Radalytica brings modularity of high-resolution imaging methods, online and real time inspection, total freedom of viewing angles, easy programming and intuitive manual handling using 3D Mouse Move. Radalytica can be integrated into production lines, portable system or stand-alone flexible lab systems.
The system can inspect advanced composite materials with complex curvatures using air-coupled ultrasound probes and/or X-rays. It has a wide range of applications in aerospace, automotive, healthcare, laboratories and many other industries, all at micrometric level in 2D or even 3D image.
The major advantages of the X-rax scanner based on a pair of robotic arms are:
Radalytica uses a new generation of X-ray imaging detectors, which provide unprecedented image quality that helps identifying impurities in materials and products, bubbles, cracks, foreign objects or misalignments. In classical X-ray imaging systems, both the X-ray tube and detectors are fixed or move only in a limited range of directions (left, right, up and down). Hence, it is not easy, or even possible, to inspect selected areas of larger structures, especially when they have complex shapes. Contrary to the classical X-ray imaging setups, Radalytica gives nearly absolute flexibility of viewing angles and makes the X-ray inspection as easy as visual control.
We’ve designed algorithms and tools to accurately calibrate robotic arms geometrically to achieve high-resolution CT reconstructions.
Radalytica is the first company to prove X-Ray and Ultrasound are complementary methods for NDT. Radalytica supports an air-coupled ultrasound to inspect advanced composite materials, such as aircraft fuselage, wings, propeller blades or even objects made from polymers, wood or metal. The air-coupled untrasound allows Radalytica to detect inhomogenity, internal discontinuities or a surface damage to the material. In contrast to conventional testing, no liquid coupling and no direct contact with the test object is required. Many components cannot be wetted with liquid coupling due to material or production-dependent properties, because they would otherwise swell, peel, corrode or otherwise be destroyed. Existing systems with liquid coupling (e.g. squirter or immersion technology test systems) also require complicated water supply and drainage as well as lengthy and costly drying processes. This technology takes the effectiveness and quality of non-destructive testing to the highest possible level.
Example – Honeycomb sandwich panel with artiﬁcial defects in skin-to-honeycomb connection. UT scan shows the artiﬁcial circular inserts simulating disconnection of the honeycomb from the skin.
Example – X-ray comparison with Ultrasound, in the photo of the CRFP both UT and X-Ray detect the damaged area, UT detects delamination, but only the combination of methods shows all available data – delaminations, cracks, fibre bundles and even the paint markers on the sample.
3D Mouse Move
3D Mouse Move is a plugin to control the Radalytica robotic imaging system in real time and in any direction or rotation. Once you shift or tilt the tool by hands using the freedrive button, the robot will follow the same movements. When the robot is out of the operator’s reach, 3D Mouse Move replicates the same intuitive experience. Such cases happen if the robots are inside another room or within inaccessible areas by the operator, which is the case for RIS due to radiation safety. 3D Mouse Move can be used to teach the robots during programming or controlling them real-time to perform tasks.
3D Mouse Move can be used to teach the robot during programming or controlling the robot real-time to perform various tasks: