Data

Spatial and policy urban indicators for Naarm / Melbourne, Australia,

RMIT University, Australia
Carl Higgs (Aggregated by) Melanie Lowe (Aggregated by) Ryan Turner (Aggregated by) Sonja Broersen (Aggregated by)
Viewed: [[ro.stat.viewed]] Cited: [[ro.stat.cited]] Accessed: [[ro.stat.accessed]]
ctx_ver=Z39.88-2004&rft_val_fmt=info%3Aofi%2Ffmt%3Akev%3Amtx%3Adc&rfr_id=info%3Asid%2FANDS&rft_id=info:doi10.25439/rmt.33158876.v1&rft.title=Spatial and policy urban indicators for Naarm / Melbourne, Australia,&rft.identifier=10.25439/rmt.33158876.v1&rft.publisher=RMIT University, Australia&rft.description=DescriptionThis collection contains the input data, analysis configuration and derived outputs for a spatial and policy urban indicator analysis of Naarm / Melbourne, Australia (2025), undertaken using the Global Healthy and Sustainable City Indicators (GHSCI) software with optional Google Earth Engine (GEE) indicators enabled.The analysis measures neighbourhood-level liveability and sustainability for the urban portion of Greater Melbourne: walkability (walkable neighbourhood population density, street intersection density and a daily living destination score), access within 500 m along the pedestrian network to fresh food, convenience destinations, public open space and regularly serviced public transport, plus the optional Earth Engine indicators for large public urban green space (LPUGS) availability and accessibility, and the Global Urban Heat Vulnerability Index (GUHVI). Results are reported as a population-weighted city summary and as a 1000 m population grid, and are accompanied by a completed urban policy checklist assessing the alignment of Melbourne's urban planning and transport policies with healthy-cities evidence.Indicators were estimated at sample points spaced 30 m along the pedestrian network within populated grid cells, using a 1000 m walkable neighbourhood and a 1600 m study region buffer, then aggregated to the 1000 m grid and to the city. The pedestrian network was derived with OSMnx from an OpenStreetMap extract; street intersections were taken from Victoria's official road infrastructure dataset in preference to OSM-derived intersections.Key findings are summarised in the accompanying reports. In brief: the majority of Melbourne neighbourhoods have low walkability and poor access to fresh food and to frequently serviced public transport, with the distribution of walkability and transport access favouring inner and middle suburbs; while 90% of residents have some public open space within 500 m, this falls to 66% for public open space of 1.5 hectares or larger; and approximately 20% of the population live in areas most vulnerable to urban heat, concentrated in the north-western and south-eastern suburbs. Melbourne's policy framework had good coverage of relevant urban planning and transport policies, but lacked measurable targets for over one third of the policy indicators.What is includedInputs (AU.zip, ~1.25 GB uncompressed) — the complete set of source data files and the study region configuration required to reproduce the analysis, laid out as expected by the GHSCI software (see How to replicate, below):AU_Melbourne_2025_1000m.yml— the study region configuration: data paths, coordinate reference system, network and analysis parameters, data provenance, licences and citations for every input, and the reporting configuration. australia-260112.osm.pbf— OpenStreetMap extract for Australia. GCCSA_2021_AUST_SHP_GDA2020.zip— study region boundary (Greater Melbourne).SOS_2021_AUST_GDA2020_SHP.zip — urban region definition (Sections of State).Australian_Population_Grid_2025_in_GEOTIFF_format/ — 1000 m population grid.DTP PTV GTFS Feeds - September 2025/ — public transport timetable feeds.DTP-Vicmap-Transport-Road-Infrastructure-2026-02-14/ (and .zip) — road intersections.Melbourne 2025 report - 2026-06-16/— the completed urban policy checklist and a supporting policy document.images/— the photographs of Melbourne used to illustrate the PDF reports, credited to Sonja Broersen and Carl Higgs (2026).Outputs (AU_Melbourne_2025_1000m/) — the indicator results and documentation produced by the analysis:AU_Melbourne_2025_1000m_indicators_region.csv — population-weighted city-level indicator estimates (one row).AU_Melbourne_2025_1000m_indicators_1000m_2025.csv— indicator estimates for each populated 1000 m grid cell.AU_Melbourne_2025_1000m_1600m_buffer.gpkg— GeoPackage of all spatial layers used and produced, including the study region and urban