Empower. Reclaim your power. Information for technicians. Empower Ottobock 1

Similar documents
empower Reclaim your power. Information for technicians empower Ottobock 1

3 people 3 unique lifestyles 3 advanced foot solutions

empower Reclaim your power. Information for users

Meridium. Reclaim your way. Information for clinicians

1C11 Terion K2. Confidence with every step. Information for Practitioners

1B1 Meridium. Reclaim your way. Information for practitioners. Meridium Ottobock 1

SYMBIONIC LEG 3 INTRODUCTION KEY FEATURES ÖSSUR DYNAMIC SOLUTIONS

Terion 1C10. Back on track. 1C10 Terion Ottobock 1

1C30 Trias. Moving in harmony. Information for users. 1C30 Trias Ottobock 1

Your Life. Your Adventure. Triton Family of Products

C-Brace Reimbursement Guide

PROPRIO FOOT INTRODUCTION KEY FEATURES ÖSSUR DYNAMIC SOLUTIONS

C-Brace Orthotronic Mobility System

PRO-FLEX. Less load, more dynamics

Foot System Prosthetist Manual

C-Brace Reimbursement Guide

Life Without Limitations

Different by design NEW FEATURES

Mechanical Knee Prescription Guide

Analysis of ankle kinetics and energy consumption with an advanced microprocessor controlled ankle foot prosthesis.

MOTION FOOT MX. Manual

Prosthetic Solutions for Active Amputees. Andreas Kannenberg, MD, PhD Executive Medical Director North America, Austin, TX, USA

New product. Pure Sport.

Increasing ankle push-off work with a powered prosthesis does not necessarily reduce metabolic rate for transtibial amputees

A Bio-inspired Behavior Based Bipedal Locomotion Control B4LC Method for Bipedal Upslope Walking

HRC adjustable pneumatic swing-phase control knee

Aeris Performance 2. Product Manual

From early rehab to full recovery RHEO KNEE XC. go anywhere

An investigation of kinematic and kinetic variables for the description of prosthetic gait using the ENOCH system

Kintrol Instructions for Use Product Number: VS4

Kinterra Instructions for Use Product Number: ROM-00-XXXXX-XX

K2 Foot. Product Manual

WalkOn product range. Dynamic Ankle-Foot Orthoses. Information for specialist dealers

Plié 3 Microprocessor Knee

Element DS. Product Manual

ASSESMENT Introduction REPORTS Running Reports Walking Reports Written Report

REPORT DOCUMENTATION PAGE

As a physiotherapist I see many runners in my practice,

ParaGolfer. Get up and play. Information for end users

Microprocessor Technology in Ankle Prosthetics

PURPOSE. METHODS Design

Power Assessment of the Human Ankle during the Stance Phase of Walking for Designing a Safe Active Prosthesis in Below-Knee Amputees

@ Massachusetts Institute of Technology All rights reserved.

PRODUCT MANUAL. patent pending

Normal and Abnormal Gait

The Starting Point. Prosthetic Alignment in the Transtibial Amputee. Outline. COM Motion in the Coronal Plane

Design of Variable-Damping Control for Prosthetic Knee based on a Simulated Biped

Aeris Activity. Product Manual

Influence of speed on gait parameters and on symmetry in transtibial

Gait. Kinesiology RHS 341 Lecture 12 Dr. Einas Al-Eisa

AllPro Foot. Product Manual

Otto Bock and Springlite Feet

Using GPOPS-II to optimize sum of squared torques of a double pendulum as a prosthesis leg. Abstract

Stabilization of a Three-Dimensional Limit Cycle Walking Model through Step-to-Step Ankle Control

DYNAMIC. Make your move SOLUTIONS. Stable enough for Mike. Dynamic enough for Nuria.

