We stand at the forefront of the quantum revolution, developing integrated software and hardware solutions. Our work is based on precise control of quantum systems to enable disruptive technologies in computing, metrology, and secure communications.
We focus on three strategic areas: Quantum Sensing and Metrology, where we create ultra-precise sensors with applications in telecommunications, defense, and biotechnology; Quantum Communications, where we implement Quantum Key Distribution (QKD) protocols and platforms for quantum repeaters, essential for the future quantum internet; and Quantum Computing, where we design algorithms and qubit control systems to solve complex problems and develop software for Quantum Machine Learning (QML) with diverse applications.
By combining our multidisciplinary expertise, we build scalable and secure quantum platforms that drive innovation across critical sectors.
Protecting information in a hyperconnected future requires going beyond classical cryptography. We develop quantum communication protocols that enable secure key exchange through Quantum Key Distribution (QKD), integrating our expertise in quantum information theory with advanced instrumentation and state-of-the-art detection systems. We also develop hardware platforms designed to function as quantum repeaters, capable of storing and distributing entangled photon information, an essential step toward deploying the quantum internet.
At Gradiant, we research new generations of quantum sensors that exploit the unique properties of matter and light to achieve precision levels unattainable with classical technologies. Our quantum optics laboratory and specialized team in physics, electronics, and photonics work with atomic, solid-state, and photonic chip platforms, applying advanced control and entanglement techniques. These tools allow the development of devices such as quantum magnetometers, thermometers, and high-sensitivity electromagnetic... Continue reading
Quantum computing enables the resolution of problems beyond the reach of conventional computing, from material simulation to logistics optimization and drug design. At Gradiant, we combine expertise in quantum physics, radiofrequency, electronic control, and FPGA design to create more precise and scalable qubit control systems, a key factor in increasing the power of quantum computers. We also research new software approaches and quantum algorithms, including Quantum Machine... Continue reading
