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In‐Situ Tensile Testing of Propellants in SEM: Influence of Temperature

A tensile module system placed within a Scanning Electron Microscope (SEM) was utilized to conduct in‐situ tensile testing of propellant samples. The tensile module system allows for real‐time in‐situ SEM analysis of the samples to determine the failure mechanism of the propellant material under ten...

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Published in:Propellants, explosives, pyrotechnics explosives, pyrotechnics, 2017-12, Vol.42 (12), p.1396-1400
Main Authors: Di Benedetto, Giuseppe L., van Ramshorst, Marthinus C. J., Duvalois, Willem, Hooijmeijer, Peter A., van der Heijden, Antoine E. D. M.
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cited_by cdi_FETCH-LOGICAL-c3178-3890b468ca678bad384f99cdebe8bed69e44acb4b82cef0f57dd43a6ed7220e93
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container_title Propellants, explosives, pyrotechnics
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creator Di Benedetto, Giuseppe L.
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description A tensile module system placed within a Scanning Electron Microscope (SEM) was utilized to conduct in‐situ tensile testing of propellant samples. The tensile module system allows for real‐time in‐situ SEM analysis of the samples to determine the failure mechanism of the propellant material under tensile force. The focus of this study was to vary the experimental parameters of the tensile module system and analyze how they affect the failure mechanism of the samples. The experimental parameters varied included strain rate and sample temperature (−54, +25 and +40 °C). Stress‐strain diagrams were recorded during the in‐situ tensile tests, and these results were coupled with the in‐situ images and videos of the samples captured with SEM analysis. The experiments conducted at −54 °C showed a different failure behavior of the propellant sample due to its rigidity at this low temperature, while experiments conducted at +25 and +40 °C displayed a similar failure mechanism. For future testing using this tensile tester, special attention should be given to improved temperature control of the specimen, especially at low temperatures.
doi_str_mv 10.1002/prep.201700178
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subjects Failure analysis
Failure mechanisms
In-situ SEM
In-situ tensile testing
Micromechanical deformation
Propellant
Propellant tests
Scanning electron microscopy
Strain rate
Stress-strain curves
Stress-strain relationships
Temperature
Temperature control
Temperature effect
Tensile tests
title In‐Situ Tensile Testing of Propellants in SEM: Influence of Temperature
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