A kinetic model for the autocatalytic behavior of nitric acid/formic acid mixtures to predict induction period

被引:9
作者
Ando, Mahoko [1 ]
Fujita, Michiya [1 ]
Izato, Yu-ichiro [1 ,2 ]
Miyake, Atsumi [2 ]
机构
[1] Yokohama Natl Univ, Grad Sch Environm & Informat Sci, Hodogaya Ku, 79-5 Tokiwadai, Yokohama, Kanagawa 2408501, Japan
[2] Yokohama Natl Univ, Inst Adv Sci, Hodogaya Ku, 79-5 Tokiwadai, Yokohama, Kanagawa 2408501, Japan
关键词
Autocatalytic reaction; Kinetic model; Induction period; Nitric acid; Formic acid; CUMENE HYDROPEROXIDE; RUNAWAY REACTION; DECOMPOSITION; OXIDATION; PARAMETERS; PEROXIDE; IDENTIFICATION; CALORIMETRY; REACTOR; DSC;
D O I
10.1016/j.psep.2021.05.012
中图分类号
X [环境科学、安全科学];
学科分类号
08 ; 0830 ;
摘要
Prevention of runaway reactions is one of the ultimate goals of process safety engineering. However, the lack of knowledge for mechanism and kinetics of autocatalytic reactions enables to design safer processes handling reactive materials. The purpose of the present study was to accurately predict the induction period of autocatalytic reaction system composed by nitric acid and formic acid using a sophisticated kinetic model for the autocatalytic behavior. The reactions of nitric acid with organic compounds are autocatalytic and so can rapidly generate large amounts of heat and pressure without obvious warning signs. Thermal analyses were carried out using a reaction calorimeter while ion chromatography was employed to quantify reaction products. Exothermic reactions were observed to begin when the concentration of nitrous acid, which was identified as the autocatalyst, exceeded 4.6 +/- 1.2 mmol L-1. A kinetic model was determined as d[HONO]/dt = 2.62 x 1012exp(1.06 x 104/T)center dot[HNO3]2.5 +/- 0.1[HCOOH]1.8 +/- 0.1[HONO]1.9 +/- 0.1. This model was in good agreement with other results obtained from reaction calorimetry. (c) 2021 Institution of Chemical Engineers. Published by Elsevier B.V. All rights reserved.
引用
收藏
页码:182 / 187
页数:6
相关论文
共 46 条
[11]  
Duval P.B., 2020, DWTRPT010, P1
[12]  
Duval P.B, 2018, DWTRPT005, P1, DOI [10.2172/1467250, DOI 10.2172/1467250]
[13]   Isothermal kinetic analysis of solid-state reactions using plots of rate against derivative function of the rate equation [J].
Galwey, AK ;
Brown, ME .
THERMOCHIMICA ACTA, 1995, 269 :1-25
[14]  
Healy T.V., 1958, J APPL CHEM-USSR, V8, P553, DOI DOI 10.1002/JCTB.5010080903
[15]   KINETICS AND MECHANISM OF AUTOCATALYTIC OXIDATION OF FORMALDEHYDE BY NITRIC-ACID [J].
HORVATH, M ;
LENGYEL, I ;
BAZSA, G .
INTERNATIONAL JOURNAL OF CHEMICAL KINETICS, 1988, 20 (09) :687-697
[16]   Identification of kinetic models for the assessment of reaction hazards [J].
Kossoy, A. ;
Akhmetshin, Yu .
PROCESS SAFETY PROGRESS, 2007, 26 (03) :209-220
[17]   Evaluating thermal explosion hazard by using kinetics-based simulation approach [J].
Kossoy, AA ;
Sheinman, IY .
PROCESS SAFETY AND ENVIRONMENTAL PROTECTION, 2004, 82 (B6) :421-430
[18]   What do we know already about reactor runaway? - A review [J].
Kummer, Alex ;
Varga, Tamas .
PROCESS SAFETY AND ENVIRONMENTAL PROTECTION, 2021, 147 :460-476
[19]   Assessing the thermal properties of [Bmim]NO3 through thermokinetic calculations and the energy equilibrium method [J].
Liu, Shang-Hao ;
Zhang, Bin ;
Cao, Chen-Rui .
PROCESS SAFETY AND ENVIRONMENTAL PROTECTION, 2020, 134 :270-276
[20]   Thermal hazard evaluation of the autocatalytic reaction of benzoyl peroxide using DSC and TAM III [J].
Liu, Shang-Hao ;
Hou, Hung-Yi ;
Shu, Chi-Min .
THERMOCHIMICA ACTA, 2015, 605 :68-76