1 |
Degradation of melamine in aqueous systems by vacuum UV-(VUV-) photolysis. An alternative to photocatalysis Prevot AB, Maurino V, Fabbri D, Braun AM, Gonzalez MC Catalysis Today, 340, 286, 2020 |
2 |
Analysis of urea pyrolysis in 132.5-190 degrees C Wang DH, Dong N, Hui SE, Niu YQ Fuel, 242, 62, 2019 |
3 |
Spatial and temporal trends of melamine and its derivatives in sediment from Lake Shihwa, South Korea Zhu HK, Lee S, Moon HB, Kannan K Journal of Hazardous Materials, 373, 671, 2019 |
4 |
Spectroelectrochemical detection of specifically adsorbed cyanurate anions at gold electrodes with (111) orientation in contact with cyanate and cyanuric acid neutral solutions Cheuquepan W, Rodes A, Orts JM, Feliu JM Journal of Electroanalytical Chemistry, 800, 167, 2017 |
5 |
Isothermal polymerization kinetics of N,N'-bismaleimide-4,4'-diphenylmethane with cyanuric acid Pham QT, Hsu JM, Wang FM, Chen MP, Chern CS Thermochimica Acta, 647, 30, 2017 |
6 |
Electron beam induced degradation of atrazine in aqueous solution Xu G, Yao JZ, Tang L, Yang XY, Zheng M, Wang H, Wu MH Chemical Engineering Journal, 275, 374, 2015 |
7 |
Characterization of a novel melamine-degrading bacterium isolated from a melamine-manufacturing factory in China Wang H, Geng CN, Li JW, Hu AY, Yu CP Applied Microbiology and Biotechnology, 98(7), 3287, 2014 |
8 |
Kinetic modeling of urea decomposition based on systematic thermogravimetric analyses of urea and its most important by-products Brack W, Heine B, Birkhold F, Kruse M, Schoch G, Tischer S, Deutschmann O Chemical Engineering Science, 106, 1, 2014 |
9 |
Identification of urea decomposition from an SCR perspective; A combination of experimental work and molecular modeling Sebelius S, Le TT, Pettersson LJ, Lind H Chemical Engineering Journal, 231, 220, 2013 |
10 |
Biodegradation of melamine and its hydroxy derivatives by a bacterial consortium containing a novel Nocardioides species Takagi K, Fujii K, Yamazaki K, Harada N, Iwasaki A Applied Microbiology and Biotechnology, 94(6), 1647, 2012 |