1.
Theoretical study on free radical model for n-hexane pyrolysis
正己烷裂解反应自由基模型的理论研究
2.
Synthesis and Characterization of Magnesium-Substituted Aluminophosphate Molecular Sieves (MgAPO-11) and Their Kinetic Study of Catalytic Cracking of n-Hexane
MgAPO-11分子筛的合成、表征及其催化正己烷裂解反应的动力学研究
3.
Catalytic Cracking of n-Alkanes and Coke Deposite under Supercritical Condition;
超临界条件下正构烷烃催化裂解和积碳研究
4.
Catalytic Cracking of n-Dodecane/Isooctane Binary Model Fuel Under Supercritical Conditions
超临界状态下正十二烷/异辛烷双元模型燃料的催化裂解反应
5.
Pyrolysis Mechanism of Carbon Matrix Precursor Cyclohexane for the Rapid Densification Process;
快速液相沉积致密化工艺碳前驱体环己烷的热裂解机理
6.
Effects of Supercritical Conditions on Coke Formation during Catalytic Cracking of Toluene and n-dodecane;
超临界条件对甲苯和正十二烷催化裂解结焦的影响
7.
Compositional characteristics and geochemical significance of n-alkanes in process of crude oil cracking
原油裂解过程中正构烷烃的组成变化特征及其地球化学意义
8.
A Kinetic Model of Stable Carbon Isotope Ratios in Gaseous Hydrocarbons Generated from Thermal Cracking of n-tetracosane and Its Geological Significance
正构二十四烷裂解成气碳同位素动力学模拟及其地质意义
9.
Solubility and volumetric mass transfer coefficient of ethylene and propylene in n-hexane solution of low molecular weight polyethylene
乙烯和丙烯在低聚物-正己烷溶液中的溶解度及体积传质系数测定
10.
THE COMPARISON OF ULTRAVIOLET ABSORPTION ON UNSATURATED FATTY ACIDS DISSOLVED IN ETHANOL AND N-HEXANE
乙醇和正己烷溶解不饱和脂肪酸的紫外吸收比较
11.
The Study of Methane Pyrolysis to Acetylene in Arc Plasma;
电弧等离子体裂解甲烷制乙炔的研究
12.
Study on siloxane cracking production technology optimization
混合硅氧烷裂解生产工艺优化的研究
13.
Analysis of Pyrolytic Process of Vinyl-containing Polysilazane PSN-1
乙烯基聚硅氮烷PSN-1热裂解研究
14.
Study on foam height of catalyst and degrade organopolysiloxane
混合硅氧烷催化裂解泡沫高度的研究
15.
Pyrolysis of Polysilazane Containing Vinyl-thiol Copolymer
乙烯基硅氮烷-巯基共聚物热裂解研究
16.
Gas-Liquid Phase Equilibrium of Methyl Chloride-N-Hexane Binary System;
一氯甲烷—正己烷二元体系气液相平衡研究
17.
Study on Solubilities of Succinic Acid in Cyclohexane,Cyclohexanone and Cyclohexanol
丁二酸在环己烷,环己酮,环己醇中溶解度的研究
18.
After the decarboxylation process the alkane produced can be degraded or "cracked" =to lower carbon number alkanes.
脱羧基作用后，所形成的烷烃能被降解或“裂解”成低碳数烷烃。