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CMAC Future Manufacturing Research Hub

Operating between 2017-2024, the Hub Vision was to revolutionise the development and supply of functional, high-value chemical and pharmaceutical products by delivering a rapid, digitally-enabled pipeline to integrated continuous manufacturing processes.

 
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About

CMAC’s Future Continuous Manufacturing and Advanced Crystallisation Research Hub was a seven-year flagship research programme funded by the Engineering and Physical Sciences Research Council (EPSRC) between 2017-2024. It was designed to develop a collaborative, open innovation network for the medicines manufacturing research community to help address major challenges in high-value manufacturing, including the personalisation of medicines to patients.

The Hub was operated in collaboration with CMAC at the University of Strathclyde, University of Bath, University of Cambridge, Imperial College London, University of Leeds, Loughborough University, and University of Sheffield, and supported by CMAC’s Tier 1 and Tier 2 industry partners.

The research undertaken as part of the Hub underpinned the overarching CMAC research portfolio, acting as a National Centre for the medicines manufacturing research community with a focus on research at TRL 2-5.  

EPSRC grant reference: EP/P006965/1

Hub Vision and Goals

Hub vision

Quality by Digital Design

CMAC’s Quality by Digital Design (QbDD) framework advances the Food and Drug Administration’s (FDA) Quality by Design (QbD) approach by integrating modelling and digital tools to drive sustainable, efficient, and innovative pharmaceutical manufacturing. During our research, we applied the framework to three API processes and as a result, QbDD delivered up to 65% material savings and reduced experiments by 28% through digital optimisation. Our 2023 study showcased a digital-first approach to designing mefenamic acid production, enhancing process robustness and flexibility, speeding up medicine development. 

 

Using Quality by Digital Design to accelerate medicines development

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Transforming pharmaceutical manufacturing with QbDD

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Digital tools for quality attributes and process design

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Crystallisation Classification Systems

Developed with Tier 1 partners, the crystallisation classification systems (CCS) user requirements specifications (URS) defines key capabilities of CMAC’s predictive digital framework for chemistry, manufacturing and controls (CMC) development. It integrates models, experiments, and workflows to accelerate medicine development. The URS highlights CCS’s value, technical deliverables, prediction accuracy, and data needs, guiding current and future research beyond CMAC. 

 
 

Crystallisation Screening DataFactory

The CSDF is an autonomous robotic platform for crystallisation process optimisation. Using QbDD and CCS URS guidance, it combines cobots, automated dosing, and machine learning-driven experimentation. Developed in Phase II, it ensures FAIR data collection, with key datasets stored for future use. Expansion continues through the RPIF Round 7 Data Lab award. 

 

Integrated Supply System Design

This is part of the integrated supply-system design analysis for multi-New Chemical Entity /Active Pharmaceutical Ingredient processes across the crystallisation, isolation and drug product objectives in the Quality by Digital Design Approach to End-to-end Process Design and Operation theme.

 
 
 
 
 

Model Driven MicroFactories

As we are using the QbDD Workflow to drive our project, process designs will be established from data collected as a result of following the QbDD Workflows, and then modelled, analysed and optimised to establish a Digital Twin for an Active Pharmaceutical Ingredient or Drug Product manufacturing process, that will inform MicroFactory optimal operating ranges and control strategy. Also, data will be generated to inform the Integrated Supply System Design theme.

For Hub Active Pharmaceutical Ingredient MicroFactories, the default equipment we will use will be MSMPR with integrated PAT-enabled closed-loop control of Critical Quality Attributes linked to continuous or semi-continuous filtration and washing stages and batch drying.

The Drug Product MicroFactory manufacture will be done via polymer processing using extrusion-printing technologies to exploit existing infrastructure across the Hub partners, and alternatively by making capsules.

 
 

Hub Research Outputs

Supply Chain

Quality by Digital Design (QbDD)

  • BPMN 2.0 mapping version 1.0 of QbDD Workflow complete

  • Automation of some steps in workflow underway

  • QbDD strategy paper in preparation

  • Case studies of how to use workflow to do digital design of API processes in progess

Digital Twins

  • Lovastatin primary and secondary process MicroFactory models and visualisation

  • Android App of mefenamic acid MicroFactory Digital Twin

  • Presentations and paper on gPROMs models for continuous filtration and washing, solvent screening and continuous crystallisation and wet milling: https://doi.org/10.1021/acs.oprd.2c00165

  • Solubility prediction tools developed further. Includes: A unified AI framework for solubility prediction across organic solvents, https://doi.org/10.1039/d2dd00024e 

  • Easymax training on VR and tablet developed

  • Hot Melt Extruder VR and 2D graphics

DataFactory Platform

  • System integration of autonomous crystallisation DataFactory underway

 

MicroFactories

Advanced Characterisation

Drug Product Performance Model Development

  • Development of swelling-driven OSD dispersion model

  • Experimental validation method developed for swelling of individual granules/tablets

  • Papers on mechanistic study of single granule disintegration behavior and a new mathematical model for swelling driven granule disintegration mechanisms planned