Airborne
Remote Sensing
Bathymetric and topographic LiDAR
(532, 1064, 1550nm)
VNIR/SWIR hyperspectral
(400-2500nm)
Hi-res spectral
Thermal IR
Microwave
(active, passive, InSAR, L-,P-,Ka, Ku)
Photography
Video
... probing the environment using the least intrusive and
cost-efficient state-of-the-art airborne technologies ...
AIRBORNE
In-Situ
Meteorological
(wind, turbulence, air temperature, humidity,
eddy fluxes, ...)
Particles
(fine, ultra-fine,
sampling, ..)
Trace Gases
(CO2, CH4, NH3, ...)
Aerosols
Multi-platform
UAV-sensors
Third Party Sensors
QuickLinks
Projects
Presentations
Publications
Image Gallery
Videos
Instrumentation
Airborne Platforms
2020 Desk Calendar
Unrestricted research flight operations Australia-wide - day and night - over land and water - 25m to 7km altitude
Not-for-Profit Independent Approved Research Institute
SOME RECENT HIGHLIGHTS
Airborne Mapping for Bushfire Recovery
- 2019/20 Cudlee Creek and Kangaroo Island Fires -
CIR: Colour InfraRed
derived from hyperspectral measurements (128 bands)
CIR-image of burnt and un-burnt land
red: un-burnt; black: burnt (or water)
Burnt-down house
See more results
and imagery here
3m-wide crosssection (see line above)
through Lidar pointcloud coloured with CIR.
Note the partially burnt trees.
In late Dec 2019 and Jan 2020, large bushfires devastated areas
in the Adelaide Hills and on Kangaroo Island in South Australia.
To assist in the recovery process, we are mapping specific areas using
high resolution LiDAR, VNIR hyperspectral scanning and high resolution RGB imaging.
There are now also two 3D-interactive views of the Lidar pointcloud - click the image - and make sure you set POTREE to "High Quality".
Zoom in to individual tree size.
To our amazement, we even found two eagles
soaring over the forest. And yes, these are eagles, the lager one has a wingspan of 1.48m.
Check it out yourself in the POTREE animation !
Most data from these flights is available (at no cost) to interested parties.
To download the data and images, click here
For further details and also if you would like to propose specific areas for mapping,
contact bushfire@airborneresearch.org.au.
This work is substantially supported by the
"Removing" the rainforest on Cape York
reveals a landscape of hills and creeks
that no human eye has ever seen.
Using our high-resolution airborne Lidar,
we were able to find out what's hidden under the very dense canopy of the rainforest.
See the whole landscape with the "Trees/noTrees" sliders:
then
Read more about the project here...
Joint study by ARA-Airborne Research Australia and the IRRS - Iron Range Research Station.
Nothing but trees.... ....nesting mounds Nothing but trees... ....old diggings from
(aerial photo) of scrub fowls (aerial photo) a mini-goldrush invisible below. invisible below.
Ultrafine Particles and Coal-Fired Power Stations
A decade of airborne regional-scale measurements of aerosol size distributions
and meteorological parameters allows to identify major sources.
UFP influence rainfall distribution via aerosol-cloud interaction.
Joint study by ARA/Flinders University and the Karlsruhe Institute of Technology (KIT).
Inner Mongolia, China
Europe
Eastern Australia
Mangrove Dieback along the coast of the Gulf of Carpentaria
In Aug/Sep 2017, we mapped the mangrove dieback
that is currently occurring in many areas
along the coastline of the Gulf of Carpentaria
in Far North Queensland and the Northern Territory
Sensors used: Riegl Q680i-S LiDAR
Canon DSLR EOS 5D MkII
modified Canon DSLR EOS 6D (for ndvi)
Roper River, NT
Use the slider to see the mangroves before and after the dieback
Google Earth image 2005
Airborne Photomosaic Aug 2017
healthy
dead
hi-res airborne LiDAR
10m wide
cross-section
1m wide
cross-section
hi-res airborne LiDAR
The data from the example above can be downloaded from these links:
The team
More than 6,000km of flightlines were mapped over 3 weeks yielding >3,000sqkm of covered area.
The project and data capture is described in detail in this document:
The document also contains links to the full data set.
All data are freely available for download.
A collaborative project with funding from: Charles-Darwin University, TropWater/JCU, Queensland Herbarium and ARA; supported by R. Lucas, U of Wales Aberystwyth, UK and Riegl Lasermesstechnik, Austria.
All data will also become available on the TERN/AusCover portal.
LiDAR bathymetry of Ningaloo Reef, NW-Western Australia
We recently flew our topographic and bathymetric Lidars over Ningaloo Reef. We were very fortunate with the weather and water conditions, so we were able to "see" into the water all the way down to more than 13m depth.
The topographic Lidar (a Riegl Q680i-S) was mapping the water surface, giving us an image of the waves crashing into the reef edge, while the bathymetric Lidar (a Riegl VQ820G) gave us a very detailed image of the reef structure below.
Use the slider to uncover the underwater reef structure !
Results from a collaborative study with Ryan Lowe and Jeff Hansen, Univerity of Western Australia
If you would like to see how this area looks from the cockpit of the research aircraft, go to our Facebook page .
