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SiO2 Giúp Tăng Cường Tính Siêu Kỵ Nước của Vải Cotton Được Phủ Polybenzoxazine Cardanol và Hành Vi Tách Biệt Dầu – Nước
Silicon - Trang 1-13 - 2023
Tóm tắt
Trong nghiên cứu này, các lượng khác nhau của SiO2 đã được kết hợp với monomer cardanol-diaminodiphenylmethane (C-ddm) để tạo ra bề mặt cotton siêu kỵ nước/siêu ưa dầu. Việc kết hợp silica với monomer C-ddm được thực hiện thông qua cả hai phương pháp tại chỗ và ngoài chỗ. Tetraethylorthosilicate (TEOS) đã được thêm vào như một tiền chất silica trong trường hợp phương pháp tại chỗ, trong khi silica mao quản đã được chuẩn bị trước (SBA-15) được thêm vào tách biệt trong trường hợp phương pháp ngoài chỗ. Chất liên kết silane đã được sử dụng trong cả hai phương pháp để tạo ra lớp phủ lai hữu cơ-vô cơ. Sau đó, các thuộc tính và đặc điểm bề mặt của các loại vải cotton đã được sửa đổi đã được phân tích. Vải được sửa đổi SiO2/poly(C-ddm) tại chỗ cho thấy góc tiếp xúc với nước (WCA) là 153° và góc trượt thấp là 9°, cao hơn so với vải được sửa đổi SBA-15/poly(C-ddm) ngoài chỗ. Phân tích vi mô cho thấy việc kiểm soát sự rối loạn chuỗi của chuỗi carbon cardanol được ưa thích với việc kết hợp silica tại chỗ. Chúng tôi nhận thấy rằng vải cotton được sửa đổi tại chỗ với 5% SiO2/poly (C-ddm) hiệu quả trong việc tách biệt hỗn hợp dầu-nước, với hiệu quả tách biệt đạt 99,1% và giá trị dòng chảy là 13.500 L/m2h. Nghiên cứu này nhấn mạnh tầm quan trọng của mạng lưới lai silica trong việc đạt được bề mặt siêu kỵ nước cho các ứng dụng tách biệt dầu-nước, và gợi ý thực hiện thêm các nghiên cứu về cấu trúc phân tử liên quan trong các lớp phủ lai.
Từ khóa
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