Our solutions
Explore our Solutions
From Research to Real-World Solutions
We combine high-level scientific research with advanced technology to deliver innovative services. Discover our high-tech geoinformation services, powered by remote sensing and AI algorithms.
Earth Observation for Climate Resilience
Our primary solution is the design, creation and management of systems and services for environmental, territorial and infrastructural surveillance. This includes providing up-to-date risk and impact assessments associated with natural disasters and extreme events, including those caused by climate change.


Multi-Source Satellite Data
We utilize multispectral, hyperspectral, and SAR (Synthetic Aperture Radar) satellite data to extract actionable insights that support environmental protection.
The Power of Earth Observation
Our approach harnesses the full potential of Earth Observation, from global coverage and long-term time-series to high spatial, temporal, and spectral resolutions.
Data Fusion & Validation
Our strategy also integrates in-situ measurements and modeled data with satellite imagery. These complementary information are crucial for the validation of our products and for developing data fusion pipelines.
Earth Observation for Climate Resilience
Our primary solution is the design, creation and management of systems and services for environmental, territorial and infrastructural surveillance. This includes providing up-to-date risk and impact assessments associated with natural disasters and extreme events, including those caused by climate change.

Multi-Source Satellite Data
We utilize multispectral, hyperspectral, and SAR (Synthetic Aperture Radar) satellite data to extract actionable insights that support environmental protection.
The Power of Earth Observation
Our approach harnesses the full potential of Earth Observation, from global coverage and long-term time-series to high spatial, temporal, and spectral resolutions.
Data Fusion & Validation
Our strategy also integrates in-situ measurements and modeled data with satellite imagery. These complementary information are crucial for the validation of our products and for developing data fusion pipelines.
Lightweight On-board AI
Lightweight
On-board AI
We develop lightweight AI algorithms to bring Earth Observation analysis directly on-board satellites. By adapting models to limited computing resources, we aim to process data close to acquisition and deliver useful information with less dependence on ground processing.
Model optimization and deployment
We work with optimization approaches, such as quantization and pruning, to reduce model size and computational demand while assessing their impact on predictive accuracy.
On-board processing
Our research targets tasks such as image classification, object detection, and parameter estimation. The aim is to extract relevant information in orbit and transmit compact data products to the ground.
Lightweight On-board AI
We develop lightweight AI algorithms to bring Earth Observation analysis directly on-board satellites. By adapting models to limited computing resources, we aim to process data close to acquisition and deliver useful information with less dependence on ground processing.
Model optimization and deployment
We work with optimization approaches, such as quantization and pruning, to reduce model size and computational demand while assessing their impact on predictive accuracy.
On-board processing
Our research targets tasks such as image classification, object detection, and parameter estimation. The aim is to extract relevant information in orbit and transmit compact data products to the ground.
Explainable AI
Given the high complexity of state-of-the-art AI models and the need to move beyond the "black box" paradigm, we research and develop explainable AI (xAI) solutions to guarantee algorithmic and scientific interpretability.
Algorithmic explainability
We explore xAI tools, including feature importance, activation maps, and saliency maps, to understand model behaviour and identify the factors that influence predictions.
Scientific interpretability
We implement methods to support the physical consistency of model predictions and their interpretation through mechanisms such as scattering and absorption. We also use physics-informed neural networks (PINNs) to integrate physical knowledge into model development.
Training and Dissemination
We deliver high-level training activities that combine theoretical foundations with hands-on sessions. In addition, our nature as a research-driven spin-off ensures that our courses are constantly updated with the latest emerging technologies.

EO data & Machine Learning
We offer introductory programs covering the fundamentals of Earth Observation, satellite data processing, and machine learning approaches. Our courses utilize both open-source softwares and Python environment.
Flexible learning formats
Our training sessions can be attended both in-person and online.
Training and Dissemination
We deliver high-level training activities that combine theoretical foundations with hands-on sessions. In addition, our nature as a research-driven spin-off ensures that our courses are constantly updated with the latest emerging technologies.

EO data & Machine Learning
We offer introductory programs covering the fundamentals of Earth Observation, satellite data processing, and machine learning approaches. Our courses utilize both open-source softwares and Python environment.
Flexible learning formats
Our training sessions can be attended both in-person and online.

Blue Dot Observation S.r.l.
Via Del Politecnico 1, 00133 Rome, Italy
VAT number: IT17951421001
A spin-off company of Tor Vergata University of Rome
Get in touch
Contact us

Blue Dot Observation S.r.l.
Via Del Politecnico 1, 00133 Rome, Italy
VAT number: IT17951421001
A spin-off company of Tor Vergata University of Rome
Get in touch
Contact us
Website Andrea De Clementi