LiDAR 3D-Visualisation
We just started to use the potree software to visualise some of our LiDAR data.
Two examples are already available:
Rendered by TERN/AusCover
using data collected by ARA
Rendered by ARA
using data collected by ARA
WHAT WE DO
WHO WE ARE
We are an independent certified Not-For-Profit Approved Research Institute (ARI) with strong links into the science networks nationally and internationally.
We have a long-standing solid track record of involvement and leadership in a large number of Australian and international science-based projects where the use of airborne technologies were essential.
HOW WE OPERATE
or
SHARING IS THE KEY
Most of our work is done in collaboration or partnerships with Universities, public entities or Industry.
As an ARI, our policy will continue to keep our work as transparent and traceable as possible manifested through the use of open source software, open and free discussions with collaborators and other specialists in the field about methodologies and procedures, and by making the data collected during science-based projects available to the relevant communities through open data repositories and archives - whenever possible and controlled by appropriate procedures.
We have a policy of sharing our airborne technology, data and expertise - in particular with students, scientists and small groups and businesses such as ours.
To facilitate airborne data capture and/or trials in the context of student projects, small scientific projects and projects in collaboration with other Not-For-Profit entities, we maintain a register of desired locations and types of data on the basis of which we may then propose to combine them to make them feasible.
As our aircraft are based on advanced gliding technology, they have the capability to glide for long distances in the event of an engine failure allowing us to operate safely far out over water and over unlandable areas.
Our airborne systems do not require any airport infrastructure for their operation which makes deployment very flexible.
As we operate two nearly identical airborne platforms, there is the ability to fly a large number of sensors in tandem, or if required, identical sensors simultaneously at different altitudes.
The environmental impact of our research platforms in terms of
- carbon dioxide footprint
- exhaust pollution
-noise pollution
- visual impact
is far smaller than that of any other airborne research platform in operation today.
This has enabled us to operate over the most environmentally sensitive areas, such as flying at low altitudes over the protected coral reefs of the Great Barrier Reef or in the wilderness areas of Southern Tasmania.
ENVIRONMENTAL FOOTPRINT
SPECIAL FEATURES
SENSORS & SENSOR SUITES
airborne and ground-based
HYPERSPECTRAL & SPECTRAL
Hyper-spectral scanner SPECIM EAGLE II
(optimised ARA version, VNIR 400-1000nm, up to 488 bands, 1024 pixels/line)
Hyper-spectral scanner SPECIM HAWK
(optimised ARA version, SWIR 970-2500nm, up to 254 bands, 320 pixels/line)
Tri-spectral imager MosaicMill CANON 6D
(red, green, nir - mainly for ndvi - 21 MPix)
Tri-spectral scanner ARA/AWI TSLS
(red, green, nir - mainly for ndvi - 2048 cross-track pixels, 50lps)
Single Band line scanner RUNNER
( single band btw 390 and 1050nm - 2048 cross-track pixels, >1KH lps )
MICROWAVE
Passive microwave L-Band radiometry
(for soil moisture, sea surface / river salinity)
Passive microwave P-, Ka- Ku-Band radiometry
(for soil moisture, sea surface / river salinity)
Active L-Band microwave SAR, InSAR
(for high-res soil moisture, salinity, vegetation)
ATMOSPHERIC PARAMETERS
METpod, BATprobe and Z-Probe
(Air Temperature, Humidity, 3D-wind vector, Air Pressure)
AIRBORNE EDDY-CORRELATION (FLUXES)
(for airborne flux measurements of heat, water vapour and CO2)
TRACE GASES, PARTICLES, AEROSOL
Meteorological trace gas, particle and aerosol sensors
Quantum-cascade laser gas analysers
(for methane, ammonia, nitrous oxide in ppb-range)
OTHER
Other more specialised instrumentation
(radon sampler, trace gas sampler, etc]
LiDAR
Full waveform scanning LiDAR RIEGL Q560
(up to 240kHz pulse rate, operating at 1550nm)
Full waveform scanning LiDAR RIEGL Q680i-S
(up to 400kHz pulse rate, operating at 1064nm)
Bathymetric scanning LiDAR RIEGL VQ820G
(operating at 532nm)
THERMAL INFRARED
Thermal Infrared imager
(FLIR A615 & S60)
STILL & VIDEO
Hi-res still and video cameras
(Canon 1D, 5D; GoPro, other)
AIRCRAFT PARAMETERS & INFRASTRUCTURE
Several high-precision IMU/GPS systems
Novatel SPAN with LITEF LCI, Novatel SPAN with LITEF ISA
tactical-grade;
3 x OXTS RT4003 L1/L2/dual antenna MEMS-based
(3D-position and inertial speed;
attitude angles, accelerations, rates)
Laser Altimeter
(Riegl LD90LR)
BATprobe and Z-Probe
(Air Angles, dynamic pressure)
Comprehensive on-board infrastructure
(PCs, Ethernet/wireless throughout, Internet connection,
flight tracker, external science power - uninterrupted
switching from ground- to aircraft power, etc.)
GROUND-BASED
GPS Basestation
Spectrometer ASD
10m high mobile Flux Tower
