Interactive Video Gaming Device Could Aid MS Patients
|
By LabMedica International staff writers Posted on 23 Aug 2016 |

Image: Using Kinect motion-capture camera may improve evaluation of gait pathology in multiple sclerosis patients by increasing objectivity in diagnosis and treatment monitoring (Photo courtesy of the Montreal Neurological Institute & Hospital and McGill University).
A commonly used 3D depth-sensing camera could become a low-cost means of monitoring treatment effectiveness for walking difficulties of patients with gait-impairing diseases such as multiple sclerosis (MS).
The Microsoft “Kinect” motion-detection camera can be hooked up to an Xbox gaming console or a Windows computer for interactive video activities such as tennis and dancing. A team of researchers led by McGill University (Montreal, Quebec, Canada) postdoctoral fellow Farnood Gholami, supervised by Prof. Jozsef Kövecses, collaborated with Daria Trojan, physiatrist at the Montreal Neurological Institute and Hospital, to test whether the Kinect could detect the differences in gait of MS patients compared to healthy individuals. The tool could be useful “to assess treatment effects of certain interventions such as rehabilitation or medication, and to document MS disease progression as reflected by gait deterioration. It may also be useful as a measure in clinical trials,” said Trojan. Additional collaboration was with Behnood Gholami at AreteX Systems Inc. (Hoboken, NJ, USA) and Wassim M. Haddad at Georgia Institute of Technology, (Atlanta, GA, USA).
In current clinical practice, the walking movement of MS patients is usually assessed by their doctors using subjective evaluations that may distort results such that different clinicians may give different evaluations for the same patient. Using computer algorithms that quantify patient walking patterns detected by a camera can reduce potential for human error.
Using Kinect, Dr. Gholami captured the movement of 10 MS patients and 10 members of an age-and-sex-matched control group. The MS patients had previously been assessed for gait abnormalities using the traditional clinician method. Using the data, the team then developed computer algorithms that quantified gait characteristics of MS patients and healthy people. They found that gait characteristics measured with the Kinect camera and analyzed with the developed algorithms were reproducible when assessed at one visit and were different between MS patients and the healthy individuals. Moreover, the gait characteristics of MS patients obtained by the algorithm were correlated with clinical measures of gait. In addition, the algorithms could mathematically define the characteristics of gait in MS patients at different severity levels, accurately determining the level of gait abnormality.
Dr. Gholami became interested in using motion-capture technology for clinical purposes as a PhD student, but the equipment he was using at the time was very expensive, difficult to use, and non-portable, making widespread clinical use prohibitive. Kinect is an inexpensive tool that appears to be accurate enough to do the job. “This tool may help the clinician provide a better diagnosis of gait pathology, and may be used to observe if a prescribed medication has been effective on the gait of the patient or not,” he said, “Our developed framework can likely be used for other diseases causing gait abnormalities as well, for instance Parkinson’s disease.” The next step is to conduct a study with a larger group of MS patients, including evaluation in a gait laboratory, using a newer version of the Kinect device to improve accuracy.
The study, by Gholami F et al, was published July 21, 2016, in the IEEE Journal of Biomedical and Health Informatics.
Related Links:
McGill University
The Microsoft “Kinect” motion-detection camera can be hooked up to an Xbox gaming console or a Windows computer for interactive video activities such as tennis and dancing. A team of researchers led by McGill University (Montreal, Quebec, Canada) postdoctoral fellow Farnood Gholami, supervised by Prof. Jozsef Kövecses, collaborated with Daria Trojan, physiatrist at the Montreal Neurological Institute and Hospital, to test whether the Kinect could detect the differences in gait of MS patients compared to healthy individuals. The tool could be useful “to assess treatment effects of certain interventions such as rehabilitation or medication, and to document MS disease progression as reflected by gait deterioration. It may also be useful as a measure in clinical trials,” said Trojan. Additional collaboration was with Behnood Gholami at AreteX Systems Inc. (Hoboken, NJ, USA) and Wassim M. Haddad at Georgia Institute of Technology, (Atlanta, GA, USA).
In current clinical practice, the walking movement of MS patients is usually assessed by their doctors using subjective evaluations that may distort results such that different clinicians may give different evaluations for the same patient. Using computer algorithms that quantify patient walking patterns detected by a camera can reduce potential for human error.
Using Kinect, Dr. Gholami captured the movement of 10 MS patients and 10 members of an age-and-sex-matched control group. The MS patients had previously been assessed for gait abnormalities using the traditional clinician method. Using the data, the team then developed computer algorithms that quantified gait characteristics of MS patients and healthy people. They found that gait characteristics measured with the Kinect camera and analyzed with the developed algorithms were reproducible when assessed at one visit and were different between MS patients and the healthy individuals. Moreover, the gait characteristics of MS patients obtained by the algorithm were correlated with clinical measures of gait. In addition, the algorithms could mathematically define the characteristics of gait in MS patients at different severity levels, accurately determining the level of gait abnormality.
