Our Technology
AI
Our advanced Mov-Scan technology powered by AI-embedded processing and machine learning algorithms enables you to capture a multitude of metrics and biomarkers in one go because of the powerful abilities of multiple systems or platforms.
Measurement of the movement cycles for walking, running and jumping to analyze parameters such as foot orientation on ground contact, symmetry, muscle activation distribution (muscle activity pattern), vertical loading rate, and more!
INTUITIVE SOFTWARE
Our AI-embedded software experience will create easy-to-understand data and visuals, assisting you in a deep understanding of the movement of your patients with a suggested pathway to movement enhancement and correction. Let data guide your clinical decisions and patient performance.
Swift and efficient data gathering.
Utilization of AI technology for parameter evaluation.
Utilization of a color scheme for prompt identification of irregular measures.
Comparison with average normal values to detect any abnormal deviations.
Continuous enhancements through automatic algorithm updates.
Easily understandable and shareable results.
Parameters
Average speed of the patient.
Number of steps taken per minute.
Length between two successive stances of the heel of the same foot.
Time during which the foot is in contact with the ground, standardized to be expressed as apercentage of the cycle time.
Time during which the foot is not in contact with the ground, standardized to be expressed asa percentage of the cycle time.
Percentage of the cycle during which both feet are in contact with the ground at the same time.
First sub-component of the stance phase. Loading phase begins when the heel touches the ground and cushion the impact. It ends when toes touch the ground at the flat foot in event.
Second sub-component of the stance phase. The flat foot phase begins at the flat foot in event and ends when the heel takes off at flat foot off event.
Third sub-component of the stance phase. The propulsion is the time between the flat foot off event and toe off.
Minimum height between the toes and the ground during oscillation of the foot.
Defined between the foot and the ground to express the inclination in the transverse plane of the foot at the four key moments in the unfolding of the step: heel, toe, heel and toe take-off.
Defined between the ground and the foot at the time of heel placement.
Maximal distance between the foot and the ground during the swing phase.
Maximum distance of lateral foot movement during oscillation.
Defines between the orientation of the foot and the patient's path of travel.
Expressesthe congruence between the values obtained for the left and right foot.Symmetry makes it possible to determine whether one leg is used more than theother when walking.
Ratio of the propulsion speed by the average stride speed.
Based on the analysis of pronation/supination angles, it represents the trajectory of the center of support during the contact phase at the foot.
Evolution of the parameters during the different acquisitions.
Average number of cumulative steps per minute.
Average running speed during the recording.
Over a running gait cycle, duration when no foot is in contact with the ground.
Average time the foot is in contact with the ground, can be expressed as a percentage of the stride time.
Average time during which the foot is not in contact with the ground, can be expressed as a percentage of the stride duration.
The distance covered in a stride between two consecutive touchdowns ofthe same foot.
Defined between the foot and the ground toexpress the inclination in the transverse plane of the foot at the three key moments in the unfolding of the step: foot in, pseudo flat foot and foot take-off.
Defined between the ground and the foot at the time of heel placement.
Maximal vertical reaction force of the ground during the contact phase.
Defined if the initial contact is rather with the heel, midfoot or forefoot.
Expresses the congruence between the values obtained for the left and right foot.
maximal height reached by the center of mass during a jump. The jump height is the point representing the mean position of the matter of the body.-Jump count: number of jumps performed.
number of jumps performed.
the difference between the right foot and left foot during flight time.
duration a participant's feet remain in contact with the ground during the takeoff and landing phases of a jump
the length of each performed jump (only for Triple Hop test)
the measure of how long the foot is in the air during a jump.
the duration between the takeoff and landing phases when the participant's feet are not in contact with the ground
total distance completed during jump tests (Triple and Single Hop)
measurement of the flexion angle at landing
degree of pronation or supination of the foot at landing
measurement of flexion angle at take-off.
the foot maximal angular velocity reach before the take-off.
the difference of the right foot and left foot flexion angle at landing
the difference between the right and left foot pronosupination angle at landing.
difference between the right and left foot take- off flexion angle.
stability during the landing phase.
Angle difference between take-off and landing in respect to the vertical axis; the degree of rotation is calculated around the vertical axis.
comparison between the right and the left foot.
difference of contact stability between the right and left foot.
the peak force exerted on the body during the initial impact phase when a foot makes contact with the ground while running or jumping.
graphical representation of the cadence during the test. The cadence is the number of jumps performed in one minute (concerns only the Side Hop test).
How to use it ?
Gait can be complicated, make it easy to understand!
Developed for and with healthcare practitioners, Digitsole Pro improves patient assessments in three simple steps by measuring objective biomechanical data that cannot be observed by the naked eye.
Insert
Put the pods in the insoles and the insoles in your patient’s shoes.
Connect
The smart insoles will connect instantly to the interface.
Analyze
Get useful Data to deliver diagnosis, guide rehabilitation programs and follow-up progress over time.
the advantages
Developed for and with healthcare practitioners, Digitsole Pro improves patient assessments in three simple steps by measuring objective biomechanical data that cannot be observed by the naked eye.
Insert
Easy to set up and implement : Put the connected insoles powered by Mov-Scan technology in the patient's shoes and start the analysis with the app. The average time for an analysis on only 3 min !
Connect
Portable and practical Analysis tool
Mov-Scan technology captures the biomechanical parameters of your patients while walking, running, or jumping in both clinical and real-world settings.
Analyze
Intuitive interface : Create a unique patient-centric technology environment thanks to our user-friendly interface that makes it easy to share results with patients to improve patient education, motivation, and compliance.
OUR PRODUCT
The Digitsole Pro system is an advanced, portable, and user-friendly cost-effective AI solution designed to accurately analyze real-world gait patterns.
With its lightweight design (under 3 kg/6 lbs) and compact dimensions (38 x 37 x 13 cm / 14.96 x 14.57 x 5.12 inches), you can effortlessly take it wherever you go.
Our technology is using the smallest Inertial Measurement Unit module in the world! It’s the Real-world fusion of force plate and motion capture. Once inserted into your insoles you will retrieve the data collected at the end of each activity to process them into clinically usable data.
Win time in your practice and create a unique patient centric technology environment thanks to our intuitive and easy to use Web Interface. You will be able to manage your patients, check the results and generate PDFs in few clicks.
Our Digitsole Pro app makes gait analysis easy, it's available on IOS and Android allowing you to manage your patients and perform an analysis in less than 3 minutes.
Our cutting-edge technology incorporates the world's most compact Inertial Measurement Unit module, effectively merging the capabilities of force plates and motion capture systems.
Upon integrating this module into your insoles, the captured data from each activity can be conveniently accessed and converted into clinically relevant information for professional use.
Our technology is using the smallest Inertial Measurement Unit module in the world! It’s the Real-world fusion of force plate and motion capture. Once inserted into your insoles you will retrieve the data collected at the end of each activity to process them into clinically usable data.
Slim and lightweight insoles designed to house sensors seamlessly, ensuring unobtrusive integration during high-intensity activities while delivering consistent and precise data collection for optimal performance analysis.
Digitsole Pro insole weighs 71 grams (For size 8,5) and comes in 6 sizes from 4.5 to 13 US men & from 5.5 to 11 US Women, to fit all your patients.
Get access now to 5 use cases of walking & running analysis