Grounded in first physics principles, Project ÆTHER focuses on delivering robust and precise localization solutions essential for navigation, communication, and control in dynamic and challenging environments using modern AI-driven techniques within conventional automation frameworks.
Project ÆTHER has specialized initiatives, each targeting a critical domain within autonomy and aerospace systems. These initiatives progress in parallel, driving innovation across engineering solutions, computational models, physics-based insights, and algorithmic development.
Focused on mitigating ionospheric effects on satellite communication and localization signals. By studying L1 and L5 GPS signals, Ion aims to understand, identify, and test advanced techniques for countering ionospheric impacts, enhancing the reliability of satellite-based navigation and communication.
EAD explores the development of electroaerodynamic (EAD) thrusters, also known as ionic wind thrusters. These innovative propulsion systems are being designed for in-atmosphere applications, targeting micro to mini-sized aircraft. The project aims to achieve silent, efficient, and compact propulsion solutions that redefine the capabilities of small autonomous aircraft.
IGNITE
IGNITE is a ground-based testing and calibration platform designed to validate and refine the technologies developed under Project ÆTHER. By providing a controlled environment for rigorous testing, IGNITE ensures that all components meet performance, precision, and reliability standards before integration into operational systems, accelerating the path from development to deployment.
Dedicated to developing machine learning-based sensor fusion techniques for airborne localization. This effort prioritizes precision, accuracy, cost efficiency, and speed, enabling robust and scalable localization solutions for aviation systems.
Algorithms developed include IRNN-DNN and MEECA.
StarDust focuses on engineering distributed sensor systems that integrate wireless communication and data aggregation from multiple embedded nodes. By enabling seamless integration of data from diverse sensors, StarDust enhances situational awareness and decision-making capabilities, paving the way for advanced autonomous aerospace systems with superior responsiveness and adaptability.
