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Software
Groundwater Visualisation System and other packages.


Groundwater Visualisation System (GVS), is a versatile software package that can produce 3D visualisation of geological and hydrological systems.

The 3D framework enables development of conceptual hydrogeological models. This format allows identification of temporal groundwater and surface water processes, and the time-space relationships between them. The ability to animate time-series data, interrogate and interact with the 3D model enables a greater understanding of the components, infrastructure and functions of groundwater systems.

GVS is a flexible and user-friendly groundwater management tool, developed by the Queensland University of Technology (QUT). GVS is easy to use and is based on open source software which can be readily redistributed.

GVS models are customised for specific project requirements. Models are designed in collaboration with hydrogeologists, software developers and visualisation specialists to maximise the value of underlying data. The models developed integrate a wide range of spatial and time series data from both surface and subsurface settings.

Potential application areas include:
  • Groundwater and surface water resource investigation and management
  • Integration of water resources to landuse
  • Coal seam gas operations, groundwater understanding and management
  • Groundwater dependent ecosystem (GDE) assessment
  • Open pit mining, quarrying operations and hydrology relations
  • Regional modelling of sedimentary basins and groundwaters
  • Sand island and coastal groundwater system modelling
  • Environment and climatic relations to hydrological systems


For further information and discussions on the individual requirements, types of data available, schedules and quotations contact: Professor Malcolm Cox email: or

*Note: Email address above is protected by Javascript. Email address will appear as image if Javascript is disabled.



Condamine catchment project
Condamine catchment project: plot window
North Stradbroke Island project: groundwater surface and cross section
Lockyer valley project: depth logs

Screen Images of 3D models


Galilee Basin: Surface geology and watercourses
Galilee Basin: Surface geology and watercourses
[JPG 256 KB]

Galilee Basin: Top down view of the Cadna-owie formation
Galilee Basin: Top down view of the Cadna-owie formation
[JPG 49 KB]

Galilee Basin: Key formation surfaces and bore stratigraphy
Galilee Basin: Key formation surfaces and bore stratigraphy
[JPG 238 KB]

Galilee Basin: surfaces and formations with the basin
Galilee Basin: surfaces and formations with the basin
[JPG 464 KB]

Tamborine Mountain: Model showing bores, roads, streams and cadastre
Tamborine Mountain: Model showing bores, roads, streams and cadastre
[JPG 245 KB]

Tamborine Mountain: Bores with aerial image overlay on topography
Tamborine Mountain: Bores with aerial image overlay on topography
[JPG 300 KB]

Tamborine Mountain: Sliced model showing bores and land use
Tamborine Mountain: Sliced model showing bores and land use
[JPG 156 KB]

 

Bribie Island: Topography, bores, and basement surface
Bribie Island: Topography, bores, and basement surface
[JPG 113 KB]

Bribie Island: cross-section showing bores and geology
Bribie Island: cross-section showing bores and geology
[JPG 185 KB]

Bribie Island: disks showing waterlevels for monitoring bores
Bribie Island: disks showing waterlevels for monitoring bores
[JPG 325 KB]

Bribie Island: interpolated aquifer water surfaces and bores
Bribie Island: interpolated aquifer water surfaces and bores
[JPG 235 KB]

Upper Obi Obi: visualisation model
Upper Obi Obi: visualisation model
[JPG 161 KB]

Obi Obi Catchment: geology and bore holes
Upper Obi Obi: geology and bore holes
[JPG 98.1 KB]

Upper Obi Obi Groundwater: Hydrograph and Streamflow vs Rainfall graph
Upper Obi Obi: groundwater Hydrograph and Streamflow vs Rainfall graph
[JPG 145 KB]

Upper Obi Obi: Groundwater Model
Upper Obi Obi: Groundwater Model
[JPG 191 KB]

North Stradbroke Island: Slice through the model showing water surface
North Stradbroke Island: Slice through the model showing water surface
[JPG 116 KB]

North Stradbroke Island: Bores showing labels and water level markers
North Stradbroke Island: Bores showing labels and water level markers
[JPG 29.2 KB]

North Stradbroke Island: GVS user interface
North Stradbroke Island: GVS user interface
[JPG 194 KB]

North Stradbroke Island: Model showing groundwater surface and cross section
North Stradbroke Island: Model showing groundwater surface and cross section
[JPG 209 KB]

