為了降低骨科、牙科手術術後感染的風險，本實驗進行抗菌型骨泥的探討，選擇A粉末當抗菌劑加入具有良好生物相容性與骨誘導性的鈣基骨泥複合材中。
本實驗選擇將A粉末化合物添加入鈣基骨泥複合材中，進行對抗菌型骨泥的崩解性質、工作時間、硬化時間及抗壓強度的討論，選擇合適臨床使用的之抗菌型鈣基骨泥條件來進行基本性質的討論。
實驗結果表明，添加越高比例的E粉末進入抗菌型鈣基骨泥，可改善崩解性；調整骨泥使用的液粉比，可以改善崩解性、工作時間與硬化時間；調整硬化劑H粉末水溶液的濃度，亦可明顯改善抗菌型鈣基骨泥之崩解性、工作時間、硬化時間與抗壓強度；改變F粉末粒徑大小，也可以縮短工作時間與硬化時間。
抗菌型鈣基骨泥，研究後發現在混和硬化劑並充分攪拌1分鐘後，即使靜置也不會影響其抗壓性質表現，基底為高生物相容性的鈣基骨泥複合材，於臨床使用上有很大的潛力。

Calcium-based bone cement is widely used in dental and orthopedic applications because its good biocompatibility and osteoinduction. The CMRT Lab developed calcium-based bone cement which has high early strength and non-disperse property unlike conventional CPCs. In order to reduce the risk of postoperative infection in orthopedic and dental surgery, we add antibacterial agent into the Calcium-based bone cement and we adjust the component ratio and the particle size of antibacterial calcium-based bone cement to find better property for medical use.

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