Stephen Pearson, Specialist Data Scientist, Syngenta

 

Many powdered materials slowly oxidize with time which generates heat. If in a bulk form (such as during transport or storage) then heat generation can exceed heat loss, leading to ignition. Climate control and limiting packing amounts can reduce the risk, but this increases the costs for the consumer through reduced logistical options, larger shipping volumes and disposal of additional packaging. Laboratory tests are well established to determine a safe packing size. However, they are costly, especially for new products where limited amounts of material are available. The physics of the oxidation process can be simulated provided all the material properties are known. Using JMP® we will demonstrate how to combine these two approaches to reduce the amount of thermal stability testing required: 1) generate a constrained spacing-filling experimental design; 2) control the simulation software (COMSOL Multiphysics®) via JSL; 3) build meta-models; 4) simulate the outcome for new materials. By obtaining estimates of different material properties with each test, the prediction uncertainty can be updated to suggest the range of suitable packaging given the available data. This enables a data-driven approach to the selection of laboratory tests.

 

Video Player is loading.
Current Time 0:00
Duration 28:59
Loaded: 0%
Stream Type LIVE
Remaining Time 28:59
 
1x
  • Chapters
  • descriptions off, selected
  • captions off, selected
    Using Simulation Methods in JMP to Prevent Supply Chain Fires
    Video Player is loading.
    Current Time 0:00
    Duration 28:59
    Loaded: 0.00%
    Stream Type LIVE
    Remaining Time 28:59
     
    1x
      • Chapters
      • descriptions off, selected
      • captions off, selected
      • en (Main), selected
      (view in My Videos)

      Published on ‎05-21-2024 04:49 PM by | Updated on ‎05-21-2024 05:07 PM

      Stephen Pearson, Specialist Data Scientist, Syngenta

       

      Many powdered materials slowly oxidize with time which generates heat. If in a bulk form (such as during transport or storage) then heat generation can exceed heat loss, leading to ignition. Climate control and limiting packing amounts can reduce the risk, but this increases the costs for the consumer through reduced logistical options, larger shipping volumes and disposal of additional packaging. Laboratory tests are well established to determine a safe packing size. However, they are costly, especially for new products where limited amounts of material are available. The physics of the oxidation process can be simulated provided all the material properties are known. Using JMP® we will demonstrate how to combine these two approaches to reduce the amount of thermal stability testing required: 1) generate a constrained spacing-filling experimental design; 2) control the simulation software (COMSOL Multiphysics®) via JSL; 3) build meta-models; 4) simulate the outcome for new materials. By obtaining estimates of different material properties with each test, the prediction uncertainty can be updated to suggest the range of suitable packaging given the available data. This enables a data-driven approach to the selection of laboratory tests.

       

      Video Player is loading.
      Current Time 0:00
      Duration 28:59
      Loaded: 0%
      Stream Type LIVE
      Remaining Time 28:59
       
      1x
      • Chapters
      • descriptions off, selected
      • captions off, selected
        Using Simulation Methods in JMP to Prevent Supply Chain Fires
        Video Player is loading.
        Current Time 0:00
        Duration 28:59
        Loaded: 0.00%
        Stream Type LIVE
        Remaining Time 28:59
         
        1x
          • Chapters
          • descriptions off, selected
          • captions off, selected
          • en (Main), selected
          (view in My Videos)



          0 Kudos