Abstract

Self-optimization of chemical reactions enables faster optimization of reaction conditions or discovery of molecules with required target properties. The technology of self-optimization has been expanded to discovery of new process recipes for manufacture of complex functional products. A new machine-learning algorithm, specifically designed for multiobjective target optimization with an explicit aim to minimize the number of “expensive” experiments, guides the discovery process. This “black-box” approach assumes no a priori knowledge of chemical system and hence particularly suited to rapid development of processes to manufacture specialist low-volume, high-value products. The approach was demonstrated in discovery of process recipes for a semibatch emulsion copolymerization, targeting a specific particle size and full conversion.

Highlights

  • P

  • The highly dimensional decision space of fourteen variables was chosen to allow the discovery of new recipes for the target of high conversion and particle size of 100 nm

  • Only physical constraints were made to obtain feasible recipes, as for the amount of surfactant and initiator the water solubility was taken into account or another example for the reaction temperature the activation temperature of the initiator and the boiling point of water were taken into account

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Summary

Introduction

P (ratio of initiator solution fed in the reactor during feeding time 1 and 2) Amount of water for initiator solution which get fed into the reactor

Results
Conclusion

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