AI-OPTIMIZED DESIGN OF EXPERIMENTS
The new era of digital bioprocessing
Design of Experiments

A new approach for new technologies

Traditional DoE and factorial designs have long provided a structured, rigorous framework for bioprocess development, built around the analytical capabilities of multiple linear regression (MLR).

As bioprocesses grow more complex, our standard approach is being stretched to its limits. Scientists are increasingly forced to trade off between budget and time constraints on the one hand, and the desire to deepen process understanding through additional experimentation on the other.

Hybrid modeling technology is offering new capabilities and possibilities to process development.

Hybrid models increase insight with fewer experiments

With a mechanistic backbone encoding known process behavior, hybrid models require fewer experiments to understand the design space, yet still offer interpretability and the power to extrapolate.

Machine learning then takes a data-driven approach to learn the specific dynamics of the process. The result: faster, more impactful insight from fewer experiments.

Reduce time to insight with iterative development loops

Development teams invest considerable time and resources in disconnected experimental campaigns, with often inconsistent results. DataHow’s development framework and iterative development loops accelerate the time to insight by favouring shorter experimental sprints where scientists learn, iterate, and refine.

Each loop generates actionable knowledge that guides the next step, ensuring exploration of the design space is purposeful and aligned with clear objectives.

Begin with available knowledge

Process development traditionally starts each project from scratch, relying on large experimental campaigns to generate insight. DataHow’s methodology reduces this burden by reusing and transferring knowledge from historical data, while focusing on new experiments where knowledge gaps exist.

Digital Development Assets & Digital Twins

Processes developed under this approach produce a set of valuable digital assets that can be leveraged throughout the process lifecycle.

Experimental data feed into process models, which generate insights that support the optimization of process recipes. With each development loop, these assets are refined and strengthened, culminating in a complete body of digital process knowledge that is seamlessly transferred to manufacturing.

Crucially, the models serve as the engine of a digital twin, where all learned insights, knowledge and learning from development are leveraged to monitor and control manufacturing processes in real-time.

Technology with Impact

More insight with less data

Hybrid models incorporate scientific knowledge with data-driven learning. 

Lean on known scientific principles to reduce the realm of possibilities. Run fewer targeted experiments to learn the specific dynamics of your process. Better insights with less development effort.

Increase productivity

Increase process productivity and make a material impact on manufacturing margins. Increase yield with objective-driven iterative optimization. 

Reduce product and process risk

The intricate relationships between process parameters and product quality demand rigorous understanding and control.

Ensure consistent product quality with robust processes, developed using advanced technologies that truly capture the dynamics of your operation.

Reduce time to insight & experimental effort


Extensive experimental campaigns are replaced by short, objective-driven, iterative development loops. Hybrid modeling combined with transfer learning can reduce experimental burdens by up to 80%.

Accelerate development

With fewer experiments needed to achieve your process goals, process development timelines can be shortened, reducing time to revenue for commercial.

Increase development capacity

As AI supports drug discovery, more candidates are entering the pipeline, increasing the pressure on development resources. Increasing development efficiency and effectiveness provides more capacity to handle the pipeline.

Reduce development costs


Large-scale experiments are costly. Eliminating even one experiment has a material impact on your budget. 

 

TL
Historical data as a development asset

Transform historical project data into a development asset for current projects. Relevant insights can be transferred to further reduce experimental effort.

Meet your sustainability goals


Minimize waste and materials usage while delivering a high-performing process. Develop a process that meets sustainability targets.

Ready to start your digital transformation?

Meet with one of our bioprocess development experts for a demo of DataHowLab and see how holistic digital modeling, data analysis, and data management can transform your operation.

Transforming Digital
Bioprocessing