Tracking Millimetre-Scale Movements from Space

Tracking Millimetre-Scale Movements from Space

Tracking Millimetre-Scale
Movements from Space

Tracking Millimetre-Scale Movements from Space

Tracking Millimetre-Scale
Movements from Space

5M Sq Km

Wide area monitoring

34

Critical assests monitored

100X

Faster data processing

Use cases

Not just tradional InSAR

Available globally

Continuous, reliable, and comprehensive monitoring 

Calibrated with GNSS

Satellite monitoring enhanced by IoT sensors, weather data, and more.

AI based risk index

State-of-the-art efficiency, made possible by AI and Cloud-Computing 

Frequently Asked Questions

What are the advantages of KorrAI’s remote monitoring?

Starting with the most evident advantage, remote monitoring is done remotely, without exposing people to hazards and bearing the financial and environmental costs related to it. However, it does not need to be completely remote, as we can combine it with ground sensors for enhancement, validation, and calibration purposes.


By basing our techniques on satellite data, we deliver the benefits of monitoring areas in such a comprehensive way that would be unfeasible by ground-based instruments. All of this without sacrificing performance unless compared to ultra-high precision or high-measuring-frequency instruments.

What are the limitations of remote monitoring?

Limitations vary depending on the application. However, some common limitations which are still not fully solved are: Frequency of monitoring: For certain types of data, there are not enough satellites to provide measurements as frequently as one would want. However, this is constantly improving and there are ways to mitigate this limitation. Surface Penetration: Though some degree of penetration might be possible, direct deep underground measurements or from building interiors are not possible. However, monitoring superficial expressions correlated to underground phenomena might be possible. Spatial resolution: Depending on the application, high levels of resolution can be technically or economically unfeasible to obtain by remote monitoring. This also continues to improve.

Why does monitoring ground motion matter?

Ground motion creates risks for communities, infrastructure, and the environment. Infrastructure damage: Ground motion can lead to substantial damage to buildings, roads, bridges, and other types of infrastructure. In the US, it is estimated that $300 to $400 million is spent annually repairing infrastructure damage caused by subsidence. Flood Risk: Areas of subsidence can be at higher risk of flooding, as they are often lower than the surrounding land. For example, in Houston, Texas, extensive subsidence has significantly increased the city's flood risk. Coastal Areas: Coastal cities are particularly vulnerable to subsidence, which can enhance the effects of sea-level rise. In Jakarta, Indonesia, for instance, the combination of subsidence and sea-level rise is causing parts of the city to sink by as much as 25 cm per year. Mining: Extensive mining activities can cause ground displacement and subsidence, leading to significant economic and environmental consequences. In the Ruhr region of Germany, more than 35,000 homes have been damaged by subsidence due to coal mining.

What are the advantages of KorrAI’s remote monitoring?

Starting with the most evident advantage, remote monitoring is done remotely, without exposing people to hazards and bearing the financial and environmental costs related to it. However, it does not need to be completely remote, as we can combine it with ground sensors for enhancement, validation, and calibration purposes.


By basing our techniques on satellite data, we deliver the benefits of monitoring areas in such a comprehensive way that would be unfeasible by ground-based instruments. All of this without sacrificing performance unless compared to ultra-high precision or high-measuring-frequency instruments.

What are the limitations of remote monitoring?

Limitations vary depending on the application. However, some common limitations which are still not fully solved are: Frequency of monitoring: For certain types of data, there are not enough satellites to provide measurements as frequently as one would want. However, this is constantly improving and there are ways to mitigate this limitation. Surface Penetration: Though some degree of penetration might be possible, direct deep underground measurements or from building interiors are not possible. However, monitoring superficial expressions correlated to underground phenomena might be possible. Spatial resolution: Depending on the application, high levels of resolution can be technically or economically unfeasible to obtain by remote monitoring. This also continues to improve.

Why does monitoring ground motion matter?

Ground motion creates risks for communities, infrastructure, and the environment. Infrastructure damage: Ground motion can lead to substantial damage to buildings, roads, bridges, and other types of infrastructure. In the US, it is estimated that $300 to $400 million is spent annually repairing infrastructure damage caused by subsidence. Flood Risk: Areas of subsidence can be at higher risk of flooding, as they are often lower than the surrounding land. For example, in Houston, Texas, extensive subsidence has significantly increased the city's flood risk. Coastal Areas: Coastal cities are particularly vulnerable to subsidence, which can enhance the effects of sea-level rise. In Jakarta, Indonesia, for instance, the combination of subsidence and sea-level rise is causing parts of the city to sink by as much as 25 cm per year. Mining: Extensive mining activities can cause ground displacement and subsidence, leading to significant economic and environmental consequences. In the Ruhr region of Germany, more than 35,000 homes have been damaged by subsidence due to coal mining.

What are the advantages of KorrAI’s remote monitoring?

Starting with the most evident advantage, remote monitoring is done remotely, without exposing people to hazards and bearing the financial and environmental costs related to it. However, it does not need to be completely remote, as we can combine it with ground sensors for enhancement, validation, and calibration purposes.


