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研究生: 張哲愷
Che-Kai Chang
論文名稱: 穿戴式脈波量測系統結合機器學習與脈波變異度分析應用於新冠肺炎疫苗之心血管副作用監測
Monitoring cardiovascular side effects of COVID-19 vaccine by using wearable pulse measurement system with machine learning and pulse variability analysis
指導教授: 許昕
Hsin Hsiu
口試委員: 劉如濟
Ju-Chi Liu
鮑興國
Hsing-Kuo Pao
學位類別: 碩士
Master
系所名稱: 應用科技學院 - 醫學工程研究所
Graduate Institute of Biomedical Engineering
論文出版年: 2022
畢業學年度: 110
語文別: 中文
論文頁數: 89
中文關鍵詞: 新冠肺炎疫苗疫苗副作用穿戴式裝置循環系統機器學習脈波變異度分析
外文關鍵詞: COVID-19 vaccine, vaccine side effect, wearable system, circulatory system, machine learning, pulse variability analysis
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2019年以來新冠肺炎已對全球經貿、人民健康造成極大衝擊,而新冠肺炎疫苗是現有比較有效堵住疫情惡化的預防方法,不過疫苗也存在著一些副作用隱憂。根據研究,目前疫苗嚴重副作用大多與心血管系統有關,因此心血管副作用監測的需求是與日俱增且必要的,不過現今常見的心血管副作用臨床檢驗方式仍有諸多不便。
本研究將藉由實驗室自行開發之穿戴式脈波量測系統結合機器學習、脈波變異度分析,探討穿戴式裝置可否觀察出疫苗副作用對心血管系統造成的生理影響,並且是否可對此影響具有區別能力。
研究與雙和醫院心臟內科聯合收案,納入本研究總人數為194位。以臨床檢驗結果將BNT受試者分為健康組(N=28)、心血管副作用組(N=39)、血管副作用組(N=11)、心臟副作用組(N=34)。實驗會對受試者進行一分鐘的脈波量測取得BPW、PPG數據,再以機器學習、脈波變異度分析強化對脈波變動的解析能力,進而區別出疫苗心血管副作用的有無。
實驗結果顯示,此系統確實可區別出疫苗有無心血管副作用的差異,機器學習(LDA)與脈波變異度分析各自可對心血管副作用的判別達到準確率0.69(AUC=0.67)與準確率0.67(AUC=0.66)的表現。若排除模糊地帶則脈波變異度分析可對心血管組做到準確率0.72、AUC=0.75(適用範圍65.67%)的判別;對血管組做到準確率0.92、AUC=0.94(適用範圍64.1%)的判別。
研究結論可以看出,穿戴式脈波量測系統未來可望實際運用於臨床監測,也方便於社區居家環境中使用,至此本篇研究已為穿戴式裝置應用於疫苗心血管副作用的監測建立了一個新方向與基礎。


Since 2019, COVID-19 has significantly impacted the global economy, trade, and people's health. The COVID-19 vaccine is a more effective method to block the deterioration of the epidemic. However, there are some side effects of the vaccine. According to research, most of the severe side effects of vaccines are related to the cardiovascular system. Therefore, the demand for monitoring cardiovascular side effects is increasing and necessary. However, there are still many inconveniences in the typical clinical testing methods for cardiovascular side effects.
This study will use our laboratory's wearable pulse measurement system to combine machine learning and pulse variability analysis. Exploring whether the wearable device can observe the physiological effects of vaccine side effects on the cardiovascular system and whether it can this effect be discriminatory.
This study is cooperated with The Cardiology Department of Shuang-Ho Hospital, and the total number of people included was 194. BNT subjects were divided into the healthy group (N=28), cardiovascular side effect group (N=39), vascular side effect group (N=11) and cardiac side effect group (N=34) according to the clinical test results. In the experiment, subjects will be measured by pulse wave for one minute to obtain BPW and PPG data. Then machine learning and pulse variability analysis will be used to strengthen the ability to analyze pulse wave changes and then distinguish whether the subject have cardiovascular side effects.
The experimental results show that the system can distinguish whether people have cardiovascular side effects. Machine learning (LDA) and pulse variability analysis can determine cardiovascular side effects with an accuracy rate of 0.69 (AUC=0.67) and an accuracy rate of 0.67. (AUC=0.66) performance. If the fuzzy area is excluded, the pulse variability analysis can achieve an accuracy rate of 0.72 and AUC=0.75 for the cardiovascular group (65.67% of the applicable range); for the blood vessel group, the accuracy rate is 0.92 and AUC=0.94 (the useful range is 64.1%). ) judgment.
From the result we can see that the wearable pulse measurement system is expected to be used in clinical monitoring in the future, and it is also convenient for use in the community home environment. So far, this study has established a system for wearable devices to monitor the cardiovascular side effects of vaccines. A new direction and foundation.

論文摘要 III 表索引 VIII 圖索引 IX 第一章. 緒論 1 1.1. 研究背景 1 1.1.1. 新冠肺炎之流行與影響 1 1.1.2. 肺炎疫苗問世與副作用危害 2 1.1.3. 疫苗心血管副作用檢測方法 3 1.1.4. 現今穿戴式裝置 3 1.1.5. 疫苗副作用與循環關聯 3 1.1.6. 穿戴式脈波量測裝置 4 1.2. 研究動機與目標 4 第二章. 研究設計 5 2.1.收案流程 6 2.2.實驗分組 8 第三章. 實驗硬體裝置介紹 10 3.1.心電訊號描述放大器(Electrocardiography, ECG) 11 3.2.動脈血壓波形感測器(Blood Pressure Waveform, BPW) 12 3.3.血光容積感測器(Photoplethysmography, PPG) 15 3.4.資料擷取系統(Data Acquisition, DAQ) 17 3.5.訊號擷取介面 18 第四章. 實驗分析方法介紹 19 4.1.分析架構與流程 19 4.2.訊號切波與波形 21 4.3.BPW、PPG頻域參數 22 4.4.機器學習方法與演算法概述 23 4.5.脈波變異度分析法(Pulse Variability Analysis, PVA) 28 第五章. 實驗結果與討論 29 5.1. 各廠牌疫苗前後測統計結果比較 30 5.1.1. BPW頻域參數前後測比較 31 5.1.2. BPW頻域參數前後數值差異 35 5.1.3. PPG頻域參數前後測比較 36 5.1.4. 各廠牌疫苗前後測結果討論 40 5.2. BNT疫苗各組別前後測統計結果比較 42 5.2.1. BPW頻域參數前後測比較 43 5.2.2. PPG頻域參數前後測比較 47 5.2.3. 心率、心跳變異率前後測比較 51 5.2.4. BNT疫苗各組別前後測結果討論 52 5.3. BNT疫苗機器學習訓練結果 53 5.3.1. 抽血資料機器學習訓練結果 55 5.3.2. BPW頻域參數機器學習訓練結果 57 5.3.3. BNT疫苗機器學習結果討論 59 5.4. BNT疫苗脈波變異度分析結果 60 5.4.1. CV組脈波變異度分析結果 61 5.4.2. CV組結果討論與應用 64 5.4.3. V組脈波變異度分析結果 67 5.4.4. V組結果討論與應用 71 第六章. 結論與未來展望 73 參考文獻 75

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