Designed to conduct tests, trials, inspections, verifications, and validations in preparation for software certification. It has a robust and highly specialized technological infrastructure, with a network of high-performance servers offering virtualized environments for testing, complemented by a wide range of physical devices. The laboratory is supported by a secure and redundant network, guaranteeing high availability and protection against failures. It has testing tools to speed up testing, guaranteeing reusability and accuracy. The laboratory adopts quality management and information security systems to ensure compliance with norms and standards. It has access control and sensitive data protection policies, ensuring the confidentiality and integrity of information.

It is equipped with high-performance computing clusters, advanced data storage solutions, and software development tools. This laboratory carries out R&D projects in software engineering. It focuses on creating robust, scalable, and efficient software systems that take advantage of the latest advances in software engineering, namely scalable and secure software architectures, technologies such as cloud computing, and DevOps practices. In terms of data intelligence, it develops advanced algorithms and models using supervised and unsupervised learning techniques, deep learning, natural language processing, reinforcement learning, and practical implementations of these techniques.

 Robust and highly specialized technological infrastructure, equipped with high-performance servers and graphics processing capacity (GPU, TPU...) for inference with deep learning models. It also allows for implementing vision software as a service (SASS), consumed by different types of demonstrators. It has a set of standards for developing and testing vision algorithms that are as close as possible to the image sensor. It has a set of RGB, Multispectral, Thermal, and Linear Matrix cameras. It has fixed and portable 3D sensors for surveying 3D point clouds for industrial applications and optical quality inspections. It has test scenarios on an experimental scale for capturing images and videos of objects on production lines and conveyor belts. 

They are designed to develop solutions to support collaborative digital design, construction, and virtual management of the built environment and other structures. It has a highly specialized technological infrastructure, equipped with high-performance servers and graphics processing capacity (GPU, TPU) to store and share project data between building owners, architects, specialist planners, contractors and operators. With software that converts planning into a 3D virtual model, with the ability to develop applications for the interoperable visualization of BIM models in 3-D, immersive, and interactive environments using VR glasses. With laser and photogrammetric technology for creating point clouds, it is possible to monitor the progress and quality of construction to serve as detailed geometric references during the BIM modeling of buildings and infrastructures.

Dedicated to advancing the digital twins technological fields and simulation technologies, this laboratory focuses on high-fidelity model development, integration with IoT devices to feed real-time data into digital twins, the anticipation of system failures, and proactive maintenance scheduling, thus reducing downtime and costs; and, process optimization, to improve efficiency and performance in various applications, from manufacturing to urban infrastructures. In the context of simulation, it involves the use of random variables and probability distributions to model and analyze complex, inherently uncertain systems, with a strong focus on (1) Modeling random processes, (2) Using Monte Carlo simulations, (3) Queuing theory with the application of stochastic models; and, (4) Quantifying uncertainty.

Equipped with multi-technology, from oscilloscopes and soldering stations to 3D printers and prototyping platforms. In this laboratory, teams from the different Research and Innovation departments find an environment conducive to integrating their specialties. This holistic approach drives innovation and allows complex problems to be solved comprehensively. From developing intelligent medical devices to optimizing sustainable energy systems, the laboratory promotes a constant exchange of ideas and methods. More than a physical space, it catalyzes discoveries that transcend disciplinary boundaries, giving researchers the tools to tackle global challenges with practical and impactful interdisciplinary solutions.

Studies complex sociotechnical systems that involve 1) cyber-physical devices equipped with automation, 2) humans in the role of operators of these devices, and 3) the surrounding physical and social environment. Its main objective is the development of intuitive human-machine interfaces. The laboratory focuses on interaction design, understanding user needs, and observational and experimental studies. These studies involve test subjects interacting with functional prototypes, mockups, or finished products to improve interaction iteratively. It is a multidisciplinary laboratory, combining skills ranging from engineering to design and social sciences. By bringing the user closer to the research product, the laboratory helps align R&D with the actual needs of companies and citizens, an essential tool in the CCG's technology transfer mission.

Advanced infrastructure for extended reality experiences. AR/VR headsets, haptic gloves, and other equipment make creating and testing virtual and augmented environments possible. It targets innovations in different sectors such as industry, heritage, health, textiles, footwear, architecture, and construction, promoting total immersion in simulated scenarios. The infrastructure supports autonomous devices, guaranteeing mobility and exceptional user experiences.  It is an XR experimentation center that offers diverse devices that explore interactivity and immersion. Designed to develop advanced solutions, it is a valuable resource for professionals and enthusiasts looking to transcend the limits of reality.

Unlike traditional robots, collaborative robots can operate near humans, guaranteeing their safety, and can be used for direct support tasks. On the other hand, cognitive robots combine safety with the ability to interact directly, fluidly, and intuitively. They are equipped with sensors and control systems that allow them to understand the actions and needs of the human partner and respond to them in a complementary way, in a dynamic of true joint action. This laboratory aims to develop and test this type of intelligent robotic system. Its focus is developing control architectures inspired by the cognitive processes supporting human-to-human interaction and user-centered design principles. Its main motivation is the expansion of robotics into contexts that still need to be improved due to their complexity and need for human participation.