Clemson University Bluetooth™ Enabled Accelerometer Tracking (BEAT) Technology for Leg Ulcer Patients Aleksey Shaporev 1, Vladimir Reukov 1, Chengyi Tu.

Slides:



Advertisements
Similar presentations
There are several research studies we would like to pursue with the HealthMonitor. These include long term monitoring of the elderly. We’re interested.
Advertisements

Autonomous Helicopter: James Lyden Harris Okazaki EE 496 A project to create a system that would allow a remote- controlled helicopter to fly without user.
LOINC Italia News Maria Teresa Chiaravalloti Technologist at National Research Council, Italy PhD Student at University of Calabria, Italy Giovanna Sannino.
Parkinson’s patient & physician aiding system Performed by: Alexander Kinko Stanislav Shapiro Barukh Trabelsi Instructor: Boaz Mizrachi.
Abstract demonstration times april 22, :00am, 9:30am, 1:00pm University of Pennsylvania Moore School of Electrical Engineering Department of Neurology.
A Framework for Patient Monitoring A. L. Praveen Aroul, William Walker, Dinesh Bhatia Department of Electrical Engineering University of Texas at Dallas.
ETIM-1 CSE 5810 CSE5810: Intro to Biomedical Informatics Mobile Computing to Impact Patient Health and Data Exchange and Statistical Analysis Presenter:
Energy Smart Room GROUP 9 PRESENTERS DEMO DATE SPECIAL THANKS TO ADVISOR PRESENTERS Thursday April 19, 2007 Department of Electrical and Systems Engineering.
Debbie Schmidt RN, MCSE Conference 2009 Nurse 2.0 Engaging the Healthcare Consumer Mobile Wound Care.
Development of NIR camera for early detection of diabetic wounds V.Reukov 1, A.Shaporev 1, T.Kelechi 2, D.Kwartowitz 1, A.Vertegel 1 1 Bioengineering Department,
Trevor Bernier Thomas Lennon Daniel Tamayo Multi-Sensory System For Monitoring Dyskinesias in Movement Disorders.
Instructor Dr. Elie Geisler, Unubold Chinzorig *Kendra Johnson* Carolyn Kos Hazel Michael * Nicole Valio IIT C.A.R.E.S.
 Maccabi is the second largest HMO in Israel. It covers 1.85 million people (24.5% 0f the population)  It is a recognized health fund within the framework.
Healthcom2008 Intelligent Service Integration Laboratory Information and Communications University Korea A Platform for Personalized Mobile u-Health Application.
ProSense Research Infrastructure at ETF Belgrade Aleksandar Crnjin School of Electrical Engineering (ETF) Belgrade, Serbia.
PERSONAL MEDICAL MONITOR Jason Ewing, Morgan Hinchcliffe, Dina Irgebayeva and Aida Kulmambetova.
Term 2, 2011 Week 3. CONTENTS The physical design of a network Network diagrams People who develop and support networks Developing a network Supporting.
Wireless Health Care in Japan Japanese Wireless Healthcare Market Overview Start Date: 10/09/2009 Start Time: 11:00 AM End Time: 12:00 PM Location: San.
IntroOH-1 CSE 5810 Wireless Body Sensor Networks (WBSN) in Healthcare Aljoharah A. Algwaiz Computer Science & Engineering Department The University of.
L ă cr ă mioara STOICU-TIVADAR, Vasile STOICU-TIVADAR, Dorin BERIAN “Politehnica” University Timisoara Department of Automation and Applied Informatics,
ROBO M.D. and other subprojects implemented in Innovation 4 Welfare program Dr. Petr Bartoš, Ph.D. University of South Bohemia IFA2012 Faculty of PedagogyMay.
CONTINUES COGNITIVE AND VITAL SIGNS MONITOR Design Review.
New pHealth approach to monitoring of seniors and handicapped people Jiri Chod, Czech Technical University in Prague Jaroslav Jansa, Immobiliser Central.
Remote Healthcare Applications With Smartphones In Developing Countries Jeffrey Tse Mentors: Gloria Mark, Dani Massaguer University of California, Irvine.
MOBILE PHONE SENSORS IN HEALTH APPLICATIONS Evgeny Stankevich, Llya Paramonov, Ivan Tomofeev Demidov Yaroslavl State University Presented By Brian K. Gervais.
© 2003 East Collaborative e ast COLLABORATIVE ® eC SoftwareProducts TrackeCHealth.
Technology in Health Care By: Brook Niles.  An electronic medical record is a digital and portable version of the current paper file system that would.