KOTARO SASAKI Curriculum Vitae

Amandi Rhett, OPS III December 2, 2016

Control of a Powered Ankle Foot Prosthesis Based on a Neuromuscular Model

Wave Comfort 2. Product Manual

Dynamically stepping over large obstacle utilizing PSO optimization in the B4LC system

Foot Biomechanics Getting Back to the Base

AllPro Foot. Posterior Mount Product Manual

G-EOL. Discover the simplicity of gait therapy intended for daily use

premise that interdependent body systems (e.g. musculoskeletal, motor, sensory, and cognitive

Walking Simulator Mechanism

A MATHEMATICAL MODEL TO DETERMINE THE TORQUE FOR A PROSTHETIC LEG-LAGRANGIAN EQUATION

Chapter 1 - Injury overview Chapter 2 - Fit for Running Assessment Chapter 3 - Soft Tissue Mobilization... 21

Finite-State Control of Powered Below-Knee Prosthesis with Ankle and Toe

Running Injuries in Adolescents Jeffrey Shilt, M.D. Part 1 Page 1

INTERACTION OF STEP LENGTH AND STEP RATE DURING SPRINT RUNNING

Dynamic/Static Foot. Tissues. Static Foot. Dynamic Foot

CHAPTER IV FINITE ELEMENT ANALYSIS OF THE KNEE JOINT WITHOUT A MEDICAL IMPLANT

Gait analysis for the development of the biped robot foot structure

Niagara Foot. Dynamic Performance at Every Step

Below-knee amputation: a comparison of the effect of the SACH foot and single axis foot on electromyographic patterns during locomotion

Customized rocker sole constructions

Controlling Knee Swing Initiation and Ankle Plantarflexion With an Active Prosthesis on Level and Inclined Surfaces at Variable Walking Speeds

The Mechanics of Modern BREASTSTROKE Swimming Dr Ralph Richards

Effects of Mass and Momentum of Inertia Alternation on Individual Muscle Forces During Swing Phase of Transtibial Amputee Gait

Conceptual Design of an Energy Efficient Transfemoral Prosthesis

Barefoot Running. Ed Mulligan, PT, DPT, OCS, SCS, ATC. Clinical Orthopedic Rehabilitation Education

The Influence of High Heeled Shoes on Kinematics, Kinetics, and Muscle EMG of Normal Female Gait

Evaluation of gait symmetry in poliomyelitis subjects : Comparison of a

Krabat Jockey. Technical data. Awards. Product variations

EXPERIMENTAL STUDY OF EXOSKELETON FOR ANKLE AND KNEE JOINT

Ideal Heel Promotes proper alignment and reduces lever arms

Diabetes and Orthoses. Rob Bradbury Talar Made

Gait Analyser. Description of Walking Performance

Propulsion Ankle Prosthetic

-Elastic strain energy (duty factor decreases at higher speeds). Higher forces act on feet. More tendon stretch. More energy stored in tendon.

USA Track & Field Heptathlon Summit- November

The new C-Brace. Physiotherapy training guideline. Information for therapists and technicians

The technique of reciprocal walking using the hip guidance orthosis (hgo) with crutches

Define terms and compute basic physics problems related to sprinting

The effect of footwear mass on the gait patterns of unilateral below-knee amputees

Design and Evaluation of a Variable Resistance Orthotic Knee Joint

Center of Mass Acceleration as a Surrogate for Force Production After Spinal Cord Injury Effects of Inclined Treadmill Walking

NeuroOrthopaedics lower extremity

Instructions for Use PROPRIO FOOT

Spring Locomotion Concepts. Roland Siegwart, Margarita Chli, Martin Rufli. ASL Autonomous Systems Lab. Autonomous Mobile Robots

Transcription:

Empower Reclaim your power. Information for technicians Empower Ottobock 1

Empower Powered propulsion for more freedom in life The Empower is an innovation in the field of prosthetic feet. It is equipped with an active ankle joint, making it the only prosthesis with powered propulsion. The Empower is characterized by the following clinically proven features: Power Emulates the function and power of lost muscles and tendons 1,2 Provides energy instead of taking it away even up ramps, hills and stairs 1,6 Control Life-like ankle movement that normalises userʼs walking gait 4 Reduces joint forces which may result in less pain and fewer long-term orthopedic problems 1,2,5,6 Stability Adjusts ankle power, resistance and flexion in real-time Provides balance on variable terrain 3 1. Herr H., Grabowski A. (2012): Bionic ankle-foot prosthesis normalizes walking gait for persons with leg amputation, Proc Biol Sci. Vol. 7, 279(1728): 457 464. 2. Ferris A., Aldridge J., Sturdy J., Wilken J. (2011): Evaluation of the Biomimetic Properties of a New Powered Ankle-Foot Prosthetic System, Dept. of Orthopedics and Rehabilitation, Center for the Intrepid, Brooke Army Medical Center, Fort Sam Houston, TX, USA. Presented at American Society of Biomechanics. 3. Gates D., Aldridge J., Wilken J. (2013): Kinematic comparison of walking on uneven ground using powered and unpowered prostheses, Clinical Biomechanics, 28, 467 472. 4. Aldridge J., Ferris F., Sturdy J., Wilken J. (2012): Kinematics and Kinetics with a Powered Lower Leg System During Stair Climbing Ascent Following Transtibial Amputation, Gait & Posture, Vol. 36, 291 295. 5. Grabowski A., D Andrea S. (2013): Effects of a powered ankle-foot prosthesis on kinetic loading of the unaffected leg during level-ground walking, Neuroeng Rehabil., 10:49. 6. Esposito E., et al. (2015): Step-to-step transition work during level and inclined walking using passive and powered ankle-foot prostheses, Prosthet Orthot Int. 2 Ottobock Empower

