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Method for determining temperature correction coefficient of energetic material chemical combination process

A technology of temperature correction coefficient and process, applied in the direction of material thermal development, etc., can solve problems such as poor operability, difficult evaluation of material hazard degree, and inability to accurately quantify values ​​one by one

Active Publication Date: 2020-12-11
XIAN MODERN CHEM RES INST
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Problems solved by technology

[0019] It can be seen from Table 1 that the temperature correction coefficient γ 1 The method of determination is a semi-quantitative method. Although there are corresponding evaluation parameter values, the actual operability is poor, and the values ​​cannot be accurately quantified one by one. Moreover, the connotation of the concept of value conditions is not clear, and there is a lack of quantitative criteria, so it is difficult to be effective with actual process conditions. Combined with the evaluation of the hazard degree of process materials

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  • Method for determining temperature correction coefficient of energetic material chemical combination process
  • Method for determining temperature correction coefficient of energetic material chemical combination process
  • Method for determining temperature correction coefficient of energetic material chemical combination process

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Embodiment Construction

[0067] The adiabatic calorimetric method of the present invention determines the method for determining the temperature correction coefficient of the propellant and explosive compounding process, taking the compounding process of butyl azidoethyl nitramine (BuAENA) as the research object, and determining the temperature correction coefficient of the synthesis reaction of the compounding process. BuAENA is based on BuNENA (butyl nitroxyethyl nitramine) as raw material, DMSO as solvent, and NaN 3 Prepared by compound reaction. The present invention uses the material (BuNENA+NaN) of the maximum cumulative degree moment in the synthetic reaction 3 +DMSO) as the research object, using the adiabatic accelerated calorimetry test to test the thermal decomposition parameters of the material at the moment of the maximum accumulation degree under adiabatic conditions, and obtain the apparent activation energy E according to the adiabatic decomposition reaction kinetic model a and pre-ex...

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Abstract

The invention discloses a method for determining a temperature correction coefficient of an energetic material chemical combination process. The method comprises the following steps: according to thermal decomposition kinetic parameters of energetic material chemical combination process materials under an adiabatic condition, obtaining the highest synthetic reaction temperature corresponding to maximum reaction rate arrival time under the adiabatic conditions of different danger levels; and taking the highest temperature and the specific operation time of the synthetic reaction corresponding to the arrival time of the maximum reaction rate under the adiabatic conditions of different danger levels as scales, comparing and measuring the highest temperature which can be reached by the actualsynthetic reaction and the actual process operation time, and quantitatively determining the temperature correction coefficient of the energetic material chemical combination process.

Description

technical field [0001] The invention belongs to the technical field of safety assessment of energetic material compounding process, in particular to a method for determining the temperature correction coefficient of energetic material compounding process. Background technique [0002] Energetic materials are prone to combustion and explosion under thermal, static, mechanical and other stimuli. Carrying out the risk assessment of combustion and explosion in the compounding process of energetic materials is an important part of safety production design and control. The material in the energetic material compounding process is a poor conductor of heat and is extremely sensitive to thermal stimulation. It will undergo self-catalytic decomposition and exothermic reaction when heated, and it is easy to generate heat accumulation and cause thermal explosion, which is the inducing factor of a large number of safety accidents. Therefore, the process The assessment of combustion and e...

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): G01N25/48
CPCG01N25/48
Inventor 禄旭丁黎祝艳龙黄蒙华栋周静
Owner XIAN MODERN CHEM RES INST
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