boundaries, population grid with indicators, pedestrian network nodes and edges, destinations, public open space and sample point estimates.AU_Melbourne_2025_1000m_metadata.yml/ .xml— ISO 19115 metadata recording the full analysis configuration, data provenance and lineage.output_data_dictionary.csv / .xlsx — plain-language descriptions of every output variable, its scale (city or grid) and its category.AU_Melbourne_2025_1000m_scorecard_statistics.yml— contextual summary statistics.PDF reports: policy indicators, spatial indicators, and combined policy and spatial indicators for Naarm / Melbourne 2025; supporting figures and maps.Input data sourcesInputSource and citationLicenceStudy region boundary — Greater Melbourne (GCCSA, ASGS Edition 3, reference period July 2021 – June 2026)Australian Bureau of Statistics (2021). Greater Capital City Statistical Areas – 2021 – Shapefile. Australian Statistical Geography Standard (ASGS) Edition 3. https://www.abs.gov.au/statistics/standards/australian-statistical-geography-standard-asgs-edition-3/jul2021-jun2026CC BY 4.0Urban region — Section of State 2021 ('Major Urban', 'Other Urban'), used to restrict analysis to the urban portion of the study regionAustralian Bureau of Statistics (2021). Section of State – 2021 – Shapefile. Australian Statistical Geography Standard (ASGS) Edition 3.CC BY 4.0Population — Australian population grid 2025, 1000 m resolution GeoTIFF (EPSG:3577)Australian Bureau of Statistics (2026). Regional population: Australian population grid 2025 in GeoTIFF format. https://www.abs.gov.au/statistics/people/population/regional-population/2024-25. Accessed 31 March 2026.CC BY 4.0OpenStreetMap — Australia extract, published 12 January 2026; source of the pedestrian network, destinations and public open spaceOpenStreetMap contributors; Geofabrik GmbH (2026). https://download.geofabrik.de/australia-oceania/australia.htmlODbL 1.0Street intersections — Vicmap Transport Road Infrastructure Point, extracted 14 February 2026 (signalised and unsignalised intersections and roundabouts)Victorian Department of Transport and Planning (2026). Vicmap Transport – Road Infrastructure Point. https://datashare.maps.vic.gov.au/CC BY 4.0Public transport — PTV GTFS schedule feeds, snapshot 3 October 2025; service frequency evaluated 6 October – 19 December 2025 for regional and metropolitan train, tram, bus and coach servicesPublic Transport Victoria / Department of Transport and Planning (2025). GTFS schedule. https://opendata.transport.vic.gov.au/dataset/gtfs-scheduleCC BY 4.0Urban policy checklist — 1000 Cities Challenge urban policy checklist v1.0.3, completed and validated for MelbourneGlobal Observatory of Healthy and Sustainable Cities. https://healthysustainablecities.orgSee item filesSatellite imagery and global covariates for the optional Earth Engine indicators — Sentinel-2 surface reflectance (NDVI-based greenery for LPUGS), Landsat 8 Collection 2 and MODIS land surface temperature, and gridded population, subnational human development and infant mortality layers used in the GUHVIAccessed at run time via Google Earth Engine; not redistributed here. GUHVI methods: Turner, R. et al. (2025). Urban Climate 64:102716.Per Earth Engine dataset termsGlobal Human Settlement Layer urban covariates (air pollution, emissions, climate) linked at the city levelEuropean Commission Joint Research Centre, GHS Urban Centre DatabasePer GHSL termsContextual statistics reported in the outputs (Gini index, Human Development Index, GDP per capita) are sourced from the World Bank and UNDP, as recorded in the configuration file.How to replicate the analysisThe analysis runs entirely inside Docker containers, so no local Python environment is required. Analysis of a city the size of Melbourne is computationally intensive and may take a number of hours.See the following resources for directions on getting and using the GHSCI tools with optional Earth Engine indicators workflow:https://github.com/healthysustainablecities/global-indicators/wikihttps://github.com/healthysustainablecities/global-indicators/tree/earth-engine#optional-indicators-using-google-earth-engine1. Install Docker Desktop and ensure it is running.2. Obtain the software. Download the latest version of the Global Healthy and Sustainable City Indicators (GHSCI) software (ee variant; here). We recommend using the most recent release rather than the exact version used here, as it will incorporate subsequent fixes and improvements; results may differ slightly between versions. The version