Employment Density Mapping of Dübendorf City Using GIS & Kernel Density Analysis

Employment Density Mapping of Dübendorf City Using GIS & Kernel Density Analysis

Employment Density Mapping of Dübendorf City Using GIS & Kernel Density Analysis

A GIS-based employment density map of Dübendorf, Switzerland, using Kernel Density Estimation to reveal where jobs concentrate and support urban and economic planning.

About this project

Project overview

Understanding the spatial distribution of employment is critical for effective urban planning and economic development. In this project, Spatial Nexus developed a comprehensive employment density map for Dübendorf, transforming complex datasets into actionable geospatial insights.

The objective was to analyze and visualize the concentration of employment opportunities across the city, enabling planners, policymakers, and businesses to better understand the local economic landscape. By leveraging advanced GIS techniques, the project delivers a clear and data-driven representation of urban employment patterns.

  • employment density mapping
  • kernel density estimation GIS
  • urban planning GIS
  • economic geography analysis
  • ArcGIS QGIS spatial analysis

Project at a glance

Client
Urban planning and economic development
Sector
Urban Planning
Location
Dübendorf, Switzerland
Software
ArcGIS, QGIS, GIS Datasets, Microsoft Office

THE CHALLENGE

What needed solving

  • Employment, business and demographic data were held in separate tables with no spatial view.
  • Planners could not see where jobs clustered or how employment related to transport and land use.
  • Point-based records were too dense to interpret directly on a map.

OBJECTIVES

What the project set out to do

  • Map the spatial distribution of employment across the city.
  • Identify employment hotspots and lower-density areas.
  • Relate job concentrations to transport networks and land-use zones.
  • Deliver a clear, presentation-ready map for decision-makers.

Methodology

Our workflow, step by step

01

Data integration

Business, employment and demographic records were cleaned, geocoded and joined into one spatial database.

02

Projection and preparation

All layers were projected to a metric coordinate system so distances and search radii were accurate.

03

Kernel Density Estimation

KDE converted employment points into a continuous density surface, weighted by number of jobs.

04

Overlay analysis

The density surface was overlaid with transport and land-use layers to interpret why hotspots occur.

05

Cartographic design

A clear colour ramp, legend and context layers produced a readable, professional map.

Visual output

The map

Select the image to view it at full size.

Employment Density Mapping of Dübendorf City Using GIS & Kernel Density Analysis, map output

Results

What the analysis delivered

  • Clear identification of the main employment centres in Dübendorf.
  • Visible relationship between job clusters, transport corridors and commercial zoning.
  • Evidence base for infrastructure, transport and economic development planning.

Key highlights

Why this project stands out

  • Kernel Density Estimation weighted by employment
  • Integration of business, demographic and land-use data
  • Transport and zoning overlays
  • Presentation-ready cartography

Data sources

Data used

  • Employment and business location records
  • Demographic datasets
  • Land-use zoning layers
  • Transport network data

Tools and technologies

Software and methods

ArcGISSpatial analysis and density modeling
QGISData processing and visualization
GIS DatasetsEmployment, demographics, land use, and transport networks
Microsoft OfficeReporting and data management

Deliverables

What the client received

  • Employment density map (print and digital)
  • Processed GIS datasets
  • Density raster surface
  • Methodology summary

WHY IT MATTERS

Employment density mapping gives planners an objective view of where economic activity happens, supporting decisions on transport investment, zoning and business development.

FAQ

Questions about this project

What is kernel density estimation in GIS?

KDE turns individual point locations into a smooth surface that shows how concentrated features are across an area, here weighted by the number of jobs at each location.

Which software was used?

ArcGIS for spatial analysis and density modelling, and QGIS for data processing and visualisation.

Can this analysis be applied to other cities?

Yes. The same workflow works for any city with geocoded employment or business data.

Planning a similar geospatial project?

Network Analysis for Optimized Advanced Bike Routes Using GIS

Network Analysis for Optimized Advanced Bike Routes Using GIS

Network Analysis for Optimized Advanced Bike Routes Using GIS

An ArcGIS Pro and OpenStreetMap network analysis that generates optimised and alternative cycling routes, accounting for terrain and validated against real-world conditions.

