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New Zealand Applications & Partnerships

SatSense’s technology is already embedded in New Zealand’s national-scale land movement mapping. Working in partnership with Earth Sciences New Zealand (formerly GNS Science), they have created comprehensive ground motion datasets that cover the entire country.

Avant takes this high-precision dataset and applies local geology, soil science, and hazard records to produce LandSure reports and interactive dashboards.

SatSense’s monitoring starts with Sentinel-1 C-band radar imagery, which captures both vertical and horizontal ground displacement. These radar scans are then processed through proprietary algorithms designed to reduce noise and extract accurate movement patterns.

SatSense remains at the forefront of InSAR capability through ongoing collaboration with academic partners. This approach ensures constant refinement of their processing methods, enabling them to detect not only the presence of ground movement, but also changes in the rate of that movement.

 

This early-warning capability is critical for identifying slope failures, subsidence, and other stability risks before they become visible or cause damage.

SatSense remains at the forefront of InSAR technology through continuous collaboration with academic partners, ensuring their processing methods stay cutting-edge. They work to detect and detail specific changes in land-movement rate. This allows for early warnings for slope failures, subsidence, and other stability risks before damage occurs.

Low Orbit Satellite image of a public airport on the water edge.webp

Available in New Zealand for Residential Civil & Planning

SatSense's technology converts satellite radar data into deformation time-series, which show subtle, long-term trends and rapid changes, that traditional surveys can often miss.

Proven Technology, Global Reach

With origins at the University of Leeds, SatSense’s algorithms are backed by decades of research and validated across hundreds of infrastructure, hazard, and asset monitoring projects on six continents.

 

Using the European Space Agency’s Sentinel-1 satellites, they revisit the same location every 6–12 days, detecting vertical and horizontal movement as small as ±2–5 mm/year. Historical archives extend back to 2014, giving a decade-long view of land behaviour.

SatSense InSAR ground-motion map over an aerial image of rural farmland and a road/bridge. White monitoring points and orange-to-red heat patches highlight localised subsidence along the carriageway. Legend shows ‘LOS Displacement (mm/yr)’ bands: −100 to −6, −6 to −4, −4 to −2, −2 to 2, 2 to 4, 4 to 6, 6 to 100. A yellow box marks the highest-magnitude area.

Scalable, Accurate, and Actionable

Whether tracking subsidence at a single home, monitoring railway infrastructure across hundreds of kilometres, or surveying national-scale geological hazards, SatSense's technology provides the same millimetre-level precision and reliability.

 

This scalability makes comprehensive monitoring economically viable across projects of any size, from individual property assessments to country-wide hazard mapping initiatives.

Oblique 3D view of a mountainous slope with dense SatSense InSAR measurement points (white/pink/red). A red cluster indicates an active landslide zone intersected by a track/road; a yellow pin marks a selected point. Inset chart at left shows a displacement time-series (2018–2022) trending downward with a slight recovery; ‘Trend line’ and ‘Legend’ toggles visible.

Bringing SatSense to New Zealand

Avant is SatSense’s technology partner for residential projects in New Zealand. We combine SatSense’s high-precision ground motion data with local geology, soil maps, and hazard records, producing reports and dashboards tailored for New Zealand’s planning, engineering, insurance, and hazard management needs.

SatSense InSAR deformation raster with multi-colour fringes (blue–green–yellow–red). Concentric, elliptical rings indicate a localised deformation bowl; dotted mapping lines cross the scene diagonally. Used for regional screening of ground movement and fault-related patterns.
Headshot of Matthew Bray, CEO of SatSense, smiling in a light grey checkered shirt against a plain white background.

Matthew Bray

CEO

Headshot of Professor Tim Wright, Co-Founder and Director at SatSense, wearing glasses, a blue blazer, and a checked shirt, smiling against a plain white background.

Professor Tim Wright

Co-Founder | Director

Headshot of Professor Andy Hooper, Co-Founder and Director at SatSense, wearing glasses, a dark blazer, and light blue shirt, smiling against a plain white background.

Professor Andy Hooper

Co-Founder | Director

Headshot of Karsten Spaans, Lead Engineer at SatSense, wearing a light purple button-up shirt, smiling against a plain white background.

Karsten Spaans

Lead Engineer

Headshot of Dr Jennifer Scoular, Head of Product at SatSense, smiling and wearing round glasses with a light pink button-up shirt, set against a plain white background.

Dr Jennifer Scoular

Head of Product

Dr Nick Dodds - Head of InSAR Solutions SatSense.webp

Dr Nick Dodds

Head of InSAR Solutions

3D satellite radar visual with InSAR datapoints overlaid by SatSense software, monitoring bridge infrastructure and surrounding urban areas for ground movement and structural stability. The coloured measurement dots track subtle land and structural deformation, enabling detection of long-term settlement, subsidence, and stability risks. Used in New Zealand civil and planning projects to ensure safe and resilient infrastructure.
SatSense logo. Global leader InSAR Satellite Data analysis for

Global Leaders in Ground Movement Monitoring

SatSense is the global authority in detecting and measuring ground movement in New Zealand, with millimetre precision, their aim is to make InSAR technology accessible and affordable.


Their advanced Interferometric Synthetic Aperture Radar (InSAR) technology turns satellite radar data into accurate, time-stamped movement maps. They provide historical and up-to-date monitoring data to show changes to the land, typically invisible with the naked eye

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