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INtelligent System for Processing Intensive Reaction Electrochemistry

Project description

Automating green chemistry for cyclopropane synthesis

Cyclopropane rings are crucial intermediates in organic synthesis, yet scalable and sustainable production methods remain underdeveloped. Traditional electrochemical (EC) approaches face challenges like electrode passivation, limiting efficiency and reproducibility. Supported by the Marie Skłodowska-Curie Actions programme, the INSPIRE project is addressing these challenges by integrating EC synthesis into an automated continuous-flow microreactor, enhanced by machine learning. This system optimises reaction conditions, minimises electrode fouling, and improves scalability. Using Bayesian optimisation, INSPIRE refines parameters for higher yields and selectivity while generating real-time data for systematic reaction screening. By merging EC synthesis with automation and AI-driven optimisation, INSPIRE establishes a high-throughput approach for producing cyclopropane rings and other valuable molecules in a greener, more efficient manner.

Objective

This project focuses on developing and implementing an automated organic electrosynthesis process of cyclopropane rings. Electrochemical (EC) methods, which often suffering from passivation phenomena, will be applied in a continuous-flow microreactor integrated into a global chemical robot, addressing critical challenges in the field of synthetic chemistry. Cyclopropane rings are vital intermediates in organic synthesis, yet their scalable production via green and efficient methods remains underdeveloped.

This study aims to optimize EC cyclopropanation with the aid of machine learning algorithms (e.g. Bayesian optimization) to refine reaction conditions and minimize electrode passivation. The key objectives include:
(i) optimizing reaction parameters to maximize yields, conversion rates, and selectivity,
(ii) implementing advanced machine learning tools to address and mitigate fouling—a major barrier to EC process scalability—and,
(iii) developing robust numerical models to enable the scaling up of EC reactions.

The integration of machine learning with EC flow synthesis is expected to enhance reaction efficiency and reproducibility, creating a framework for the systematic screening of reactions and mechanisms, thus reducing the manual experimental time required by traditional optimization methods. The EC microreactor, implemented within automated continuous-flow platforms, will facilitate dataset generation, real-time control over reaction dynamics, and material production, pushing the boundaries of electrosynthetic methodologies.

The ultimate goal is to establish a versatile, high-throughput approach for synthesizing cyclopropane rings and other high-value molecules, paving the way for significant advancements in sustainable synthetic strategies and expanding the potential of EC processes in organic chemistry.

Fields of science (EuroSciVoc)

Keywords

Programme(s)

Topic(s)

Funding Scheme

HORIZON-TMA-MSCA-PF-EF - HORIZON TMA MSCA Postdoctoral Fellowships - European Fellowships

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Call for proposal

(opens in new window) HORIZON-MSCA-2024-PF-01

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Coordinator

UNIVERSITEIT VAN AMSTERDAM
Net EU contribution
€ 232 916,16
Total cost
No data