UX Lab

Conducting in-depth studies to understand user needs, behaviors, and pain points through interviews, surveys, and usability testing. Using XR environments to analyze user behavior and optimize product usability in realistic, interactive setting

Assessing the physical and cognitive ergonomics of digital and physical products, ensuring comfort, efficiency, and safety in user interaction

Leveraging Virtual Reality (VR), Augmented Reality (AR), and Mixed Reality (MR) to prototype, visualize, and test digital products and related processes in immersive environments

Designing and developing digital human-machine interfaces (HMIs) using modern design tools to improve accessibility, usability and engagement

Exploring the integration of artificial intelligence to create more intuitive, adaptive and responsive digital experiences, creating and testing interactive web and mobile applications with a focus on usability and performance

Hosting hands-on sessions for students, designers, developers and companies to enhance their skills in UX research, digital tools, and human-centered design

Proximity Machinery through Distributed Augmented Reality HMI Layers for Empowering Industrial operators in Low Resources Scenarios

In collaboration with industry partners, it focuses on developing a Virtual Assembly platform that simulates real-world assembly processes in immersive VR environments. It enables training, validation, and optimization of assembly tasks without the need for physical prototypes. Using motion tracking and haptic feedback, users interact with virtual components in realtime. The solution enhances productivity, reduces costs, and supports collaborative design and ergonomic analysis.

In collaboration with industry partners, it focuses on developing an Augmented Reality (AR) training platform that overlays interactive instructions onto real-world environments. It enables hands-on, step-by-step guidance for complex tasks without interrupting workflows, improving learning retention, reducing errors, and enhancing efficiency in skill-based training.

New generation of headsets connecting the most advanced mixed reality technology with high-quality graphical processing power, suitable for high-level simulators and advanced industrial use cases, requiring top-level visual fidelity and immersion

Professional-grade VR headset that integrates precision eye tracking and high-quality sound, suitable for design and engineering studios requiring premium immersive experience

Highly scalable mixed-reality headsets for industrial applications, training and education

High-precision motion capture system widely used in biomechanics, animation, virtual reality, robotics, and clinical gait analysis. It uses high-speed cameras to track the 3D movement of reflective markers placed on a subject or object, providing sub-millimeter accuracy, making it one of the most precise systems available.

High-fidelity finger tracking by using accurate end-point fingertip tracking sensors, providing accurate and reliable finger capture data.

Wearable eye-tracking system in the form of lightweight, high-tech glasses, used to record exactly where a person is looking in real time while they move freely in natural environments. It's particularly useful for UX research, psychology, science sciences, sports science, and marketing.

Markerless hand-tracking devices able to capture the movement of your hands and fingers with high precision, using infrared LEDs and stereo IR cameras.

Stereo depth-sensing cameras that capture high-resolution 3D video and depth maps in real time, widely used for robotics, AR/VR applications and autonomous systems thanks to their long-range, wide-FOV, and visual-inertial capabilities.

Wearable devices for real-time health monitoring, adopted in clinical and research settings. They track physiological signals like EDA (electrodermal activity), heart rate, temperature, and motion. They offer FDA-cleared solutions for monitoring and stress research.

Lightweight smartwatch interface using the Bangje.js library to enable physics-based UI interactions. It brings dynamic, natural-feeling gestures and animations to wearable devices. Ideal for creating intuitive, touch-responsive experiences on small screens.

It is specifically designed to support studies in human-machine interaction within agricultural vehicle environments. It enables to investigate how tractor operators perceive, interpret, and respond to real-time feedback from both the machine and the environment — helping to improve the design of safer and more intuitive operator interfaces and cabins.

It is designed to study how pilots perceive, interpret, and respond to system feedback and environmental cues during various flight scenarios. The setup combines a high-fidelity cockpit, dynamic motion platform, and immersive visual environment to recreate real-world flying conditions.

It allows to virtually replicate assembly tasks to support the analysis of the human-machine interaction and improve the workstation design as well as product design.