Dr. Gholami became interested in using motion-capture technology for clinical purposes as a PhD student, but the equipment he was using at the time was very expensive, difficult to use, and non-portable, making widespread clinical use prohibitive. Kinect is an inexpensive tool that appears to be accurate enough to do the job. “This tool may help the clinician provide a better diagnosis of gait pathology, and may be used to observe if a prescribed medication has been effective on the gait of the patient or not,” he said, “Our developed framework can likely be used for other diseases causing gait abnormalities as well, for instance Parkinson’s disease.” The next step is to conduct a study with a larger group of MS patients, including evaluation in a gait laboratory, using a newer version of the Kinect device to improve accuracy.
The study, by Gholami F et al, was published July 21, 2016, in the IEEE Journal of Biomedical and Health Informatics.
Related Links:
McGill University
Latest Technology News
- Noninvasive Sputum Test Detects Early Lung Cancer
- New AI Tool Enables Rapid Treatment Selection in Pediatric Leukemia
- Rapid Biosensor Detects Drug Sensitivity in Breast Tumors
- Breakthrough Mass Spectrometry Design Could Enable Ultra-Low Abundance Detection
- Online Tool Supports Family Screening for Inherited Cancer Risk
- Portable Breath Sensor Detects Pneumonia Biomarkers in Minutes
- New Electronic Pipette Enhances Workflows with Touchscreen Control
- AI Model Outperforms Clinicians in Rare Disease Detection
- AI-Driven Diagnostic Demonstrates High Accuracy in Detecting Periprosthetic Joint Infection
- Blood Test “Clocks” Predict Start of Alzheimer’s Symptoms
- AI-Powered Biomarker Predicts Liver Cancer Risk
Channels
Clinical Chemistry
view channel
AI-Enabled POC Test Quantifies Multiple Cardiac Biomarkers
Cardiovascular diseases are a leading cause of death, responsible for nearly 20 million deaths each year. Timely triage of myocardial infarction and heart failure hinges on rapid cardiac biomarker measurement,... Read moreNext Generation Automated Analyzers Increase Throughput for Clinical Chemistry and Electrolyte Testing
Clinical laboratories continue to face staffing shortages, limited space, and growing test volumes that pressure chemistry and electrolyte workflows. Maintaining rapid turnaround times increasingly depends... Read moreMolecular Diagnostics
view channel
Extracellular Vesicle RNA Biomarkers Enable Noninvasive IBD Diagnosis and Monitoring
Inflammatory bowel disease (IBD) is a chronic, relapsing gastrointestinal condition whose incidence is rising in industrialized and newly industrialized countries, with prevalence in early‑industrialized... Read more
FDA Clears At-Home HPV Test with Extended Genotyping for Cervical Screening
Cervical cancer is largely preventable through regular screening and early detection of human papillomavirus (HPV), which causes nearly all cases. Yet roughly 60% of cervical cancers occur in people who... Read moreHematology
view channel
Prognostic Tool Guides Personalized Treatment in Rare Blood Cancer
Chronic myelomonocytic leukemia (CMML) is a rare blood cancer in which acquired genetic mutations in bone marrow stem cells drive disease. Stem cell transplantation is the only curative option but carries... Read more
New Platelet Function Assay Enables Monitoring of Antiplatelet Therapy
Monitoring response to antiplatelet therapy remains challenging for many clinical laboratories. Aggregation-based assays and cartridge systems often require specialized personnel, dedicated instruments,... Read moreImmunology
view channel
Study Finds Influenza Often Undiagnosed in Winter Deaths
Seasonal influenza drives substantial excess mortality, yet its contribution is often obscured when infections go undiagnosed near the time of death. Many deaths occur outside hospitals or in older adults... Read moreCombined Screening Approach Identifies Early Leprosy Cases
Leprosy remains a significant public health concern, with more than 200,000 new cases reported globally each year and early disease often escaping routine laboratory detection. In its initial phase, bacterial... Read moreMicrobiology
view channel
RNA-Based Workflow Identifies Active Skin Microbes for Dermatology Research
Human skin carries diverse microbial communities that influence barrier function and inflammation, yet identifying which organisms are metabolically active has been challenging. DNA-based surveys catalog... Read more
Cost-Effective Sampling and Sequencing Workflow Identifies ICU Infection Hotspots
Intensive care units face persistent threats from hospital-acquired infections, increasingly driven by drug-resistant bacteria. Rapidly pinpointing environmental reservoirs and transmission hotspots remains... Read morePathology
view channelAI Improves Completeness of Complex Cancer Pathology Reports
Oncology teams increasingly rely on pathology reports that integrate histopathology, immunohistochemistry, and rapidly expanding biomarker testing. As patients live longer and undergo repeated analyses... Read more
AI Tool Predicts Chemotherapy Response in Small Cell Lung Cancer
Small cell lung cancer often presents at an extensive stage and progresses rapidly, leaving little time to tailor first-line therapy. Clinicians currently lack biomarkers to guide which patients will benefit... Read more
Tumor-Specific Biomarker Predicts Neoadjuvant Immunotherapy Response in Gastric Cancer
Gastric cancer is the fifth most common malignancy and the fourth leading cause of cancer mortality worldwide, with China bearing nearly half of the global burden. Only a subset of patients benefit from... Read moreIndustry
view channel







