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Title: | TBAN – Terahertz Body Area Network for non-invasive blood glucose monitoring. |
Epworth Authors: | Wickramasinghe, Nilmini |
Other Authors: | Adibi, Sasan Nguyen, Lemai Hamper, Andreas Vogel, Douglas Bodendorf, Freimut |
Keywords: | Terahertz Body Area Network Non-invasive Blood Glucose Monitoring Finger-pricking Diabetes TBAN Diabetes Self-Management Usability Cultural Factors Psychological Factors Clinical Factors Hyperglycemia Hypoglycaemia Working Prototype Solution Tera-Hertz Technology Initial Testing Non-Invasive Technology Solution Measuring Blood Glucose Chair of Health Informatics Management, Epworth HealthCare, Victoria, Australia |
Issue Date: | Jun-2017 |
Citation: | Epworth Research Institute Research Week 2017; Poster 54: pp 78 |
Conference Name: | Epworth Research Institute Research Week 2017 |
Conference Location: | Epworth Research Institute, Victoria, Australia |
Abstract: | INTRODUCTION/BACKGROUND: Globally, diabetes is at epidemic proportions and needs to be addressed. To date, there is no cure for diabetes and people with diabetes must self-manage this life-long condition. A central aspect of self-management is concerned with blood glucose monitoring. The dominant method for monitoring blood glucose levels is invasive; it typically requires a blood glucose meter, a lancet device plus test strips. Monitoring frequency depends on treatment type – people using insulin typically need to prick their finger 4-6 times a day or more. Finger-pricking has several disadvantages: a) Culturally, many people dislike using sharp objects and seeing blood; b) Psychologically, many people with diabetes report increased anxiety concerning finger-pricking, and the discomfort and inconvenience of the procedure; c) Clinically, there is a risk of infection and damage to the finger tissue. Further, finger-prick glucose monitoring is not designed to support continuous monitoring of blood glucose. Given that finger-prick monitoring devices provide only a snapshot of blood glucose at a specific time-point, many instances of hyperglycemia or hypoglycaemia may go undetected and unrecorded. Thus, the resultant monitoring outcomes may not fully represent the overall blood glucose pattern. METHOD: To design and develop a non-invasive blood glucose system using tera-hertz technology, we are following a design science research methodology> once the prototype is developed it will then be assessed for usability and fidelity in a clinical trial. RESULTS: To date, we have completed initial testing in the specialised lab to isolate the signatures for sugar in water solutions. The next phase is to test glucose in blood and then to develop the working prototype solution. CONCLUSIONS: There exists an important opportunity for a prudent, non-invasive technology solution to measure blood glucose which will be of significant benefit to individuals suffering from diabetes. |
URI: | http://hdl.handle.net/11434/1160 |
Type: | Conference Poster |
Affiliated Organisations: | Deakin University FAU University Erlangen-Nuremberg, Germany Harbin Institute of Technology, China |
Type of Clinical Study or Trial: | Validation Study |
Appears in Collections: | Health Informatics Internal Medicine Research Week |
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