Multiply Labs, a robotics company developing industry-leading automated manufacturing systems to produce individualised drugs (including but not limited to cell therapies), has announced that its proof-of-concept robotic system, developed along with UCSF, Cytiva, Thermo Fisher Scientific and Charles River, has been successfully completed.
The data from this project indicate that manual cell therapy manufacturing tasks (and in particular, cell expansion processes based on leading GMP bioreactors) can be replicated by robotic systems by leveraging automation to achieve comparable critical process parameters.
The goal of the collaboration has been to develop an automation approach focused on 1) compatibility with market-leading, GMP-proven instruments, 2) modularity, which gives it the flexibility to implement a wide range of processes, and 3) efficiency, achieved through the parallelisation of process bottlenecks.
First starting 2021, the collaboration originally featured Multiply Labs and Cytiva, with Thermo Fisher and Charles River joining in 2022.
What is it about cell therapies?
Cell therapy process development and manufacturing have traditionally been challenging and labour-intensive. Cell therapy manufacturing processes are dominated by extremely manual and repetitive tasks, where the risk of human error is high.
Additionally, the highly skilled labour required to develop and manufacture cell therapies is expensive coupled with the difficulty around hiring, training, and retaining talent.
The cell therapy process is complex, creating a challenging environment to achieve sustained levels of equipment and production floor utilisation, placing increasing strain on manufacturing facilities. Simultaneously, the impressive clinical outcomes of gene-modified cell therapies are driving significant demand, and further compounding the industry’s manufacturing bottlenecks.
The new system
Multiply Labs and its collaborators deployed a proof-of-concept robotic system at UCSF to demonstrate this technology through the automation of a representative cell therapy expansion process. The deployment of the robotic systems at UCSF was carried out within a sponsored research agreement.
If you had to change a process in order to automate it, the benefits of automation (efficiency and quality) would need to be weighed against the regulatory and scientific drawbacks connected with modifying a validated process. With Multiply Labs’ technology, adopting automation does not require this trade-off
- Fred Parietti, Co-Founder and CEO of Multiply Labs
The key goal of this project was to show that a robotic system can successfully replicate a set of critical manual tasks in a cell therapy manufacturing process by automating the operation of the same GMP-proven instruments, consumables and reagents. This approach shows that it is possible to automate an existing cell expansion process without modifying it.
“If you had to change a process in order to automate it, the benefits of automation (efficiency and quality) would need to be weighed against the regulatory and scientific drawbacks connected with modifying a validated process,” said Fred Parietti, Co-Founder and CEO of Multiply Labs. “With Multiply Labs’ technology, adopting automation does not require this trade-off.”
Where is the project at now?
The data collected by the proof-of-concept indicates that a complex, manual cell expansion process can be automated using Multiply Labs’ technology. The critical process parameters of the robotic process track the ones of the manual process, and the results of the manual and robotic processes are not statistically different.
Multiply Labs and its collaborators plan to discuss this data at the 2023 Cell and Gene Meeting on the Mesa and in a forthcoming scientific publication.
“Charles River is always looking for new technologies to increase the speed and efficiency of process development and manufacturing cell therapies,” said Matt Hewitt, VP and Technical Officer of CGT & Biologics at Charles River. “The combination of Multiply Labs’ unique robotic technology with Charles River’s industry-leading process expertise has the potential to do just that.”
The proof-of-concept data were focused on an initial set of industry-leading, GMP-ready instruments, including the Xuri (trademarked) bioreactor (manufactured by Cytiva) and the Thermo Scientific (trademarked) Heracell (trademarked) VIOS incubator (manufactured by Thermo Fisher Scientific).
“We are pleased by this collaboration with Multiply Labs, which demonstrated that our industry-leading bioreactors are key to successfully automate validated cell therapy processes,” said Caroline Rand, Strategy and Business Development Leader of Cell Therapy at Cytiva.
“The Consortium is leading the way in the automation of cell therapy manufacturing and we’re proud that our industry standard incubators and reagents have integrated seamlessly with this initiative. Through collaborations like this, we can optimise workflows and increase scalability which will help expedite the delivery of these potentially curative therapies to more patients,” added Xavier De Mollerat Du Jeu, Senior Director of Research and Development at Thermo Fisher Scientific.