North Stradbroke Island: Model with major roads and aerial image overlay
North Stradbroke Island: Model with major roads and aerial image overlay
[JPG 136 KB]

     

Condamine Catchment: observation bores
Condamine Catchment: observation bores
[JPG 131 KB]

Condamine Catchment: Topographic surface and basement surfaces
Condamine Catchment: Topographic surface and basement surfaces
[JPG 85.8 KB]

Condamine Catchment: bore positions with geology logs
Condamine Catchment: bore positions with geology logs
[JPG 267 KB]

Condamine Catchment: water levels
Condamine Catchment: water levels
[JPG 101 KB]

Condamine Catchment: surface geology
Condamine Catchment: surface geology
[JPG 110 KB]

Condamine Catchment: project area with bores
Condamine Catchment: project area with bores
[JPG 115 KB]

Condamine Catchment: surface landuse, sliced to reveal water surface.
Condamine Catchment: surface landuse, sliced to reveal water surface
[JPG 104 KB]

Condamine Catchment: rainfall information and hydrographs
Condamine Catchment: rainfall information and hydrographs
[JPG 206 KB]

Lockyer Valley: Alluvial depth
Lockyer Valley: Alluviual depth
[JPG 204 KB]

Lockyer Valley: Groundwater levels
Lockyer Valley: Groundwater levels
[JPG 199 KB]

Lockyer Valley: Geology overlay
Lockyer Valley: Geology overlay
[JPG 100 KB]

Lockyer Valley: Electrical conductivity
Lockyer Valley: Electrical conductivity
[JPG 88.4 KB]

Lockyer Valley: 4 observation bores
Lockyer Valley: 4 observation bores
[JPG 90.2 KB]

Lockyer Valley: observation bores with classified geology
Lockyer Valley: observation bores with classified geology
[JPG 73.1 KB]

Lockyer Valley: Alluvial outline and major water coarses
Lockyer Valley: Alluvial outline and major water coarses
[JPG 97.8 KB]

Lockyer Valley: geology, casing and screen zone of bores
Lockyer Valley: geology, casing and screen zone of bores
[JPG 111 KB]

Lockyer Valley: Alluvial geology interpolated with observation bores
Lockyer Valley: Alluvial geology interpolated with observation bores
[JPG 214 KB]

     

Howard East: bore positions and depths
Howard East: bore positions and depths
[JPG 137 KB]

Howard East bores and bore depths
Howard East: bores and bore depths
[JPG 138 KB]

Howard East: bore indicator levels
Howard East: bore indicator levels
[JPG 33.9 KB]

Howard East model formed from driller logs
Howard East: model formed from driller logs
[JPG 158 KB]





Carbonate Speciation tool

This spreadsheet calculates carbonate speciation using carbonate equilibrium equations at standard conditions (T=25°C) with ionic strength corrections. The user will typically be able to calculate the different carbonate species by entering total alkalinity and pH. This spreadsheet contains additional tools to calculate the Langelier Index for calcium and the SAR of the water.
A feedback form must be completed prior to download.

Download the Carbonate Speciation tool




Pumicestone Passage: Presentation visuals

What we know about the Pumicestone, Current science of the Pumicestone Passage
Pumicestone Science forum, 6 April 2011 Held at Innovation Centre Auditorium, University of the Sunshine Coast.

Water surface elevation
Animation displaying water surface elevation as coloured contours.
The lag of the southern inlet behind the northern inlet can clearly be seen as can the extensive wetting and drying occurring in the study area.
View animation [Youtube video]

Null point
Animation presenting the four dye injection points inserted into the Pumicestone Passage. The Central Passage was chosen so the movement of the null point could be seen. Both tides can be seen entering Coochin Creek.
View animation [Youtube video]

Northerly movement
Animation presenting two dye injection points in the northern Passage.
View animation [Youtube video]

Pumicestone Dye Injection
Animation displaying how much larger the tidal excursions are in the southern estuary due to the large unobstructed opening and the complexity of flows within the Passage.
Passage image: View animation [Youtube video]
No Passage image: View animation [Youtube video]

Data originally supplied by Genevieve Larsen, MAppSc 2007, (Model of surface water flows, tidal responses and effect of flood events using SMS. School of Natural Resource Sciences, QUT). Images have been enhanced and summary animations produced by Genevieve Larsen, David Warne, Joe Young and Malcolm Cox 2011.
Presentations copyright by the developers 2011, permissions granted.