By basing our techniques on satellite data, we deliver the benefits of monitoring areas in such a comprehensive way that would be unfeasible by ground-based instruments. All of this without sacrificing performance unless compared to ultra-high precision or high-measuring-frequency instruments.

What are the limitations of remote monitoring?

Limitations vary depending on the application. However, some common limitations which are still not fully solved are: Frequency of monitoring: For certain types of data, there are not enough satellites to provide measurements as frequently as one would want. However, this is constantly improving and there are ways to mitigate this limitation. Surface Penetration: Though some degree of penetration might be possible, direct deep underground measurements or from building interiors are not possible. However, monitoring superficial expressions correlated to underground phenomena might be possible. Spatial resolution: Depending on the application, high levels of resolution can be technically or economically unfeasible to obtain by remote monitoring. This also continues to improve.

Why does monitoring ground motion matter?

Ground motion creates risks for communities, infrastructure, and the environment. Infrastructure damage: Ground motion can lead to substantial damage to buildings, roads, bridges, and other types of infrastructure. In the US, it is estimated that $300 to $400 million is spent annually repairing infrastructure damage caused by subsidence. Flood Risk: Areas of subsidence can be at higher risk of flooding, as they are often lower than the surrounding land. For example, in Houston, Texas, extensive subsidence has significantly increased the city's flood risk. Coastal Areas: Coastal cities are particularly vulnerable to subsidence, which can enhance the effects of sea-level rise. In Jakarta, Indonesia, for instance, the combination of subsidence and sea-level rise is causing parts of the city to sink by as much as 25 cm per year. Mining: Extensive mining activities can cause ground displacement and subsidence, leading to significant economic and environmental consequences. In the Ruhr region of Germany, more than 35,000 homes have been damaged by subsidence due to coal mining.

What are the advantages of KorrAI’s remote monitoring?

Starting with the most evident advantage, remote monitoring is done remotely, without exposing people to hazards and bearing the financial and environmental costs related to it. However, it does not need to be completely remote, as we can combine it with ground sensors for enhancement, validation, and calibration purposes.


By basing our techniques on satellite data, we deliver the benefits of monitoring areas in such a comprehensive way that would be unfeasible by ground-based instruments. All of this without sacrificing performance unless compared to ultra-high precision or high-measuring-frequency instruments.

What are the limitations of remote monitoring?

Limitations vary depending on the application. However, some common limitations which are still not fully solved are: Frequency of monitoring: For certain types of data, there are not enough satellites to provide measurements as frequently as one would want. However, this is constantly improving and there are ways to mitigate this limitation. Surface Penetration: Though some degree of penetration might be possible, direct deep underground measurements or from building interiors are not possible. However, monitoring superficial expressions correlated to underground phenomena might be possible. Spatial resolution: Depending on the application, high levels of resolution can be technically or economically unfeasible to obtain by remote monitoring. This also continues to improve.

Why does monitoring ground motion matter?

Ground motion creates risks for communities, infrastructure, and the environment. Infrastructure damage: Ground motion can lead to substantial damage to buildings, roads, bridges, and other types of infrastructure. In the US, it is estimated that $300 to $400 million is spent annually repairing infrastructure damage caused by subsidence. Flood Risk: Areas of subsidence can be at higher risk of flooding, as they are often lower than the surrounding land. For example, in Houston, Texas, extensive subsidence has significantly increased the city's flood risk. Coastal Areas: Coastal cities are particularly vulnerable to subsidence, which can enhance the effects of sea-level rise. In Jakarta, Indonesia, for instance, the combination of subsidence and sea-level rise is causing parts of the city to sink by as much as 25 cm per year. Mining: Extensive mining activities can cause ground displacement and subsidence, leading to significant economic and environmental consequences. In the Ruhr region of Germany, more than 35,000 homes have been damaged by subsidence due to coal mining.

Sign up to our Newsletter

Subscribe for updates on our solutions, new learning content and
networking opportunities.

Sign up to our Newsletter

Subscribe for updates on our solutions, new learning content and
networking opportunities.

Sign up to our Newsletter

Subscribe for updates on our solutions, new learning content and networking opportunities.

Ready to start the conversation?

Send us a message and we'll get back to you in less than 24 hrs

Ready to start the conversation?

Send us a message and we'll get back to you in less than 24 hrs

Ready to start the conversation?

Send us a message and we'll get back to you in less than 24 hrs

Ready to start the conversation?

Send us a message and we'll get back to you in less than 24 hrs

Our Approach

5M Sq Km

Wide area monitoring

34

Critical assests monitored

100X

Faster data processing

Our Approach

5M Sq Km

Wide area monitoring

34

Critical assests monitored

100X

Faster data processing

20x

Sq Km area monitored

Our Approach

5M Sq Km

Wide area monitoring

34

Critical assests monitored

100X

Faster data processing

Tracking Millimetre-Scale
Movements from Space

Tracking Millimetre-
Scale Movements from
Space