Factors affecting the intramolecular decomposition of hexamethylene triperoxide diamine and implications for detection

•Direct detection of HMTD vapor is unlikely.•HMTD breaks down into volatile decomposition products under ambient conditions.•HMTD products change with time, storage condition, and material formulation.•Data suggests an intermolecular decomposition process for HMTD. Hexamethylene triperoxide diamine...

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Veröffentlicht in:Journal of Chromatography A 2016-06, Vol.1451, p.83-90
Hauptverfasser: Steinkamp, Frank Lucus, DeGreeff, Lauryn E., Collins, Greg E., Rose-Pehrsson, Susan L.
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creator Steinkamp, Frank Lucus
DeGreeff, Lauryn E.
Collins, Greg E.
Rose-Pehrsson, Susan L.
description •Direct detection of HMTD vapor is unlikely.•HMTD breaks down into volatile decomposition products under ambient conditions.•HMTD products change with time, storage condition, and material formulation.•Data suggests an intermolecular decomposition process for HMTD. Hexamethylene triperoxide diamine (HMTD) is an easily synthesized and highly sensitive organic peroxide frequently used as a primary explosive. The vapor pressure of HMTD is very low, impeding vapor detection, especially when compared to other peroxide explosives, such as triacetone triperoxide (TATP) or diacetone diperoxide (DADP). Despite this fact, HMTD has a perceptible odor that could be utilized in the indirect detection of HMTD vapor. Headspace measurements above solid HMTD samples confirm that HMTD readily decomposes under ambient conditions to form highly volatile products that include formic acid, ammonia, trimethylamine and formamides. The presence and quantity of these compounds are affected by storage condition, time, and synthetic method, with synthetic method having the most significant effect on the content of the headspace. A kinetic study of HMTD decomposition in solution indicated a correlation between degradation rate and the presence of decomposition species identified in the headspace, and provided further insight into the mechanism of decomposition. The study provided evidence for a proton assisted decomposition reaction with water, as well as an intramolecular decomposition process facilitated by the presence of water.
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Hexamethylene triperoxide diamine (HMTD) is an easily synthesized and highly sensitive organic peroxide frequently used as a primary explosive. The vapor pressure of HMTD is very low, impeding vapor detection, especially when compared to other peroxide explosives, such as triacetone triperoxide (TATP) or diacetone diperoxide (DADP). Despite this fact, HMTD has a perceptible odor that could be utilized in the indirect detection of HMTD vapor. Headspace measurements above solid HMTD samples confirm that HMTD readily decomposes under ambient conditions to form highly volatile products that include formic acid, ammonia, trimethylamine and formamides. The presence and quantity of these compounds are affected by storage condition, time, and synthetic method, with synthetic method having the most significant effect on the content of the headspace. A kinetic study of HMTD decomposition in solution indicated a correlation between degradation rate and the presence of decomposition species identified in the headspace, and provided further insight into the mechanism of decomposition. 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subjects Ammonia
Ammonia - analysis
Bridged Bicyclo Compounds, Heterocyclic - analysis
Bridged Bicyclo Compounds, Heterocyclic - chemistry
Decomposition
Decomposition pathway
Decomposition reactions
Diamines
Drug Storage
Explosive Agents - analysis
Explosive Agents - chemistry
Explosives detection
Formamides - analysis
Formates - analysis
Hexamethylene triperoxide diamine
Kinetics
Methylamines - analysis
Organic peroxides
Peroxide explosives
Peroxides
Protons
Time Factors
Trimethylamine
Vapor Pressure
Volatilization
Water - chemistry
title Factors affecting the intramolecular decomposition of hexamethylene triperoxide diamine and implications for detection
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