Precise inclination measurement system with high-precision MEMS electronics and radio communications.

MEMS-sensor based radio clinometer is a precision instrument designed for geotechnical, structural, and infrastructure monitoring.

It measures angular variations or tilt relative to the vertical or horizontal axis with high accuracy, enabling the detection of ground movement, deformation, or displacement in civil and geotechnical applications.

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Collaborative rehabilitation of arms with the aid of colalborative robot, handler and software assisted training sesions.
The first bimanual robotic platform to deliver personalized isokinetic mobilization for the upper limbs (hands, arms, shoulders).

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Reality-based digital twins of existing physical assets using aerial and terrestrial photogrammetry, with a strong specialization in environments that are difficult, dangerous or impossible to access through conventional means. These include mountainous terrain, unstable structures, partially collapsed buildings and environments exposed to severe weather conditions. Real captured environments are transformed into high-fidelity three-dimensional digital spaces that function both as accurate technical references and as foundations for advanced visualization, animation and immersive experiences.

Representative application scenarios Digital twin of a historical structure located on steep terrain and affected by partial collapse, captured without direct physical access. Three dimensional documentation of large rock walls or cliff faces subject to erosion and instability. Reality-based digital model of a site exposed to strong wind and low temperatures, captured through carefully planned aerial missions. Baseline digital twin of a hazardous environment used to visualize spatial conditions and changes without repeated on-site exposure.

Technology scope Advanced capture planning in remote, unstable and high-risk environments. Operation under challenging conditions such as strong wind, low temperatures and limited accessibility. Reality-based three-dimensional reconstruction and optimization for technical and visual reuse. * contact us for details


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Develops immersive experiences, including real-time visualization, VR and XR applications, derived from reality-based digital twins captured in complex and high-risk environments. These experiences allow users to explore and understand places that are physically dangerous, remote or inaccessible, without direct exposure to risk. Captured environments are transformed into interactive digital spaces suitable for immersive walkthroughs, narrative visualization and 4D animations, developed using real spatial data and, when appropriate, in collaboration with specialized partners.

Representative application scenarios VR exploration of a cliffside or mountainous site where physical access is limited by safety constraints. Immersive walkthrough of an unstable or partially collapsed structure used for technical familiarization and analysis. 4D visualization illustrating environmental or structural changes over time in a hazardous location. XR experience combining real captured geometry with explanatory layers to communicate risk, context and spatial complexity.

Technology scope Optimization of reality-based digital twins captured under extreme conditions. Development of immersive VR and XR experiences from real-world spatial data. Integration of animation, interaction and narrative layers over hazardous environments.

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Digitize cultural heritage and singular environments located in remote, fragile or high-risk contexts, where conventional documentation methods are impractical or unsafe. Using non-invasive capture techniques, real heritage sites are transformed into high-fidelity digital assets that preserve their current physical state. These reality-based digital twins enable cultural access, interpretation and immersive storytelling while minimizing physical intervention and repeated exposure to hazardous conditions.

Representative application scenarios Digital documentation of heritage structures located in mountainous or unstable terrain. Three dimensional capture of archaeological or historical sites affected by erosion, collapse risk or environmental exposure. Creation of immersive virtual visits for heritage locations where physical access is restricted for safety or conservation reasons. Use of reality-based digital twins to communicate the condition and vulnerability of heritage assets through immersive visualization.

Technology scope Non-invasive capture of heritage environments under physical and environmental constraints. High-fidelity reality-based reconstruction adapted to immersive and cultural uses. Preparation of reusable digital heritage assets for visualization, animation and VR or XR experiences.

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Securely monitor and record temperature data with high precision.
Designed for robust industrial applications such as concrete curing control and thermal crack prevention. Featuring advanced NTC thermistor technology, this device ensures accurate and stable measurements that are seamlessly uploaded to the cloud for real-time processing, graphing, and alarm management.

Key Features:Flexible Channel Options: Available in configurations of 1, 4, or 8 independent channels to suit the scale of your project.
High Precision Sensing: Offers exceptional accuracy with a temperature measurement linearity.

Versatile Connectivity: Send data directly via a built-in router with a data SIM, through a WiFi network, or using a long-range UHF radio link.Multiple Power Configurations: Choose from standard mains power (110-230 Vac), battery operation lasting several months, or an indefinite battery system powered by a solar panel.

Robust, Weatherproof Build: Housed in a flame-retardant (UL94-V2) polycarbonate shell featuring an IP65 rating to protect against water jets.Advanced Cybersecurity: Keeps your project data secure using WPA2-PSK encryption on WiFi networks and AES-128-CCM on cellular connections, alongside TLS support.

Cloud Platform Included: Comes with server access to manage user security roles, map sensor locations on your site plan, and export data readings to CSV files.

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This patented device resolves these clinical challenges by integrating a circular stapler mechanism directly with a suture thread. The system features a tubular sheath containing a stapling head and a separate anvil with a central mast.During the procedure, the anvil is separated from the stapling head to create a working space. A suture thread is looped around the viscus and tightened against the anvil's mast, gathering and folding the tissue. The anvil is then pulled close to the stapling head, compressing the folded tissue, and the stapler is fired. The staples drive through the double-layered tissue and bend securely against the anvil, locking the purse-string fold and thread firmly in place.

Key Advantages & FeaturesSecure & Vascularized Closure: Unlike linear stapling methods, this device creates a uniform, well-vascularized purse-string tissue border that is securely locked by closed staples, reducing the risk of post-operative leaks.Knotless "Pusher Stick" System: The device includes specialized projections and recesses that allow the surgeon to use a pusher stick to tighten the thread without needing to tie a knot.

Incision-Free Specimen Extraction: Because the thread can be tightened without knotting, the purse-string suture can be temporarily opened and closed.

This allows surgeons to extract the resected, diseased portion of the viscus directly through the hollow organ (e.g., transanally), potentially avoiding the need for an additional abdominal incision during laparoscopic procedures.

Versatile Compatibility: The mechanism can be manufactured as a standalone instrument or designed to securely couple with conventional circular anastomosis staplers currently on the market.

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