• DocumentCode
    1013097
  • Title

    Polymer property prediction and optimization using neural networks

  • Author

    Roy, N.K. ; Potter, W.D. ; Landau, D.P.

  • Author_Institution
    Dept. of Chem., Brandeis Univ., Waltham, MA, USA
  • Volume
    17
  • Issue
    4
  • fYear
    2006
  • fDate
    7/1/2006 12:00:00 AM
  • Firstpage
    1001
  • Lastpage
    1014
  • Abstract
    Prediction and optimization of polymer properties is a complex and highly nonlinear problem with no easy method to predict polymer properties directly and accurately. The problem is especially complicated with high molecular weight polymers such as engineering plastics which have the greatest use in industry. The effect of modifying a monomer (polymer repeat unit) on polymerization and the resulting polymer properties is not easy to investigate experimentally given the large number of possible changes. This severely curtails the design of new polymers with specific end-use properties. In this paper, we show how properties of modified monomers can be predicted using neural networks. We utilize a database of polymer properties and employ a variety of networks ranging from backpropagation networks to unsupervised self-associating maps. We select particular networks that accurately predict specific polymer properties. These networks are classified into groups that range from those that provide quick training to those that provide excellent generalization. We also show how the available polymer database can be used to accurately predict and optimize polymer properties.
  • Keywords
    backpropagation; neural nets; optimisation; polymers; backpropagation networks; complex highly nonlinear problem; engineering plastics; high molecular weight polymers; monomer polymer repeat unit; neural networks; polymer database; polymer property optimization; polymer property prediction; unsupervised self-associating maps; Artificial neural networks; Backpropagation; Databases; Liquid crystal polymers; Multidimensional systems; Neural networks; Optimization methods; Physics; Plastics industry; Robustness; Affinity; backpropagation; glass-transition; initial weights; learning rate; main chain and side chains; modulus; momentum; neural networks; pendant groups; polymerization; polymers; potentials; self-associating; steric factors;
  • fLanguage
    English
  • Journal_Title
    Neural Networks, IEEE Transactions on
  • Publisher
    ieee
  • ISSN
    1045-9227
  • Type

    jour

  • DOI
    10.1109/TNN.2006.875981
  • Filename
    1650254