTLEMENT ANALYSIS

1. GIS mapping of population distribution and demographic characteristics
2. Population density, growth, migration, and settlement-pattern analysis
3. Housing distribution and residential development analysis
4. Mapping informal settlements and vulnerable urban communities
5. Identifying service-access inequalities and infrastructure deficits
6. Supporting inclusive housing, settlement upgrading, and urban regeneration
   General Case Study: A city is developing an informal-settlement upgrading programme. Participants map settlement boundaries, population characteristics, infrastructure availability, environmental risks, and access to essential services to support targeted interventions.

MODULE 11: SITE SUITABILITY AND MULTI-CRITERIA SPATIAL DECISION ANALYSIS

1. Principles of GIS-based site selection and suitability analysis
2. Defining spatial criteria, constraints, opportunities, and decision factors
3. Weighted overlay and multi-criteria decision analysis
4. Site selection for schools, hospitals, housing, markets, and infrastructure
5. Sensitivity analysis and evaluation of alternative planning scenarios
6. Producing suitability maps and evidence-based recommendations
   General Case Study: A municipality needs to identify suitable locations for a new public hospital. Participants combine population density, road accessibility, land availability, environmental constraints, existing facilities, and distance criteria to produce a hospital suitability map.

MODULE 12: ADVANCED GIS APPLICATIONS, URBAN MODELLING AND DECISION SUPPORT

1. Urban growth modeling and spatial scenario development
2. Change detection and monitoring of urban development trends
3. 3D GIS, spatial visualization, and emerging urban-planning technologies
4. GIS dashboards, spatial indicators, and planning performance monitoring
5. Developing integrated GIS decision-support systems for urban management
6. Designing a GIS-based urban planning project from data acquisition to final recommendations
   General Case Study: A metropolitan planning authority is preparing a long-term urban development strategy. Participants integrate land-use, population, transport, infrastructure, environmental, and socioeconomic datasets to develop alternative growth scenarios and spatial decision-support outputs.

GENERAL INFORMATION

1. Customized Training: All our courses can be tailored to meet the specific needs of participants.
2. Language Proficiency: Participants should have a good command of the English language.
3. Comprehensive Learning: Our training includes well-structured presentations, practical exercises, web-based tutorials, and collaborative group work. Our facilitators are seasoned experts with over a decade of experience.
4. Certification: Upon successful completion of training, participants will receive a certificate from Foscore Development Center (FDC-K).
5. Training Locations: Training sessions are conducted at Foscore Development Center (FDC-K) centers. We also offer options for in-house and online training, customized to the client's schedule.
6. Flexible Duration: Course durations are adaptable, and content can be adjusted to fit the required number of days.
7. Onsite Training Inclusions: The course fee for onsite training covers facilitation, training materials, two coffee breaks, a buffet lunch, and a Certificate of Successful Completion. Participants are responsible for their travel expenses, airport transfers, visa applications, dinners, health/accident insurance, and personal expenses.
8. Additional Services: Accommodation, pickup services, flight booking, and visa processing arrangements are available upon request at discounted rates.
9. Equipment: Tablets and laptops can be provided to participants at an additional cost.
10. Post-Training Support: We offer one year of free consultation and coaching after the course.
11. Group Discounts: Register as a group of more than two and enjoy a discount ranging from 10% to 50%.
12. Payment Terms: Payment should be made before the commencement of the training or as mutually agreed upon, to the Foscore Development Center account. This ensures better preparation for your training.
13. Contact Us: For any inquiries, please reach out to us at training@fdc-k.org or call us at +254712260031.
14. Website: Visit our website at www.fdc-k.org for more information.