used to produce these outputs is recorded in the metadata.yml/.xml lineage statement.Because this analysis includes the optional Earth Engine indicators, use the Earth Engine variant of the software (the earth-engine branch/release, launched with global-indicators-ee.bat on Windows or bash ./global-indicators-ee.sh on macOS/Linux).3. Register a Google Earth Engine project and authenticate, following the instructions at https://github.com/healthysustainablecities/global-indicators/tree/earth-engine#how-to-generate-the-optional-spatial-urban-indicators. This is required for the large public urban green space and urban heat vulnerability indicators. To skip these indicators instead, set `gee: false` in the configuration file and run the standard (non-Earth Engine) software.4. Extract the input data. Download AU.zip from this repository and extract its contents into a new folder named AU within the software's process/data directory, so that the configuration file is located at process/data/AU/AU_Melbourne_2025_1000m.yml and, for example, the OpenStreetMap extract is at process/data/AU/australia-260112.osm.pbf.5. Launch the software following the directions in the software guide (https://healthysustainablecities.github.io/software/): run .\\global-indicators-ee.bat (Windows) or bash ./global-indicators-ee.sh (macOS/Linux) from the repository root. This starts the analysis container along with a PostGIS/pgRouting database container.6. Run the analysis. At the prompt inside the container, start Python (or Jupyter Lab via `lab`) and run:pythonimport ghscir = ghsci.Region('data/AU/AU_Melbourne_2025_1000m.yml')r.analysis()7. Generate the outputs (indicator CSVs, GeoPackage, metadata, data dictionary, maps and PDF reports):pythonr.generate()The photographs used to illustrate the reports are included in `AU.zip` at the paths listed under `reporting: images:` in the configuration, so the reports can be regenerated as published; substitute your own images there if preferred.Progress and any warnings are written to a processing log in the region's output directory, process/data/_study_region_outputs/AU_Melbourne_2025_1000m, which is also where all outputs are written.LicensingFigshare permits a single licence per item. Open Data Commons (ODC) has been selected as the closest available match to the Open Data Commons Open Database License (ODbL 1.0) under which OpenStreetMap data — on which much of this analysis depends — is made available.The individual input datasets are made available by their respective custodians under their own licences, which are recorded for each dataset in the configuration file (AU_Melbourne_2025_1000m.yml) and in the ISO 19115 metadata accompanying the outputs.Australian Bureau of Statistics and Victorian Government inputs are provided under CC BY 4.0; the OpenStreetMap extract is provided under ODbL 1.0. Users must comply with the attribution and share-alike requirements of the respective source licences when reusing these data or any derived product. Derived outputs incorporating OpenStreetMap data are subject to ODbL.The photographs of Melbourne included in AU.zip and reproduced in the PDF reports are the work of Sonja Broersen and Carl Higgs (2026) and are included to allow the reports to be regenerated as published; please retain the credits shown alongside each image.Related resources GHSCI software: https://github.com/healthysustainablecities/global-indicators Software guide: https://healthysustainablecities.github.io/software/ Global Observatory of Healthy and Sustainable Cities: https://healthysustainablecities.org&rft.creator=Carl Higgs&rft.creator=Melanie Lowe&rft.creator=Ryan Turner&rft.creator=Sonja Broersen&rft.date=2026&rft_rights= https://opendatacommons.org/licenses/by/summary/index.html&rft_subject=Built environment and design&rft_subject=Social determinants of health&rft_subject=Urban and regional planning&rft_subject=Human geography&rft_subject=Public health&rft_subject=Geospatial information systems and geospatial data modelling&rft_subject=urban indicators&rft_subject=walkability&rft_subject=built environment&rft_subject=public open space&rft_subject=green space&rft_subject=urban heat&rft_subject=public transport&rft_subject=GTFS&rft_subject=OpenStreetMap&rft_subject=urban policy&rft_subject=healthy cities&rft_subject=sustainable cities&rft_subject=Melbourne&rft_subject=Australia&rft_subject=GHSCI&rft_subject=GOHSC&rft_subject=Global Observatory of Healthy and Sustainable Cities&rft.type=dataset&rft.language=English Access the data