About this project

Project overview

Efficient route planning is critical for sustainable mobility and smart transportation systems. In this project, Spatial Nexus developed an advanced GIS-based bike routing solution using ArcGIS Pro and OpenStreetMap (OSM) data to generate optimized and alternative cycling routes.

The objective was to enhance the accuracy, safety, and usability of bike navigation systems, particularly in complex environments such as mountainous and terrain-sensitive regions.

  • GIS network analysis
  • bike route optimization
  • ArcGIS Pro routing
  • OpenStreetMap GIS
  • sustainable mobility planning

Project at a glance

Client
Mobility and transport planning
Sector
Transport
Software
ArcGIS Pro, ArcGIS Online, OpenStreetMap (OSM)

THE CHALLENGE

What needed solving

  • Standard routing often ignores slope and terrain, which matter greatly for cyclists.
  • Riders need safe alternatives, not just the shortest path.
  • Routes had to be realistic, not only theoretically optimal.

OBJECTIVES

What the project set out to do

  • Build a routable cycling network from OpenStreetMap data.
  • Generate optimised and alternative bike routes.
  • Account for terrain in route selection.
  • Validate routes against real-world conditions.

Methodology

Our workflow, step by step

01

Network dataset

OpenStreetMap roads and paths were converted into a network dataset in ArcGIS Pro.

02

Cost attributes

Distance and terrain-based costs were added so routes reflect cycling effort.

03

Route solving

Optimal and alternative routes were calculated between selected origins and destinations.

04

Validation

Routes were compared with real-world conditions to confirm they are practical.

05

Sharing

Results were published via ArcGIS Online for review and visualisation.

Visual output

The map

Select the image to view it at full size.

Network Analysis for Optimized Advanced Bike Routes Using GIS, map output

Results

What the analysis delivered

  • Optimised and alternative cycling routes for each journey.
  • Terrain-aware routes better suited to real riding conditions.
  • Outputs that support cycling infrastructure and navigation planning.

Key highlights

Why this project stands out

  • ArcGIS Pro Network Analyst
  • OpenStreetMap network data
  • Terrain-aware routing
  • Real-world route validation

Data sources

Data used

  • OpenStreetMap road and path network
  • Terrain and elevation data
  • ArcGIS Online reference layers

Tools and technologies

Software and methods

ArcGIS ProNetwork analysis and route optimization
ArcGIS OnlineData sharing and visualization
OpenStreetMap (OSM)Base road and path network data

Deliverables

What the client received

  • Route maps and layers
  • Network dataset
  • ArcGIS Online web map

WHY IT MATTERS

Better cycling routes encourage sustainable transport. Network analysis helps cities plan infrastructure that riders will actually use.

FAQ

Questions about this project

What is GIS network analysis?

Analysis of connected networks such as roads or paths to find best routes, service areas or closest facilities.

Why use OpenStreetMap?

It is a free, detailed and regularly updated source of road and path data worldwide.

How is terrain considered?

Elevation data adds a cost for steep segments so routes favour more comfortable gradients.

Planning a similar geospatial project?

Multi-criteria site suitability for a public facility

Multi-criteria site suitability for a public facility

Multi-criteria site suitability for a public facility

Access, slope, land use and constraints combined into a ranked suitability surface.

About this project

Project overview

Example workflow showing how Spatial Nexus approaches this type of analysis.

Access, slope, land use and constraints combined into a ranked suitability surface.

This page shows a typical Spatial Nexus workflow for this type of analysis.

  • site suitability analysis
  • multi-criteria decision analysis GIS
  • site selection GIS
  • weighted overlay
  • public facility planning

Project at a glance

Sector
Spatial Analysis
Software
ArcGIS Pro, Network Analyst, QGIS, Python

THE CHALLENGE

What needed solving

  • Choosing a facility site involves many competing criteria.
  • Decisions must be transparent and defensible.

OBJECTIVES

What the project set out to do

  • Agree criteria and weights with stakeholders.
  • Produce a ranked suitability surface.
  • Shortlist candidate sites.

Methodology

Our workflow, step by step

01

Criteria

Agree criteria, constraints and weights with the client.

02

Data preparation

Standardise each criterion to a common scale.

03

Overlay

Weighted overlay and constraint masking.

04

Ranking

Shortlist and compare candidate sites.

Visual output

The map

Select the image to view it at full size.

