Abstract
Pharmaceutical industry is challenged by the rising development costs, strict regulatory and environmental requirements all while racing to deliver complex molecules to market. The need to be the first-in-class brings about shorter lifetime to the launched products in favor of better functioning followers. In addition, a shift from large volume blockbusters towards small volume production of complex molecules presents a unique opportunity to challenge the status quo in pharmaceutical manufacturing. Traditional batch manufacturing, while foundational, presents hurdles in scaling and efficiency, particularly for demanding reactions. Continuous manufacturing has emerged as a promising alternative, delivering better control and uniformity of operating conditions, mirroring the efficiencies found in small-scale batch reactors. However, continuous manufacturing is not universally applicable. As a solution, a combination of the two into hybrid manufacturing processes, appears to fill this gap effectively. While the concept of hybrid manufacturing is not new, the current perspective adds an additional angle to the integration of both technologies. Authors propose to sustain the continuity of the operation for batch mode processes by decreasing the reactor size and increasing the level of automation. Furthermore, modular fabrication of smaller-footprint technological platforms is expected to synergize other advancements in the field, such as digitalization, automation, and standardization. As a result, a leap towards the implementation of advanced manufacturing to drive sustainability in pharmaceutical industry is more tangible than ever.
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Acknowledgements
We would like to thank David Maltete, Andrew Rutter, Adria La Porta, Flavien Susanne, Jason Tedrow and Matthieu Cortinovis for their unyielding support in the endeavor of continuous manufacturing implementation.
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Borukhova, S., Rönnback, R. Driving sustainability through adoption of hybrid manufacturing in small molecule API production. J Flow Chem 14, 303–312 (2024). https://doi.org/10.1007/s41981-024-00325-0
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DOI: https://doi.org/10.1007/s41981-024-00325-0