Skip to main content
Generic selectors
Exact matches only
Search in title
Search in content
Post Type Selectors
caso-studio
corso
Filter by Categories
Advanced AI Methods
Aerospace
Biomedical
Cybersecurity
Distributed Learning
Efficient Edge AI
Hyperdimensional Computing
Quantum computing
Renewable energy

A Study on structural health monitoring of a large space antenna via distributed sensors and deep learning

AI-powered Bi-LSTM detect structural damage in flexible satellite antennas with over 99% accuracy using onboard sensor data.

Artificial Intelligence in Space: Structural Health Monitoring for Flexible Satellite Antennas

When we think of Artificial Intelligence (AI) in space, we often picture autonomous rovers on Mars or satellites processing images in real time. Yet one of the most concrete and strategic applications is emerging in a less visible, but crucial, domain: the structural monitoring of large space antennas.

The Challenge of Monitoring Fragile Components in Orbit

As scientific missions grow more complex, satellites are equipped with increasingly wide and lightweight appendages, such as Large Mesh Reflector Models. These structures are essential for data collection, but also highly vulnerable to localized damage which, if undetected, can irreversibly compromise the mission.

How Deep Learning Detects Structural Anomalies

The answer lies in AI, specifically, Deep Learning. A recent study has shown how an advanced recurrent neural network, a Bi-LSTM (Bidirectional Long Short-Term Memory), can accurately detect breaks and partial damage in structural components of space antennas by analyzing data from a distributed network of accelerometers installed on the structure.

From Realistic Data to High-Accuracy Detection

The system simulates the satellite’s dynamic behavior during orbital maneuvers and collects realistic data, including noise. The signals are normalized, segmented at key moments, and used to train the AI model. The outcome? In some cases, the model achieves over 99% accuracy in distinguishing between intact, damaged, or broken antenna states.

Sensor Placement as an AI-Driven Design Variable

One key insight concerns sensor placement: damage near the antenna’s attachment point to the satellite body is more easily detectable. For more peripheral injuries, such as those on the support truss, the AI has difficulty distinguishing between healthy and compromised conditions. This opens up new possibilities: using AI not just for data analysis, but also for optimizing sensor layout during the design phase.

Toward Autonomous, Resilient Satellite Architectures

In an era where every satellite component must deliver maximum reliability and resilience, intelligent monitoring systems like this may become an integral part of future space architectures. No longer limited to ground-based control or occasional inspections, they act as a true “orbital sixth sense,” capable of recognizing even the slightest sign of failure in real time. Because in space, even the smallest damage can make a huge difference.

Authors

F. Angeletti, P. Iannelli, P. Gasbarri, M. Panella, A. Rosato
December 29, 2022

Recommended

Recommended

More articles to read
Quantum computing

From graphs to qubits: a critical review of quantum graph neural networks

Quantum Graph Neural Networks merge relational learning with quantum computing to explore new paths toward more efficient AI.
Renewable energy

A Review of the Enabling Methodologies for Knowledge Discovery from Smart Grids Data

A KDD-driven pipeline turns smart meter streams into multi-step load forecasts, benchmarking feature reduction and models.
Quantum computing

Risc-v isa extensions with hardware acceleration for hyperdimensional computing

RISC-V hardware acceleration makes hyperdimensional computing up to 2665× faster while preserving flexibility and programmability.
Biomedical

Enhancing Autism Detection Through Gaze Analysis Using Eye Tracking Sensors and Data Attribution with Distillation in Deep Neural Networks

A deep learning model enhances early autism diagnosis by analyzing visual patterns with eye tracking.
Quantum computing

Quantum Generative Modeling via Straightforward State Preparation

A lightweight quantum generative model creates high-fidelity data samples with minimal parameters and efficient state preparation.
Quantum computing

Enhancing QAOA Ansatz via Multi-Parameterized Layer and Blockwise Optimization

A novel quantum-classical algorithm boosts QAOA performance with fewer layers, enabling real-world optimization on NISQ devices.
Renewable energy

A Deep Learning-based Approach for Battery Life Classification

A deep learning-based LSTM network accurately classifies battery health, optimizing energy storage and predictive maintenance.
Biomedical

An explainable fast deep neural network for emotion recognition

A fast, explainable deep neural network enhances emotion recognition by optimizing facial landmark analysis.
Quantum computing

Evolving Hybrid Quantum-Classical GRU Architectures for Multivariate Time Series

QGRU combines quantum circuits with recurrent learning to forecast complex time series with fewer parameters and faster computation.
Renewable energy

Multi-label classification with imbalanced classes by fuzzy deep neural networks

A fuzzy deep neural network accurately classifies household appliances in real time using symbolic data and multi-label AI.

Do you have a specific need?

Fill out the form and tell us about your project.
We'll propose the solution that best fits your context.

Do you have a specific need?

Fill out the form and tell us about your project. We'll propose the solution that best fits your context.
GRID+ Copyright © 2026. All Rights Reserved.
VAT No. 17387741006 | The capital has been paid up in full €10,000 | RM – 1715269
GRID+ Copyright © 2026. All Rights Reserved.
VAT No. 17387741006 | The capital has been paid up in full €10,000 | RM – 1715269
P. IVA 17387741006 · The capital has been paid up in full €10,000 | RM – 1715269