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Hành Vi Đông Kết của Poli (Axit Lactic) Được Chỉnh Sửa Bằng ST-NAB3 và Tính Chất Cơ Học cũng như Nhiệt Độ Được Cải Thiện
Tóm tắt
Poli (axit lactic) (PLA) có khả năng phân hủy sinh học, được xem là một sự thay thế tuyệt vời cho nhựa gốc dầu mỏ, đã được sử dụng rộng rãi để giảm ô nhiễm môi trường do phát thải khí nhà kính. Tuy nhiên, phạm vi ứng dụng thực tế của PLA bị hạn chế do tính kết tinh kém, cùng với các tính chất cơ học và khả năng chịu nhiệt không tốt. Trong bối cảnh này, một tác nhân nhân nucleation không đồng nhất (HNA) đã được đưa vào ma trận PLA để giải quyết các vấn đề đã nêu. Các tác động của HNA lên động học kết tinh của PLA đã được khảo sát bằng phương pháp Avrami. Động học kết tinh làothermal và không làothermal của các hệ thống PLA/HNA chứa các hàm lượng HNA khác nhau (0–0.75 wt.%) đã chứng minh rằng HNA có thể tạo ra hiện tượng nucleation không đồng nhất trong ma trận PLA và cải thiện đáng kể tốc độ kết tinh của nó. Thời gian t1/2 của hợp chất PLA/HNA-0.75 đã giảm xuống còn 2.35 phút so với 34.12 phút đối với PLA nguyên chất tại nhiệt độ làothermal 135 °C. Độ kết tinh của hợp chất PLA/HNA-0.75 được cải thiện lên 42.1% so với PLA nguyên chất. Cấu trúc “shish-kebab” của các hợp chất PLA/HNA chứa các hàm lượng HNA khác nhau (0.25–0.75 wt.%) đã được quan sát bằng kính hiển vi quang học phân cực khi nồng độ HNA vượt quá 0.375 wt.%. Hợp chất PLA/HNA-0.75 có sức bền va đập không răng (33.6 kJ/m2), sức bền va đập có răng (4.3 kJ/m2) và nhiệt độ biến dạng nhiệt (73.2 °C) cao nhất. Nhìn chung, một phương pháp khả thi đã được đề xuất để chế tạo PLA với các đặc tính cơ học và chịu nhiệt tuyệt vời thông qua công trình này.
Từ khóa
#PLA #HNA #đông kết #cơ học #nhiệt độTài liệu tham khảo
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