(1) Advances in ethane dehydrogenation to ethene have been reviewed.

(2) A mathematical model was established for catalytic dehydrogenation of butane in plug flow membrane reactor.

(3) First, the nature of dehydrogenation of ethylbenzene to styrene was studied in an experilmen - tal adiabatic reactor.

(4) According to the equilibrium composition propane dehydrogenation, we simulate the adiabatic combustion pressure rise at different industrial reaction temperature under different oxygen concentration.

(5) The mechanism of dehydrogenation of secondary butanol and the catalyst characteristics and regeneration steps were introduced.

(6) The kinetics of dehydrogenation of 2 - butanol to butanone on Ni Ultrafine particle catalyst has been studied.

(7) The key for isobutane dehydrogenation is to synthesize non - noble mental catalysts.

(8) The research progress in catechol synthesis by dehydrogenation of 1, 2 cyclohehanediol were reviewed.

(9) Preparation process ofp cymene with gas phase catalytic dehydrogenation of industrial dipentene was studied and the following results were obtained.

(10) The unimolecular decomposition and dehydrogenation of ethanol initiate the branched chain reaction, and the 3 isomers of radical C2H5O determine the direction of the reaction chain branching.

(11) Catalytic dehydrogenation of ethylbenzene is an important method for production of styrene.

(12) The research of ethylbenzene dehydrogenation kinetics has been carried out in an experimental adiabatic reactor.

(13) Amorphous alloys were used as catalysts for the dehydrogenation oxidation of diethanolamine to produce iminodiacetic acid.

(14) The oxidative dehydrogenation of ethane to ethylene was studied over alkaline earth oxides promoted with alkaline metal chlorides.

(15) Higher productivity and selectivity of propene in dehydrogenation of propane wereachieved with MgO crystal catalyst treated by shock wave.

(16) A mathematical model for dehydrogenation of butylene into butadiene that reacts in fluidized-bed reactor has been established.

(17) The performances and application status of several cyclohexanol dehydrogenation catalysts in home and abroad are compared.

(18) The research on the amino acid by dehydrogenation alkanolamine(s) in catalyst was recommended.

(19) Ethane dehydrogenation to ethene is an effective method for using ethane.

(20) The oxidative dehydrogenation of butane to butene and butadiene was studied by using conventional fixed bed reactor (FBR), inert membrane reactor (IMR) and mixed inert membrane reactor (MIMR).

(21) The catalytic dehydrogenation of ethylbenzene to styrene in zeolite membrane reactors was studies.

(22) BC-DH2004 catalyst was used in dehydrogenation of sec-butyl alcohol(SBA)to prepare methyl ethyl ketone(MEK).

(23) A new catalytic distillation process for the endothermic reaction of the dehydrogenation of isopropanol is developed in this work.

(24) The invention discloses a method for preparing the carrier catalyst which can be used in aminoethyl alcohol dehydrogenation reaction to prepare the iminodiacetic acid, and relative usage.

(25) This paper introduces a gas chromatographic method for quantitative determination of feed gas and products of oxidative dehydrogenation of ethane to ethene.

(26) The mechanism of rapid densification by CVI includes magnetic attraction of radicals, electric deposition of radicals, and dehydrogenation and aggregation of radicals.

(27) The results show the auto hydrogen fuel based on MCH dehydrogenation on board seems to be feasible, and the MTH hydrogen storage system has a better energy utilization ratio up to 0.59.

(28) Recent progress of the catalysts, reaction routes and mechanism of isobutane dehydrogenation is reviewed.

(29) The main synthetic methods of o-phenylphenol were reviewed. The method and research status of dehydrogenation too-phenylphenol after cyclohexane condensation reaction were discussed detailedly.

(30) It was observed that the main products of ethane oxidative dehydrogenation were ethene, carbon monoxide and carbon dioxide.

(31) Methanol dehydrogenation is a promising route for commercial production of anhydrous formaldehyde.

(32) The procedure of dehydrogenation and cracking of dipentene was discussed.

(33) The effect of sulfur on aromatization, dehydrogenation, hydroisomerization and hydrocracking activities of the catalyst has been studied with different hydrocarbon feedstocks.

(34) The oxidative dehydrogenation of propane (ODP) to propene is one important subject in natural gas, oil field gas and refinery gas application area.

(35) That is dehydrogenation and cyclization of paraffins, dehydrogenation and aromatization of naphthenes, and cracking reaction to form C 5 lighter products.