Prof.dr. Taina Avramescu

Slides:



Advertisements
Similar presentations
Prevention of Running Injuries « Everything you must forget!»
Advertisements

Biomechanical Examination Parameters
Foot and Ankle Rance L. McClain, D.O., FACOFP Associate Professor – FM Dept. KCUMB-COM.
Ambulation and Ambulation Aids
Phases of the Gait Cycle And Determinants of Gait
17/07/1436RHS 4221 Dr. Afaf A.M Shaheen Lecture 4 RHS 422.
Walking Analysis … the process A gait cycle consists of “the activities that occur from the point of initial contact of one lower extremity to the point.
Gait.
Thornbers Podiatry “Promoting optimum health and performance”
Biomechanics- Gait.
Put the person into the shoe Podiatry. The Foot "Allowing for certain illnesses, how you walk should generally remain with you for life. If we can record.
“MAKING YOUR FITNESS OUR BUSINESS!!” Training Out Enterprises.
Health Skills II Unit 202 Range of Motion. Range of Motion (ROM) definition: exercising joints through the available motion to maintain available range.
Common Orthopaedic Conditions Associated with Complex Neurodisability Lindsey Hopkinson and Victoria Healey Heads of Paediatric Physiotherapy Physiocomestoyou.
Gait Analysis Study of human locomotion Walking and running
Analysis of a continuous skill – walking and running (gait)
Biomechanics of Gait Walking
Determinants of Gait Determinants of Gait.
ACE Personal Trainer Manual 5th Edition
1 Gait Analysis – Objectives To learn and understand: –The general descriptive and temporal elements of the normal walking movement –The important features.
Gait Analysis – Objectives
Gait Analysis – Objectives
Posture Assessment PHT 1261C Tests and Measurements Dr. Kane.
Dance Safety The Basics…. Our Bodies Bones, which give us a frame, and protection of certain organs Muscles, allow us to move, and determine how and.
Section A: Applied Anatomy and Physiology
Foot and Ankle Examination
Upper Extremities Parts  Shoulder Girdle  Shoulder Joint  Elbow Joint  Radioulnar Joint  Wrist Joint.
footscan ® Course 2006 Welcome. footscan ® Course 2006 All rights reserved. No part of this publication may be reproduced,
Chapter 8: The Biomechanics of the Upper Extremities
Biomechanical Examination
In-Shoe Tactile Pressure and Force Measurement System Used to Evaluate, Analyze and Treat Foot, Walking and Posture Related Injuries and Problems. Norman.
The medical background. 2 systems: 1.Passive shock absorbtion system 2.Active shock absorbtion system The human shock absorbtion system.
Range of Motion (ROM) Exercises Upper and Lower Extremities.
The dancer in training The Foot.
The Gait Cycle:.
Chapter 9 Evaluation of Gait. Introduction Gait Analysis – functional evaluation of a person’s walking or running style Systematic method of identifying.
Terminology 101.
Posture 4.
ANKLE JOINT Bony arrangement = stability
Gait Analysis – Objectives
 Support Events  Foot (Heel) Strike  Foot Flat  Midstance  Heel Off  Foot (Toe) Off  Swing Events  Pre swing  Midswing  Terminal swing.
Intro to Sports Medicine Anatomical Directions and Movements.
POSTURE & BALANCE.
Dance Safety The Basics…. Our Bodies Bones, which give us a frame, and protection of certain organs Muscles, allow us to move, and determine how and.
Introduced By You Friend: Amal Abd-Almunem
1 Gait Analysis – Objectives To learn and understand: –The general descriptive and temporal elements of the normal walking movement –The important features.
2) Knee.
Anton Grbac 2005 Kicking in Australian Football A Basic Understanding of Effective Kicking FV recognises the work Dr David Rath and the Australian Institute.
Figure Figure Figure Figure
SHS 306 KINESIOLOGY INTELIGENCE AND SECURITIES STUDIES HUMAN MOVEMENT TERMINOLOGIES.
Biomechanics of Pointe Shoes
Unit D Structures and Forces
Running Gait.
CHAPTER 11 Ankle and Foot.
Human Anatomy Anatomical Terms.
Kinematic Concepts for Analyzing Human Motion
Date of download: 10/23/2017 Copyright © ASME. All rights reserved.
Improving Podiatry students’ clinical reasoning when requesting x-rays: An interdisciplinary approach using multimedia tools Kelly Wilson-Stewart: QUT.
AN INTRODUCTION TO THE GAIT CYCLE Shayne Trinder DPodM, MChs, FCPodS
Exercise Science Range of Motion.
Human Anatomy Chapter 2.
ERGOnomics TECHnologies
The Articular System Joints
Human Anatomy Chapter 2 Sport Books Publisher.
Is barefoot regional plantar loading related to self-reported foot pain in patients with midfoot osteoarthritis  S. Rao, J.F. Baumhauer, D.A. Nawoczenski 
Transtibial Amputee Human Motion Analysis
Kicking in Australian Football
Melissa M. Scott-Pandorf, MS, Nicholas Stergiou, PhD, Jason M
بكلوريوس طب وجراحة عامة/بورد علم الامراض
Mechanics 1 Axis and planes of the body
Presentation transcript:

Prof.dr. Taina Avramescu Erasmus+ Programme 2014-2020 Project 2015-1-RO01-KA202-015230 Collaborative learning for enhancing practical skills for patient-focused interventions in gait rehabilitation after orthopedic surgery COR-skills GAIT ASSESMENT - RSSCAN gait analysis Prof.dr. Taina Avramescu Noiembrie 2012 Project financed by European Commission under the Erasmus + programme, KA2  This document reflects only the author's view and that the NA and the Commission are not responsible for any use that may be made of the information it contains. E1 07.10.2016, Bucharest

Plantar pressure distribution - data interpretation A wide range of pressure-variables exists throughout literature. Depending on the purpose of the research, pressure-i variables are related to the whole sole of the foot or to specific sub-areas.

