Hydroxylamine nitrate self-catalytic kinetics study with adiabatic calorimetry

Journal of Hazardous Materials

Volumn 162, Issue 2-3, 2009, Pages 1217-1222

  Liu, Lijun ^a   Wei, Chunyang ^b   Guo, Yuyan ^a   Rogers, William J ^a   Sam Mannan, M ^a  

^a Department of Electrical and Computer Engineering   (United States)

^b BASF CORPORATION   (United States)

Author keywords

Adiabatic calorimetry; Critical condition; Hydroxylamine nitrate; Thermal explosion

Indexed keywords

CALORIMETERS; CALORIMETRY; COMBUSTION; DECOMPOSITION; EXPLOSIVES; NITRATES; NUCLEAR INDUSTRY; SMELTING; SOLID PROPELLANTS; THEOREM PROVING; THERMAL EFFECTS;

ADIABATIC CALORIMETRY; AUTOCATALYTIC DECOMPOSITIONS; AUTOCATALYTIC KINETIC MODELS; AUTOCATALYTIC KINETICS; CATALYTIC KINETICS; COMBUSTION MECHANISMS; CRITICAL BEHAVIORS; CRITICAL CONDITION; DECOMPOSITION MECHANISMS; HANFORD; HYDROXYLAMINE NITRATE; MODEL PARAMETERS; RAPID DECOMPOSITIONS; SAVANNAH RIVER SITES; STORAGE AND HANDLINGS; THERMAL EXPLOSION; US DEPARTMENT OF ENERGIES;

AMINES;

HYDROXYLAMINE; NITRATE;

CALORIMETRY; CATALYSIS; DECOMPOSITION; KINETICS; NITRATE;

ADIABATICITY; ARTICLE; CALORIMETRY; CATALYSIS; CHEMICAL ANALYSIS; CHEMICAL REACTION KINETICS; DECOMPOSITION;

CALORIMETRY; CATALYSIS; HYDROXYLAMINES; KINETICS; THERMODYNAMICS;

HANFORD; NORTH AMERICA; SAVANNAH RIVER SITE; SOUTH CAROLINA; UNITED STATES; WASHINGTON [UNITED STATES];

EID: 57649196585     PISSN: 03043894     EISSN: None     Source Type: Journal    
DOI: 10.1016/j.jhazmat.2008.06.009     Document Type: Article

References (27)

1. Technical Report on Hydroxylamine Nitrate, US Department of Energy, 1998.
2. Cisneros L.O., Rogers W.J., and Mannan M.S. Effect of air in the thermal decomposition of 50 mass% hydroxylamine/water. Journal of Hazardous Materials 95 1/2 (2002) 13-25
3. Wei C., Rogers W.J., and Mannan M.S. Thermal decomposition hazard evaluation of hydroxylamine nitrate. Journal of Hazardous Materials 130 1/2 (2006) 163-168
4. Wei C., Rogers W., and Mannan M.S. Detection of autocatalytic decomposition behavior of energetic materials using APTAC. Journal of Thermal Analysis and Calorimetry 83 1 (2006) 125-130
5. Amariei D., Courtheoux L., Rossignol S., and Kappenstein C. Catalytic and thermal decomposition of ionic liquid monopropellants using a dynamic reactor. Comparison of powder and sphere-shaped catalysts. Chemical Engineering and Processing 46 2 (2007) 165-174
6. Wei J.B., and Shaw B.D. Influences of pressure on reduced-gravity combustion of HAN-methanol-water droplets in air. Combustion and Flame 146 3 (2006) 484-492
7. 3 determined with a flow cell and FT Raman spectroscopy. Journal of Physical Chemistry 100 18 (1996) 7463-7470
8. 3 at 463-523 K and 27.5 MPa by infrared spectroscopy. Journal of Physical Chemistry A 101 46 (1997) 8593-8596
9. Lee H., and Litzinger T.A. Chemical kinetic study of HAN decomposition. Combustion and Flame 135 1/2 (2003) 151-169
10. Merzhanov A.G., Barzykin V.V., and Abramov V.G. Theory of thermal explosion: from N.N. Semenov to present day. Chemical Physics Reports 15 6 (1996) 793-837
11. Kossoy A.A., Benin A.I., Smykalov P.Y., and Kasakov A.N. A computerized system for research into the thermal safety of chemical processes. Thermochimica Acta 203 (1992) 77-92
12. Misharev P., Kossoy A., and Benin A. Methodology and software for numerical simulation of thermal explosion. Process Safety and Environmental Protection 74 B1 (1996) 17-24
13. Chippett S., Ralbovsky P., and Granville R. The APTAC: a high pressure, low thermal inertia, adiabatic calorimeter. Proceedings of the International Symposium on Runaway Reactions, Pressure Relief Design, and Effluent Handling. New Orleans, March 11-13 (1998) 81-108
14. Townsend D.I., and Tou J.C. Thermal hazard evaluation by an accelerating rate calorimeter. Thermochimica Acta 37 1 (1980) 1-30
15. Bohn M.A. Determination of the kinetic data of the thermal decomposition of energetic plasticizers and binders by adiabatic selfheating. Proceedings of the Workshop on the Microcalorimetry of Energetic Materials. 2nd. Leeds, UK, May 17-19 (1999) F1-F25
16. Steinbach J., and Klais O. Prediction of self-reactive properties from DTA-measurements. Institution of Chemical Engineers Symposium Series 141 (1997) 261-272
17. Wilcock E., and Rogers R.L. A review of the phi factor during runaway conditions. Journal of Loss Prevention in the Process Industries 10 5/6 (1997) 289-302
18. Gray B.F., and Jones J.C. Critical conditions in chemically reacting systems. Combustion and Flame 40 3 (1981) 331-332
19. Boddington T., Gray P., Kordylewski W., and Scott S.K. Thermal explosions with extensive reactant comsumption: a new criterion for criticality. Proceedings of The Royal Society of London, Series A: Mathematical and Physical Sciences 390 (1983) 13-30
20. Morbidelli M., and Varma A. Generalized criterion for parametric sensitivity: application to thermal explosion. Chemical Engineering Science 43 1 (1988) 91-102
21. Shouman A.R., and El-Sayed S.A. Accounting for reactant consumption in the thermal explosion problem. Part I. Mathematical foundation. Combustion and Flame 88 3/4 (1992) 321-344
22. El-Sayed S.A. Thermal explosion of autocatalytic reaction. Journal of Loss Prevention in the Process Industries 16 4 (2003) 249-257
23. El-Sayed S.A. Explosion characteristics of autocatalytic reaction. Combustion and Flame 133 3 (2003) 375-378
24. Bronshtein I.N., Semendyayev K.A., Musiol G., and Muehlig H. Handbook of Mathematics. 4th ed. (2007), Springer, Berlin/Heidelberg/New York
25. Pembridge J.R., and Stedman G. Kinetics, mechanism, and stoichiometry of the oxidation of hydroxylamine by nitric acid. Journal of the Chemical Society, Dalton Transactions: Inorganic Chemistry (1972-1999) 11 (1979) 1657-1663
26. Shaw B.D., and Williams F.A. A model for the deflagration of aqueous solutions of hydroxyl ammonium nitrate. Proceedings of the conference on 24th Combustion Institute. Sydney, Australia, July 5-10 (1992) 1923-1930
27. Schlünder E.U. VDI Heat Atlas (1993), Woodhead Publishing Limited, Düsseldorf