Full description

Description


This collection contains the input data, analysis configuration and derived outputs for a spatial and policy urban indicator analysis of Naarm / Melbourne, Australia (2025), undertaken using the Global Healthy and Sustainable City Indicators (GHSCI) software with optional Google Earth Engine (GEE) indicators enabled.

The analysis measures neighbourhood-level liveability and sustainability for the urban portion of Greater Melbourne: walkability (walkable neighbourhood population density, street intersection density and a daily living destination score), access within 500 m along the pedestrian network to fresh food, convenience destinations, public open space and regularly serviced public transport, plus the optional Earth Engine indicators for large public urban green space (LPUGS) availability and accessibility, and the Global Urban Heat Vulnerability Index (GUHVI). Results are reported as a population-weighted city summary and as a 1000 m population grid, and are accompanied by a completed urban policy checklist assessing the alignment of Melbourne's urban planning and transport policies with healthy-cities evidence.

Indicators were estimated at sample points spaced 30 m along the pedestrian network within populated grid cells, using a 1000 m walkable neighbourhood and a 1600 m study region buffer, then aggregated to the 1000 m grid and to the city. The pedestrian network was derived with OSMnx from an OpenStreetMap extract; street intersections were taken from Victoria's official road infrastructure dataset in preference to OSM-derived intersections.

Key findings are summarised in the accompanying reports. In brief: the majority of Melbourne neighbourhoods have low walkability and poor access to fresh food and to frequently serviced public transport, with the distribution of walkability and transport access favouring inner and middle suburbs; while 90% of residents have some public open space within 500 m, this falls to 66% for public open space of 1.5 hectares or larger; and approximately 20% of the population live in areas most vulnerable to urban heat, concentrated in the north-western and south-eastern suburbs. Melbourne's policy framework had good coverage of relevant urban planning and transport policies, but lacked measurable targets for over one third of the policy indicators.

What is included


Inputs (AU.zip, ~1.25 GB uncompressed) — the complete set of source data files and the study region configuration required to reproduce the analysis, laid out as expected by the GHSCI software (see "How to replicate", below):


  • AU_Melbourne_2025_1000m.yml— the study region configuration: data paths, coordinate reference system, network and analysis parameters, data provenance, licences and citations for every input, and the reporting configuration.
  • australia-260112.osm.pbf— OpenStreetMap extract for Australia.
  • GCCSA_2021_AUST_SHP_GDA2020.zip— study region boundary (Greater Melbourne).
  • SOS_2021_AUST_GDA2020_SHP.zip — urban region definition (Sections of State).
  • Australian_Population_Grid_2025_in_GEOTIFF_format/ — 1000 m population grid.
  • DTP PTV GTFS Feeds - September 2025/ — public transport timetable feeds.
  • DTP-Vicmap-Transport-Road-Infrastructure-2026-02-14/ (and .zip) — road intersections.
  • Melbourne 2025 report - 2026-06-16/— the completed urban policy checklist and a supporting policy document.
  • images/— the photographs of Melbourne used to illustrate the PDF reports, credited to Sonja Broersen and Carl Higgs (2026).

