Innovating 4D scanning technology - AVE ONESHOT 4D

ONE SHOT technology patented and developed by B3D enables the reconstruction of 3D geometry from a single projection of a reference model and data acquisition at a rate of up to 60 frames per second, throught the use of:

  • Dynamic movement biomarkers
  • Morphological biomarkers
  • Functional biomarkers

New methods and tools are developed to locate, identify, and track anatomical and functional biomarkers, analyze soft tissue deformations, perform spatiotemporal motion analysis, and create digital biomechanical models of patients.

Diagnosis

Rehabilitation

Therapy monitoring

Specific injuries and specific conditions are represented in motion. The differences are often so subtle that they escape human perception. Advanced 4D mapping makes the entire examination process much easier to analyze and consult.

Accurate analysis of the patient’s movements allows for more careful selection and monitoring of the rehabilitation process, making the entire process significantly more effective.

By being able to accurately compare the range of tissue movement before and after therapy, it is possible to dimensionalize the patient’s benefits and present them in a precise manner.

Our technology outruns the competition

  1. Real-time 4D dynamic imaging (60 FPS) – Unlike most 3D scanners available on the market, which perform a single static measurement of geometry, AVE3D’s ONESHOT4D technology enables the capture and analysis of motion along with an object’s geometry at a rate of up to 60 frames per second. This allows for the creation of true 4D (3D + time) models and the analysis of an organism’s functions during movement, rather than just its static shape.
  2. Reconstruction from a Single Projection – Traditional structured light systems typically use 8 to 16 pattern projections to reconstruct a single point cloud. ONE SHOT technology enables the acquisition of complete geometric information from a single projection, which allows for the scanning of moving objects and significantly increases the speed of data acquisition.
  3. Metric measurement system and objectification of clinical data – The platform enables the analysis of changes in actual physical units (mm, mm², mm³, degrees, velocity, acceleration, frequency), which allows for the creation of quantitative motor, morphological, and functional biomarkers. As a result, it is possible to compare test results obtained at different stages of treatment and to minimize the influence of a specialist’s subjective assessment.
  4. Non-contact analysis of human function and biomechanics – Unlike motion capture systems that require markers or contact-based methods using sensors and electrodes, AVE3D enables the analysis of movement and soft tissue deformation without interfering with the subject’s natural movement pattern.

Who can use ONESHOT 4D?

This technology can be used anywhere tissue movement is studied. Our assimilation efforts are focused on the following industries:

  • neurology,
  • rehabilitation,
  • physiotherapy,
  • orthopedics,
  • maxillofacial surgery,
  • sports medicine,
  • digital dentistry.

What are the key benefits?

The AVE3D ONESHOT4D platform is characterized by product and process innovation on an international scale. It enables:

  1. Quantitative recording and objectification of human movement, morphological, and functional biomarkers based on 4D data acquired in real time.
  2. Simultaneous analysis of the geometry, motion, and deformation of soft tissues in a metric measurement system. AVE3D ONESHOT4D enables the analysis of changes occurring during movement and the generation of quantitative functional biomarkers.
  3. Objective assessment of a patient’s condition and monitoring of changes over time.
  4. New methods for locating and tracking biomarkers, analyzing soft tissue deformations, and processing 4D point clouds.

We use AI becasue it is useful, not because it is trendy

We have created our own AI tool designed for one specific task – processing huge amounts of anatomical data, an area in which machine capabilities far exceed those of humans.