Empower Ottobock 3

Empower Functions and Benefits Increased energy and less fatigue to walk farther and faster The Empower replaces the function and power of lost muscles and tendons, giving users energy rather than taking it away even up ramps, hills and stairs. Its powered propulsion drives the user forward and upward while smoothly transitioning weight to the remaining limb. The Empower provides the required amount of energy needed for each step, enabling users to cope effortlessly with longer distances, stairs and sloping terrain. Improved safety and stability on different terrain To ensure a smooth rollover of the foot, the Empower decelerates the body at heel strike before accelerating again for toe-off. At the same time, the amount of plantar flexion is adjusted to the slope of terrain. The system uses high resolution sensors to determine the correct amount of ankle power, resistance and flexion in real-time. This helps the user maintain balance and to cope better with variable terrain. Gentler on joints Many users suffer from painful joints as a result of changing their gait pattern. Unbalanced movement patterns and compensatory movements can even lead to osteoarthritis. With its active powered propulsion, the Empower improves the user s gait pattern and reduces the adduction moment. This aids in preventing pain and incorrect gait patterns. 4 Ottobock Empower

Empower Ottobock 5

Empower Details 360 top cap access The pyramid adapter enables a quick and easy fitting. Ankle Display The power button and battery indicator lights reflect the state of charge are located in front of the Ankle. Dynamic Adaptation Intrinsic control firmware analyzes ankle joint torque and angle data from high resolution sensors, in real-time, to mimic the user s physiological ankle function. Lithium-Polymer Battery The integrated battery lasts for up to 8 hours depending on user activity. The dual bay charger can charge two batteries simultaneously in as little as 90 minutes. Weather sealed components The Ankle is resistant to rain, snow and dirt to withstand the varied demands of everyday life. Powered Propulsion A battery-powered, motorized actuator coupled with a high energy spring provide powered propulsion that emulates the gastrocnemius and soleus muscles. 6 Ottobock Empower

Technical data Reference number 1A1-1 Suitable for MG 3 + 4 Warranty and service Amputation level Maximum body weight Sizes Weight* Minimum clearance* * Based on size 28 TT, KD, TF 130 kg 25 30 cm approx. 1,928 g (without footshell) approx. 2,200 g (with footshell) 222 mm The comprehensive warranty package provides your customers with guaranteed mobility for 3 years with no repair costs: 3-year manufacturer's warranty* Free repairs** Free service inspection in month 24 Free service unit during repair and service inspections Scope of delivery The foot comes complete with two rechargeable batteries and a dual bay charger. Software Thanks to tablet-based software, orthopaedic technicians can customise the Empower for each individual user. The software and the tablet are delivered together with the first order. As an alternative, a 6-year warranty package is offered. The warranty can be extended to 6 years at a later date. * Valid for prosthetic foot and charger. The battery is covered by an one year warranty. Wear parts as the footshell are excluded from the warranty. ** Does not cover superficial damage and damage resulting from improper use, intent, negligence, or force majeure. Components & Accessories 1A1-1=* Empower 2F41 Set of heel wedges 2C14=* Footshell incl. 757B38 Battery SL=Spectra Sock Informations 647G1385 Instructions for use 757L38 Charger 757L39 Power Supply BM-214-0000* EU/GB/US Power cord 560X11=V2 Tuning Device

www.ottobock.com Ottobock 646D1111=EN-05-1805 Technical changes and printing errors reserved.