Energetic materials such as explosives, steel, peroxides and deposits may accumulate heat under certain storage conditions. Heat accumulation is accompanied by increase in sample temperature ultimately leading to run-away reaction possibly causing fire or explosions.
Energetic materials exhibiting heat production during storage pose a big risk for self-heating under non suitable storage conditions. Storage conditions such as temperature, humidity, volume of container, heat loss properties are critical parameters to consider to evaluate the risk for self-heating and the risk for self-heating possibly resulting in self-ignition, fire and explosions.
The use of analytical techniques to monitor the rate of heat production combined with advanced simulation models considering the storage condtions and thermal properties of all materials is very helpful to simulate temperature and conversion profiles in a bulk storage.
Services
Monitoring the rate of heat production
Development of simulation model
Sensitivity analysis
Simulation and modelling
Design of reliable storage conditions
Energetic materials
Keywords
Runaway reactions
Kinetics
Storage
Self-degradation
Effect of oxygen/humidity
Accelerated ageing
STANAG 4582

Polymer technology
Polymer materials
Polymer processing
Characterisation
Curing of thermoset

Epoxy technology
Curing progress
Conversion, vitrification
Curing kinetics
Resin and curing systems

Analysis & Characterisation
DSC, TGA
DMA
Tensile testing
Creep testing
Diffusion properties
Stability and lifetime
Accelerated ageing
Climate chamber
Life time prediction
Reaction kinetics
Life time extension

Simulation & Modeling
Heat transfer
Structural mechanics
Flow properties
Diffusions properties
Electric properties

Flow properties
Viscosity
Viscosity function
Pseudo-plastic
Thixotropy
Flow behaviour