Landsat 8 close view of central Lahore showing built-up areas and green spaces

Results

What the analysis delivered

  • Suitability map ranking locations.
  • Shortlist of candidate sites.
  • Documented criteria and weights.

Key highlights

Why this project stands out

  • Criteria
  • Data preparation
  • Overlay
  • Ranking

Data sources

Data used

  • Road network and accessibility
  • Slope from elevation data
  • Land use and constraints

Tools and technologies

Software and methods

ArcGIS Pro
Network Analyst
QGIS
Python

Deliverables

What the client received

  • Suitability or ranking maps
  • Criteria and weighting documentation
  • Scenario comparisons
  • Short decision report

FAQ

Questions about this project

What is multi-criteria analysis?

A method that combines several weighted factors, such as access and slope, into one suitability score.

Can weights be changed?

Yes. Scenarios can be rerun with different weights to test sensitivity.

Planning a similar geospatial project?

Riyadh Postcode Boundary Mapping for Smart City and Last-Mile Delivery GIS

Riyadh Postcode Boundary Mapping for Smart City and Last-Mile Delivery GIS

Riyadh Postcode Boundary Mapping for Smart City and Last-Mile Delivery GIS

Mapping postal code boundaries across metropolitan Riyadh as clean GIS and GeoJSON layers for logistics, last-mile delivery and smart city applications.

About this project

Project overview

Mapping postal code boundaries across metropolitan Riyadh as clean GIS and GeoJSON layers for logistics, last-mile delivery and smart city applications.

  • postcode boundary mapping
  • GeoJSON mapping services
  • last-mile delivery GIS
  • smart city geospatial data
  • Riyadh GIS mapping

Project at a glance

Client
Logistics and smart city applications
Sector
Logistics
Location
Riyadh, Saudi Arabia
Software
ArcGIS Pro, QGIS, Satellite basemap, Global Mapper

THE CHALLENGE

What needed solving

  • Delivery and planning teams needed postcode zones as usable GIS boundaries, not static images.
  • Boundaries had to align with the street network and avoid gaps or overlaps.
  • Data had to work in web maps and routing tools.

OBJECTIVES

What the project set out to do

  • Create a complete postcode boundary layer for metropolitan Riyadh.
  • Ensure clean topology with no gaps or overlaps.
  • Deliver the layer in GIS and GeoJSON formats for web use.

Methodology

Our workflow, step by step

01

Reference collection

Postcode reference material and the street network were gathered for the metropolitan area.

02

Boundary digitising

Postcode zones were digitised along streets and natural boundaries over satellite imagery.

03

Topology checks

Rules removed gaps, overlaps and slivers between adjacent zones.

04

Attribution

Each polygon received its postcode and descriptive attributes.

05

Export and mapping

Layers were exported to GeoJSON and Shapefile and a reference map was produced.

Visual output

The map

Spatial Nexus map output. Select the image to view it at full size.

Postal code boundary map of Riyadh, Saudi Arabia, over satellite imagery

Results

What the analysis delivered

  • A seamless postcode boundary layer covering metropolitan Riyadh.
  • Web-ready GeoJSON for interactive maps and routing platforms.
  • A clear reference map showing postcode zones over imagery.

Key highlights

Why this project stands out

  • City-scale boundary mapping
  • Topologically clean polygons
  • GeoJSON for web GIS
  • Ready for logistics and routing

Data sources

Data used

  • Postcode reference information
  • High-resolution satellite basemap
  • Road and street network

Tools and technologies

Software and methods

ArcGIS ProBoundary digitising, topology and cartography
QGISData validation and GeoJSON export
Satellite basemapReference for boundary alignment
Global Mapper

Deliverables

What the client received

  • Postcode boundary layer (GeoJSON and Shapefile)
  • Reference map (PDF and PNG)
  • Attribute data dictionary

WHY IT MATTERS

Accurate postcode boundaries let logistics companies assign delivery zones, plan routes and analyse demand, and give city planners a consistent spatial reference.

FAQ

Questions about this project

What is GeoJSON?

An open, lightweight format for geographic data that works directly in web maps such as Leaflet, Mapbox and ArcGIS Online.

Can the boundaries be used for routing?

Yes. Zones can be combined with road networks to assign deliveries and plan routes.

Can you map postcodes for other cities?

Yes. The same workflow applies to any city with postcode reference information.

Planning a similar geospatial project?