Outputs (AU_Melbourne_2025_1000m/) — the indicator results and documentation produced by the analysis:


  • AU_Melbourne_2025_1000m_indicators_region.csv — population-weighted city-level indicator estimates (one row).
  • AU_Melbourne_2025_1000m_indicators_1000m_2025.csv— indicator estimates for each populated 1000 m grid cell.
  • AU_Melbourne_2025_1000m_1600m_buffer.gpkg— GeoPackage of all spatial layers used and produced, including the study region and urban boundaries, population grid with indicators, pedestrian network nodes and edges, destinations, public open space and sample point estimates.
  • AU_Melbourne_2025_1000m_metadata.yml/ .xml— ISO 19115 metadata recording the full analysis configuration, data provenance and lineage.
  • output_data_dictionary.csv / .xlsx — plain-language descriptions of every output variable, its scale (city or grid) and its category.
  • AU_Melbourne_2025_1000m_scorecard_statistics.yml— contextual summary statistics.
  • PDF reports: policy indicators, spatial indicators, and combined policy and spatial indicators for Naarm / Melbourne 2025; supporting figures and maps.

Input data sources

Input

Source and citation

Licence

Study region boundary — Greater Melbourne (GCCSA, ASGS Edition 3, reference period July 2021 – June 2026)

Australian Bureau of Statistics (2021).

Greater Capital City Statistical Areas – 2021 – Shapefile

. Australian Statistical Geography Standard (ASGS) Edition 3.

https://www.abs.gov.au/statistics/standards/australian-statistical-geography-standard-asgs-edition-3/jul2021-jun2026

CC BY 4.0

Urban region — Section of State 2021 ('Major Urban', 'Other Urban'), used to restrict analysis to the urban portion of the study region

Australian Bureau of Statistics (2021).

Section of State – 2021 – Shapefile

. Australian Statistical Geography Standard (ASGS) Edition 3.

CC BY 4.0

Population — Australian population grid 2025, 1000 m resolution GeoTIFF (EPSG:3577)

Australian Bureau of Statistics (2026).

Regional population: Australian population grid 2025 in GeoTIFF format

.

https://www.abs.gov.au/statistics/people/population/regional-population/2024-25

. Accessed 31 March 2026.

CC BY 4.0

OpenStreetMap — Australia extract, published 12 January 2026; source of the pedestrian network, destinations and public open space

OpenStreetMap contributors; Geofabrik GmbH (2026).

https://download.geofabrik.de/australia-oceania/australia.html

ODbL 1.0

Street intersections — Vicmap Transport Road Infrastructure Point, extracted 14 February 2026 (signalised and unsignalised intersections and roundabouts)

Victorian Department of Transport and Planning (2026).

Vicmap Transport – Road Infrastructure Point

.

https://datashare.maps.vic.gov.au/

CC BY 4.0

Public transport — PTV GTFS schedule feeds, snapshot 3 October 2025; service frequency evaluated 6 October – 19 December 2025 for regional and metropolitan train, tram, bus and coach services

Public Transport Victoria / Department of Transport and Planning (2025).

GTFS schedule

.

https://opendata.transport.vic.gov.au/dataset/gtfs-schedule

CC BY 4.0

Urban policy checklist — 1000 Cities Challenge urban policy checklist v1.0.3, completed and validated for Melbourne

Global Observatory of Healthy and Sustainable Cities.

https://healthysustainablecities.org

See item files

Satellite imagery and global covariates for the optional Earth Engine indicators — Sentinel-2 surface reflectance (NDVI-based greenery for LPUGS), Landsat 8 Collection 2 and MODIS land surface temperature, and gridded population, subnational human development and infant mortality layers used in the GUHVI

Accessed at run time via Google Earth Engine; not redistributed here. GUHVI methods: Turner, R. et al. (2025).

Urban Climate

64:102716.

Per Earth Engine dataset terms

Global Human Settlement Layer urban covariates (air pollution, emissions, climate) linked at the city level

European Commission Joint Research Centre, GHS Urban Centre Database

Per GHSL terms


Contextual statistics reported in the outputs (Gini index, Human Development Index, GDP per capita) are sourced from the World Bank and UNDP, as recorded in the configuration file.

