HuiMin Lu

Find an error

Name: 卢惠民; HuiMin Lu
Organization: Beihang University
Department:
Title: Professor
Co-reporter:Zhou Lian, Lu Huimin, Liu Zhiyu
Materials Letters 2016 Volume 175() pp:48-51
Publication Date(Web):15 July 2016
DOI:10.1016/j.matlet.2016.03.116
•ZIF-61/BCE composites were first prepared by solvent mixing method.•The curing mechanism of ZIF-61/BCE was discussed by FTIR.•Mechanism schematic was drawn.•ZIF-61/BCE at 0.5 wt% has a higher (ca. 60 °C)glass-transition temperature than pure BCE.•ZIF-61/BCE at 0.5 wt% shows stronger ability to resist deformation than that of pure BCE.ZIF-61 modified BCE composites were first prepared by solvent method. The catalytic mechanism of ZIF-61 in the curing process of BCE resin was analyzed by Fourier Transform Infrared Spectroscopy (FTIR) under different temperature. ZIF-61with Lewis acidity could accelerate the curing reaction rate of ZIF-61/BCE composites. The detailed kinetic data of ZIF-61/BCE composites and pure BCE resins was calculated. Dynamic thermomechanical analysis(DTMA) showed that the glass-transition temperature of ZIF-61/BCE (0.5 wt%) composites was increased ca.60 °C than that of pure BCE.
Co-reporter:Fanke Meng
Advanced Engineering Materials 2009 Volume 11( Issue 3) pp:198-201
Publication Date(Web):
DOI:10.1002/adem.200800263
Cyanic acid (1-methylethylidene)di-4,1-phenylene ester homopolymer
Boride
Copper phosphide
Nickel boride
calcium, compound with magnesium (1:2)
aluminium, compound with calcium (2:1)
Iron, compound with titanium (1:1)
Aluminum, compd. with cobalt (1:1)
Aqua regia