Wireless Biosensor Monitoring System Danielle Morton*, Niloufar Pourian*, Prof. Luke Theogarajan* * Electrical and Computer Engineering Department Abstract.
Personal Health Information Management - PHIM. A relevant example for information sharing  CaringBridge.org --
MHealth & The Healthy Caribbean Coalition Shivonne Johnson mHealth Coordinator.
1 Department of Electrical and Computer Engineering Advisor: Professor Hollot Team RCA March 1, 2013 Cumulative Design Review.
Microcontroller-Based Wireless Sensor Networks
Presentation for ENSC 440/305 Instructors: Patrick Leung, Steve Whitmore Department of Engineering Science Simon Fraser University.
Smartphone Delivered Meditation for Blood Pressure Control Among Prehypertensives: A Pilot Feasibility Clinical Trial.
Expertise in Medical Device Development and/or Adaptation for Remote Monitoring using mHealth Technology Aleksy Shaporev, Vladimir Reukov, Alexey Vertegel.
Home Media Centre Smart Interface Demonstration School of Information Technologies University of Sydney.
Mobile Phone Based Environment Control/Security System Christopher Carroll B.E. Electronic and Computer Engineering.
Broadband & Healthcare Jason Crosby Strategic Healthcare Partners.
UNIT I. EMBEDDED SYSTEM It is an electrical/electro-mechanical system designed to perform a specific function. It is a combination of hardware and software.
PDA’s and Remote Patient Care By Cassandra Kennicott, RN.
 2014 Diagnotes, Inc. – Confidential & Proprietary Beyond HIPAA Compliance: How Efficient Care Team Collaboration Improves Patient Care November 17, 2015.
SATIRE: A Software Architecture for Smart AtTIRE R. Ganti, P. Jayachandran, T. F. Abdelzaher, J. A. Stankovic (Presented by Linda Deng)
Multi channel ECG 10 th August Reference Article  “Multichannel ECG measurement for noninvasive identification of heart regions with changed repolarization”
Student Name USN NO Guide Name H.O.D Name Name Of The College & Dept.
V i t a l i s Wireless Biometric Sensor ECE 477 Final Presentation Team 13  Spring 2013 Paste a photo of team members with completed project here. Annotate.
CONTENTS: 1.Abstract. 2.Objective. 3.Block diagram. 4.Methodology. 5.Advantages and Disadvantages. 6.Applications. 7.Conclusion.
Group #15 Matt Frank Russell Geschrey.  This project was chosen because of an interest in wireless communication systems, namely BAN's (body area networks)
A Cost Effective Centralized Single parameter Patient Monitoring System Abstract Lack of Medical monitoring equipment's in rural areas of underdeveloped.
ARM and GPS Based Transformer monitoring system with area Identification Student Name USN NO Guide Name H.O.D Name Name Of The College & Dept.
ENGINEERING INNOVATION AWARDS NATIONAL ENGINEERING INNOVATION PRIZE (NIEP) CARDIOCAST.
Component 8/Unit 1bHealth IT Workforce Curriculum Version 1.0 Fall Installation and Maintenance of Health IT Systems Unit 1b Elements of a Typical.
T HE D ESIGN AND I MPLEMENTATION OF A GSM B ASED U SER -M ACHINE I NTERACTED R EFRIGERATOR Hüseyin Gürüler Mugla SK University September 2, 2015.
IntroOH-1 CSE 5810 Remote Health Care Monitoring by Wearable Sensors and Mobile Devices Kanchan Jha Computer Science & Engineering Department The University.
Authors: Christos Stergiou Andreas P. Plageras Kostas E. Psannis
Personal Home Healthcare System for the Cardiac Patient of Smart City Using Fuzzy Logic Shijia Liu.
Dr Robert V Kelly MD MBA FRCPI
Vital Signs Monitoring system
PATIENT HEALTH MONITORING AND ALARMING
Fundamentals of Information Systems, Sixth Edition
Outline Introduction Standards Project General Idea
#Healthslam #IoT #IoTCommunity #PatientPlanet
Mobile Computing for Healthcare
Mike Pappas, Nigel Himmelreich, Eric Anderson
Mike Pappas, Nigel Himmelreich, Eric Anderson
WI-BEEP (WIreless technology and Behavioral Economics to Engage Patients with type 2 diabetes or hypertension) Angellotti E1, Pierce A2, Hescott B3, Wong.
Smart Bandage Wound Monitoring Through a Connected Smart Bandage
Petronics ECE 445 Project Proposals.
Designed by Hwandong Joo
Diana Garcia California State University, Chico EECE 490A
Presentation transcript:

