An efficient Blood pressure estimation algorithm based on machine learning using a mixture of non-contact hand-face PPG signals features

被引:0
作者
Mbarki, Zouhair [1 ]
Amri, Yessine [2 ,3 ]
Ben Slama, Amine [4 ]
Trabelsi, Hedi [4 ]
Seddik, Hassene [1 ]
机构
[1] Univ Tunis, RIFTSI Res Lab, ENSIT, Tunis, Tunisia
[2] Bechir Hamza Childrens Hosp, Biochem Lab, Bab Saadoun Sq, Tunis 1007, Tunisia
[3] Univ Jendouba, Higher Inst Appl Studies Humanity Le Kef, Dept Educ Sci, Jendouba, Tunisia
[4] Univ Tunis ELmanar, Higher Inst Med Technol ISTMT, Lab Biophys & Med Technol, LR13ES07 BTM, Tunis, Tunisia
来源
2024 IEEE 7TH INTERNATIONAL CONFERENCE ON ADVANCED TECHNOLOGIES, SIGNAL AND IMAGE PROCESSING, ATSIP 2024 | 2024年
关键词
Non-contact signal; pulse transit time; blood pressure estimation; machine learning;
D O I
10.1109/ATSIP62566.2024.10639021
中图分类号
TP39 [计算机的应用];
学科分类号
081203 ; 0835 ;
摘要
Hypertension, or high blood pressure, occurs when blood forcefully presses against artery walls, increasing heart and health risks. Blood pressure is typically measured with a sphygmomanometer, but this device cannot be used in some cases like burned bodies. To avoid this problem, a cuffless devices are used based on a non-contact signal called remote photo-plethysmography signal which is extracted from the face or the hand in some conditions using a special camera. In fact, the blood pressure is estimated based on the features extracted from this signal. In the presented work, we introduce a rapid algorithm for blood pressure estimation using a mixture of non-contact hand-face PPG signal features. In fact, the signals are collected from the face and the hand simultaneously. Then, they are used as an input of preprocessing blocks, which makes the feature extraction operation very useful and reliable. Finally, the machine-learning algorithm performs the estimate of blood pressure using the derived pulse time transit. Experimental results are very encouraging and interesting.
引用
收藏
页码:59 / 64
页数:6
相关论文
共 18 条
[11]   Contactless blood pressure sensing using facial visible and thermal images [J].
Oiwa K. ;
Bando S. ;
Nozawa A. .
Artificial Life and Robotics, 2018, 23 (03) :387-394
[12]   Deep generative model with domain adversarial training for predicting arterial blood pressure waveform from photoplethysmogram signal [J].
Qin, Keke ;
Huang, Wu ;
Zhang, Tao .
BIOMEDICAL SIGNAL PROCESSING AND CONTROL, 2021, 70
[13]   Cuffless blood pressure estimation based on composite neural network and graphics information [J].
Qiu, Ye ;
Liu, Dongdong ;
Yang, Guoyu ;
Qi, Dezhen ;
Lu, Yuer ;
He, Qingzu ;
Qian, Xiangyu ;
Li, Xiang ;
Cao, Yuping ;
Shuai, Jianwei .
BIOMEDICAL SIGNAL PROCESSING AND CONTROL, 2021, 70 (70)
[14]   Schrödinger spectrum based continuous cuff-less blood pressure estimation using clinically relevant features from PPG signal and its second derivative [J].
Sarkar, Sayan ;
Ghosh, Aayushman .
COMPUTERS IN BIOLOGY AND MEDICINE, 2023, 166
[15]   Nonlinear features of photoplethysmography signals for Non-invasive blood pressure estimation [J].
Shoeibi, Fatemeh ;
Najafiaghdam, Esmaeil ;
Ebrahimi, Afshin .
BIOMEDICAL SIGNAL PROCESSING AND CONTROL, 2023, 85
[16]   Blood Pressure Estimation from Photoplethysmogram Using a Spectro-Temporal Deep Neural Network [J].
Slapnicar, Gasper ;
Mlakar, Nejc ;
Lustrek, Mitja .
SENSORS, 2019, 19 (15)
[17]  
Xie QS, 2018, INT CONF DIGIT SIG
[18]   Cascade forest regression algorithm for non-invasive blood pressure estimation using PPG signals [J].
Zhang, Gengjia ;
Shin, Siho ;
Jung, Jaehyo .
APPLIED SOFT COMPUTING, 2023, 144