慢性疾病的監控有賴各種病患生理參數之擷取與處理，才能協助病患或醫護人員啟動必要之醫療流程，過去礙於技術的限制，此類設施多半笨拙且有線化，導致監控中病患之行動與生活受到極大限制而顯得不實用，本論文提供生理訊號監測設施一個無線傳輸的平台，使病患得以長期配戴而不影響其生活品質與方便性。系統設計考量了無線傳輸平台、生理訊號擷取裝置、訊號處理及記錄、網路建構、使用者介面、模組化、省電等功能，除了提供無線平台外，此無線平台亦包括網路建置發展性，另外系統模組中也需要針對生理訊號做處理，決定無線平台的使用時機，而為了無線裝置可長時間佩帶，更需要在訊號處理、網路建構作必要的取捨，以獲得系統最佳化。本論文結合國家衛生研究院提供生理訊號擷取電路，以每個通道25Hz 取樣頻率將類比訊號轉換為數位訊號，取得ECG、RESP、XYZ軸位移等生理訊號，透過微控制器MSP430F1611暫存，同時控制可程式化無線收發機CC2500為無線平台，將生理訊號透過無線的方式傳遞至電腦的使用者介面，完成點對點傳輸的無線生醫監測系統。

Patients with chronic disease need some permanent or temporary medical device to improve their life and to treat disease. In the past most of these devices are big and equipped with wires. It is not easy to apply the traditional medical equipment in the homecare and telemedicine. This paper is concerned with design of a wireless platform. The wireless platform will instead of the route of traditional system. There are several blocks of the system, such as wireless platform, physiologic monitor, signal processor, stack architecture and user interface. To match the requirement of wireless healthcare system, the algorithm and firmware should integrate into the hardware. The combination of system blocks makes the infrastructure for medical information exchanges come true. This product includes the technique and devices for disease monitoring which is provided by National Health Research Institutes. The vital signs of ECG, RESP and XYZ will be measured. The electrical signals are digitized and recorded by a microcontroller MSP430F1611. The biomedical information is automatically sent to a RF transceiver, CC2500. The information will be transmitted to a PC by wireless networks and displayed in the monitor. The wireless platform and devices complete a Wireless Healthcare System. The system can capture and analyze physiologic signal of the patients’ monitor the progress of patients’ health conditions’ and diagnose and rise medical care in time.

中文摘要 I 英文摘要 II 誌謝 III 目錄 IV 圖目錄 VI 表目錄 VIII 第一章 緒論 1.1 研究之背景及目的 1 1.2 研究目標 1 1.3 預期完成之工作項目及成果 2 第二章 無線生醫監測系統規劃 2.1 系統簡介 3 2.2 系統設計 4 2.2.1 系統架構 6 2.2.2 硬體架構 7 2.2.3 韌體架構 13 2.2.4 演算法則 15 第三章 無線模組實作 3.1 無線模組概述 23 3.2 元件效能評估 24 3.2.1 CC2500描述 24 3.2.2 量測數據及評估結果 25 3.3 CC2500無線模組實作 32 3.3.1 RF前端Balun設計模擬 33 3.3.2 無線模組實作及量測 38 第四章 韌體實作 4.1 無線封包 41 4.2 韌體程式 44 4.2.1 無線封包處理函式庫 44 4.2.2 RS232封包處理函式庫 48 4.2.3 資料處理函式庫 53 第五章 實作成果及結論 5.1 實作成果 61 5.1.1 系統實現 61 5.1.2 成果展示 63 5.2 結論 66

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