Clemson University Bluetooth™ Enabled Accelerometer Tracking (BEAT) Technology for Leg Ulcer Patients Aleksey Shaporev 1, Vladimir Reukov 1, Chengyi Tu 1, Mathew Gregoski 2, Frank Treiber 2, David Kwartowitz 1, Teresa Kelechi 2, Alexey Vertegel 1 1 Bioengineering Department, Clemson University, Clemson, SC; 2 College of Nursing, Medical University of South Carolina, Charleston, SC Our group is working on development of new mobile health devices/services in collaboration with physicians and nurses to improve patients’ quality of life

Diabetic Leg Ulcer Patients The problem: Overweight patients with diabetes often face a problem of ‘’diabetic limb” caused by insufficient blood supply and chronic foot blood deoxygenation; This can lead to poor healing of even minor wounds and may eventually require amputation of toes or the entire foot due to development of gangrene; Physical activity (PA) is critical to improve the condition of their legs and promote wound healing; Unfortunately, these patients are unable to engage in guideline based PA programs; PA programs at home is the most economic way of these patients treatment, but those programs are often inefficient due to lack of compliance and patient’s motivation. So, patients remote monitoring is necessary to motivate them to have PA.

Remote monitoring Requirements to PA remote monitoring system: Small size – sensor must small enough to be nested at foot or shoes; Sensitivity – sensor must be able to record small accelerations corresponding to exercise motions; Power efficiency – battery lifetime must be reasonably high; Interactivity – device must be able to analyze patient’s PA, perform statistical analysis, encourage him to perform exercises and warn patient (and his physician) if PA is insufficient; Telecommunication capabilities – device must be able to transmit data to physician, and retranslate doctor’s recommendations to the patient. accelerometer-diagnose-parkinsons-disease-tremor/

What is BEAT? What is BEAT? An accelerometer-based system for remote smart monitoring of overweighed patients physical activity BEAT consists of 3 main parts: Hardware+ Firmware : Hardware+ Firmware : power-efficient components assembled into a sensor which measures patients PA and communicates via Bluetooth with patient’s smartphone. Software Software (smartphone’s program) receives data from the sensor, performs data analysis, performs patient feedback and sends processed data to the web-server. Netware Netware (internet-server and corresponding web-sites) collects data sent by phones and provides doctor an access to PA data and data analysis capabilities. BEAT features: sensor is small enough so it can be affixed to patient’s foot or slipper; can monitor and record patient’s exercise for a prolonged period of time; smartphone analyzes PA and automatically transmits the recorded data to the health care providers office.

BEAT: Sensor radiomodulus microprocessor accelerometer battery Sensor consists of radiomodulus (Bluetooth), microprocessor, accelerometer and a battery assembled on a single board that can be as small as quarter. Accelerometer Microcontroller: Primary data processing Bluetooth modulus Analog signals (3-axis acceleration data) Analog signals (3-axis acceleration data) Acceleration data

BEAT: Smartphone Software We developed BEAT application for Android OS with following functions: Wireless connection to the sensor Wireless connection to the sensor; Data analysis: Data analysis: determines whether patient makes an exercise or no, distinguishes between exercises and calculates exercise duration and significant parameters (magnitude, frequency etc.); Conversation to user/patient Conversation to user/patient (stimulate him to do required actions, inform him on analysis results and his progress – e.g. to motivate him); Data transmission to server Data transmission to server (where doctor has and access to them and to statistics).

BEAT: Server Server: Stores data; Provides access to the data to authorized users (physicians etc.); Performs statistical analysis of received data (and provides access to the statistics to authorized users); Performs feedback (to patient and/or physician).

Motion recognition Validity/Reliability: Why so important? Because exercises include limited motions with relatively small accelerations, so accelerometer sensor must be both sensitive and reliable. Device reliability was checked in an experiment with 4 devices, coefficient of variation was found to be <1% - so assembled developed devices are reliable. Fig. 1. Schematic of exercises recommended to patients Fig. 2. Two device comparison data – reliability study.

Motion recognition Validity/Reliability: A software was design to distinguish between different exercises that patients are supposed to do. Special decision-tree type data analysis algorithm (including PCA and FFT) was developed; Tests showed that application works well (fig. 1). As well it was found that software is able to recognize exercises done by different patients (fig. 2). Fig. 2. Level 2 Exercise 1 acceleration data for two volunteers. Fig. 1. Various exercises done by a volunteer distinguished by software.

Conclusions BEAT system was developed, including: BEAT sensor was created; BEAT sensor was created; Smartphone software paired with internet-based solution was developed to provide remote monitoring of patient’s physical activity; Smartphone software paired with internet-based solution was developed to provide remote monitoring of patient’s physical activity; Both sensor and software were tested for reliability and found to be reliable. Both sensor and software were tested for reliability and found to be reliable.