HL: Heel lateral HM: Heel medial MF: Midfoot M5: Metatarsal 1 M4: Metatarsal 2 M3: Metatarsal 3 M2: Metatarsal 4 M1: Metatarsal 5 T2-T5: Toe 2-5 T1: Hallux

Static measurements - he magnitude of the pressure distribution is shown by a color scale - in the corner of each quadrant is displayed the relevant percentage of body weight distribution on the correspondent surface. - By analyzing the recorded image and values ​​can be issued conclusions on the left-right body weight dividing and front-backwards differences.

Do you observe any anomaly in left-right dividing of the percentage of the body weight ? b. yes, the distribution is higher for the left side; c. yes, the distribution is higher for the right side. Answer: a. Explanation. The trainee should determine from static screenshots the stability of the patient. In each corner is displayed a fraction of patient’s weight that’s exerted on the corresponding sole zone. This means adding left and right weight percentages for left/right foot, to determine the weight bearing on that foot. In addition, the trainee should sum the top and bottom quadrants in order to determine weight bearing on forefoot or heel. For figure 1, we can determine: the distribution for the left sole is 24.17%+24.52% = 48.69%. - the distribution for the right sole is 24.36%+26.95% = 51.31% Normal left-right dividing 50%-50%, +/-3%.

front-backwards difference diagonal differences What significant differences in dividing of the percentage of the body weight do you observe in Fig. 2? front-backwards difference diagonal differences no significant differences are seen left-right difference Answer: b,d. Explanation. If from certain reasons the weight is inequally distributed over the four zones (left-right or front-back), this anomaly can be observed just by looking where the intersection is located. For example, a non-egual front-back weight distribution can mean problems related to static pose. For figure 2, we can determine: the distribution for the left sole is 18.07%+9.01% = 27.08%. the distribution for the right sole is 33%+39.92% = 72.92%. the distribution for the front side is: 9.01% + 39.92% = 48.93% the distribution for the back side is 18.07% + 33% = 51.07%. the distribution for diagonal differences is 18.07% + 39.92% = 57.99% and 42.01%, respectively. The image suggests the possibility of: a. static problems b. pelvic rotation c. length difference of lower limbsAnswer: a,b,c. Explanation. Possible causes for differences: Proprioceptical problems Structural problems like a length difference, alignment problems with orthotics-prostethics Also we must look for large front-backwards difference for each sole that can mean possible static problems, or look for diagonal differences (possible pelvic rotation). It is important to see the patient as a whole, therefore it is possible that a difference is caused by problems at all possible levels: shoulders, hips, knee, ankles, feet. So, there can be many reasons for the differences in the weight partitioning and Footscan can be only be used to recognise these differences. A further verification of possible causes should always be done.

Dynamic measurments –contact time

Dynamic measurments – force/pressure

Dynamic measurments – contact percentage and impulse In the following picture please indicate the region that has an abnormal contact percentage: Fig. 13. Dynamic measurement, Impulse screen.   Rearfoot Forefoot Midfoot

Answer : c Explanation. This reffers to the relationship between the contact percentage and the bearing of the correspondant region. For example the contact percentage of the midfoot is increased for a flat foot. If there is a lot of contact, is it being loaded as well? This can be controlled by looking at the impulse value of the midfoot. If the value is very low, the midfoot indeed makes contact, but does not contribute to the bearing of the bodyweight or with rolling off.

High arch foot Normal foot Flat foot

Dynamic measurments – foot axis angle Foot axis - one end between medial and lateral heel and the other end among metatarsals 2 and 3. Talar axis (red). As long as the heel applies a normal functional force on the plate, subtalar joint alignment is given by the red line. When the medial and lateral side are in balance, the axis will be aligned with the footaxis. Pronation causes the axis to transfer to the medial side, whilst supination causes it the transfer laterally. Grey axis represent the maximum positions of the subtalar axis (max. adduction and max. abduction).

Foot angle (abduction angle) indicates the deviation from the walking direction (plate direction) an is quantified by values that indicates exo or endo rotation: a positive angle indicates exo rotation of the foot, whenever the angle is negative, it indicates endo rotation. Subtalar joint angle: indicates the amount of pronation in the rear foot during impact. During a step it records minimum and maximum values. The higher the value is - the more pronation occures. Minimum and maximum values give also an indication on the position of the rearfoot in relationship to the ground. Subtalar joint flexibility reffers to the variation of subtalar joint angle and express talus mobility.

Please indicate the subtalar joint flexibility for the right sole in figure 10. a) the red angle b) the blue angle c) this angle is not marked on the figure Answer: a Explanation: The flexibility of the subtalar joint is the total variation of the joint angles, in absolute value. For example, if the minimal subtalar joint angle value is -2 degrees and the maximal value is 4 degrees, the subtalar joint flexibility will be 2 + 4 = 6 degrees. This variation can tell us what is the torsional strain that the subtalar joint is exposed to; thus it is an indicator of injury risks. A high variation can imply a higher risk of injury or strain over the subtalar joint.   The value of the foot axis angle in figure 10 indicates: a) exorotation for the right sole b) endorotation for the left sole Answer: a, b. Explanation. Foot angle (abduction angle) indicates the deviation from the walking direction (plate direction) an is quantified by values that indicates exo or endo rotation: a positive angle indicates exo rotation of the foot, whenever the angle is negative, it indicates endo rotation.  

THANK YOU FOR YOUR ATTENTION!

THANK YOU FOR YOUR ATTENTION!