How to replicate the analysis


The analysis runs entirely inside Docker containers, so no local Python environment is required. Analysis of a city the size of Melbourne is computationally intensive and may take a number of hours.

See the following resources for directions on getting and using the GHSCI tools with optional Earth Engine indicators workflow:

  • https://github.com/healthysustainablecities/global-indicators/wiki
  • https://github.com/healthysustainablecities/global-indicators/tree/earth-engine#optional-indicators-using-google-earth-engine


1. Install Docker Desktop and ensure it is running.

2. Obtain the software. Download the latest version of the Global Healthy and Sustainable City Indicators (GHSCI) software (ee variant; here). We recommend using the most recent release rather than the exact version used here, as it will incorporate subsequent fixes and improvements; results may differ slightly between versions. The version used to produce these outputs is recorded in the metadata.yml/.xml lineage statement.

Because this analysis includes the optional Earth Engine indicators, use the Earth Engine variant of the software (the earth-engine branch/release, launched with global-indicators-ee.bat on Windows or bash ./global-indicators-ee.sh on macOS/Linux).


3. Register a Google Earth Engine project and authenticate, following the instructions at

https://github.com/healthysustainablecities/global-indicators/tree/earth-engine#how-to-generate-the-optional-spatial-urban-indicators.

This is required for the large public urban green space and urban heat vulnerability indicators. To skip these indicators instead, set `gee: false` in the configuration file and run the standard (non-Earth Engine) software.


4. Extract the input data. Download AU.zip from this repository and extract its contents into a new folder named AU within the software's process/data directory, so that the configuration file is located at process/data/AU/AU_Melbourne_2025_1000m.yml and, for example, the OpenStreetMap extract is at process/data/AU/australia-260112.osm.pbf.


5. Launch the software following the directions in the software guide (https://healthysustainablecities.github.io/software/): run .\\global-indicators-ee.bat (Windows) or bash ./global-indicators-ee.sh (macOS/Linux) from the repository root. This starts the analysis container along with a PostGIS/pgRouting database container.


6. Run the analysis. At the prompt inside the container, start Python (or Jupyter Lab via `lab`) and run:

python
import ghsci
r = ghsci.Region('data/AU/AU_Melbourne_2025_1000m.yml')
r.analysis()



7. Generate the outputs (indicator CSVs, GeoPackage, metadata, data dictionary, maps and PDF reports):


python
r.generate()


The photographs used to illustrate the reports are included in `AU.zip` at the paths listed under `reporting: images:` in the configuration, so the reports can be regenerated as published; substitute your own images there if preferred.


Progress and any warnings are written to a processing log in the region's output directory, process/data/_study_region_outputs/AU_Melbourne_2025_1000m, which is also where all outputs are written.

Licensing


Figshare permits a single licence per item. Open Data Commons (ODC) has been selected as the closest available match to the Open Data Commons Open Database License (ODbL 1.0) under which OpenStreetMap data — on which much of this analysis depends — is made available.

The individual input datasets are made available by their respective custodians under their own licences, which are recorded for each dataset in the configuration file (AU_Melbourne_2025_1000m.yml) and in the ISO 19115 metadata accompanying the outputs.

Australian Bureau of Statistics and Victorian Government inputs are provided under CC BY 4.0; the OpenStreetMap extract is provided under ODbL 1.0. Users must comply with the attribution and share-alike requirements of the respective source licences when reusing these data or any derived product. Derived outputs incorporating OpenStreetMap data are subject to ODbL.

The photographs of Melbourne included in AU.zip and reproduced in the PDF reports are the work of Sonja Broersen and Carl Higgs (2026) and are included to allow the reports to be regenerated as published; please retain the credits shown alongside each image.

Related resources


  • GHSCI software: https://github.com/healthysustainablecities/global-indicators
  • Software guide: https://healthysustainablecities.github.io/software/
  • Global Observatory of Healthy and Sustainable Cities: https://healthysustainablecities.org

This dataset is part of a larger collection

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Identifiers
ACN 633 798 857