Maximized Yield with 62% Fewer Experiments—Electrochemical R&D, Reinvented | Sunthetics

Maximized Yield with 62% Fewer Experiments—Electrochemical R&D, Reinvented

Quick summary

Explore how AI is helping optimize freeze drying experiments and process conditions in pharmaceutical research.

Industry

Industrial Chemical R&D

Client

A U.S. pilot chemical plant conducting advanced electrochemical process development. An innovation-focused leader in industrial-scale R&D, operating at the intersection of sustainability and precision chemistry.

Challenge

Traditional optimization was slow, resource-heavy, and unable to consistently reach optimal yield. With 24 experiments over 6 weeks, the best achievable performance plateaued at 74%. Time and materials were being consumed at a rate that hindered project velocity.

Goal

To reach the maximum possible yield in the anodic oxidation of DMP with fewer experiments, faster cycle times, and improved prediction accuracy to accelerate overall R&D timelines.

Approach & Solution

SuntheticsML deployed its small-data ML modeling framework using Bayesian Optimization. With just 9 experiments (down from 24), the model rapidly converged toward the global maximum, leveraging pattern recognition to guide decisions and narrow down ideal process conditions.

Results & Metrics

Additional insight: SuntheticsML recommended optimal ranges for current density, DMP concentration, and flow rate, identifying the sweet spot that would otherwise have been prohibitively time-consuming to find through traditional methods.

The Sunthetics Edge

SuntheticsML allowed to bypass months of experimentation. The model's suggestions led directly to a 93% yield—faster and with fewer resources than ever before.

Key Takeaways