DEVELOPMENT OF M-HEALTH APPLICATION WITH SEVEN-SEGMENT DISPLAY READING FEATURE FROM GLUCOSE METER

M-Health application is useful for monitoring blood glucose conditions for diabetics. The entry of blood glucose values from a glucose meter into the application is generally done manually. This process is time-consuming and prone to error. Therefore, developing a prototype m-health application that...

Full description

Saved in:
Bibliographic Details
Main Author: Romyz Aufa, Daffa
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/87584
Tags: Add Tag
No Tags, Be the first to tag this record!
Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:87584
spelling id-itb.:875842025-01-31T10:51:36ZDEVELOPMENT OF M-HEALTH APPLICATION WITH SEVEN-SEGMENT DISPLAY READING FEATURE FROM GLUCOSE METER Romyz Aufa, Daffa Indonesia Final Project m-health, seven-segment display, glucose meter, YOLO11, blood glucose, diabetes INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/87584 M-Health application is useful for monitoring blood glucose conditions for diabetics. The entry of blood glucose values from a glucose meter into the application is generally done manually. This process is time-consuming and prone to error. Therefore, developing a prototype m-health application that uses a model to read blood glucose measurement results can be a solution. This paper proposes the development of an m-health (mobile health) application that has 4 features: taking a picture of the glucose meter with a phone camera, reading the glucose value with a model, storing the reading results in a database, and data visualization. The model was trained using 3764 images of blood glucose measurement results from glucose meters. The model ultilized is YOLO11 with small, medium, and large variations. In order to be used in the application, the trained model is converted into TensorFlow Lite format (.tflite). The TensorFlow Lite model is then quantized to 16-bit float precision (FP16) and 8-bit integer precision (INT8) to reduce inference time and model size. Based on the test results, the model chosen that is implemented in the application is the small model with INT8 precision. The model was chosen because it has a small inference time and file size while having an accuracy that are not too far from other model variants. The model has an accuracy of 94.14%, an f1-score of 97.03%, an inference time of 330.7 ms, and a file size of 11.4 MB. Model is tested on the m-health application with 156 images from the test dataset resulted in an accuracy of 97.77%, an f1-score of 98.34%, and an average inference time of 1918.15 ms. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description M-Health application is useful for monitoring blood glucose conditions for diabetics. The entry of blood glucose values from a glucose meter into the application is generally done manually. This process is time-consuming and prone to error. Therefore, developing a prototype m-health application that uses a model to read blood glucose measurement results can be a solution. This paper proposes the development of an m-health (mobile health) application that has 4 features: taking a picture of the glucose meter with a phone camera, reading the glucose value with a model, storing the reading results in a database, and data visualization. The model was trained using 3764 images of blood glucose measurement results from glucose meters. The model ultilized is YOLO11 with small, medium, and large variations. In order to be used in the application, the trained model is converted into TensorFlow Lite format (.tflite). The TensorFlow Lite model is then quantized to 16-bit float precision (FP16) and 8-bit integer precision (INT8) to reduce inference time and model size. Based on the test results, the model chosen that is implemented in the application is the small model with INT8 precision. The model was chosen because it has a small inference time and file size while having an accuracy that are not too far from other model variants. The model has an accuracy of 94.14%, an f1-score of 97.03%, an inference time of 330.7 ms, and a file size of 11.4 MB. Model is tested on the m-health application with 156 images from the test dataset resulted in an accuracy of 97.77%, an f1-score of 98.34%, and an average inference time of 1918.15 ms.
format Final Project
author Romyz Aufa, Daffa
spellingShingle Romyz Aufa, Daffa
DEVELOPMENT OF M-HEALTH APPLICATION WITH SEVEN-SEGMENT DISPLAY READING FEATURE FROM GLUCOSE METER
author_facet Romyz Aufa, Daffa
author_sort Romyz Aufa, Daffa
title DEVELOPMENT OF M-HEALTH APPLICATION WITH SEVEN-SEGMENT DISPLAY READING FEATURE FROM GLUCOSE METER
title_short DEVELOPMENT OF M-HEALTH APPLICATION WITH SEVEN-SEGMENT DISPLAY READING FEATURE FROM GLUCOSE METER
title_full DEVELOPMENT OF M-HEALTH APPLICATION WITH SEVEN-SEGMENT DISPLAY READING FEATURE FROM GLUCOSE METER
title_fullStr DEVELOPMENT OF M-HEALTH APPLICATION WITH SEVEN-SEGMENT DISPLAY READING FEATURE FROM GLUCOSE METER
title_full_unstemmed DEVELOPMENT OF M-HEALTH APPLICATION WITH SEVEN-SEGMENT DISPLAY READING FEATURE FROM GLUCOSE METER
title_sort development of m-health application with seven-segment display reading feature from glucose meter
url https://digilib.itb.ac.id/gdl/view/87584
_version_ 1823000100888117248