Why Single-use?
Single use technology in biopharmaceutical manufacturing
In the last decade, the biopharmaceutical manufacturing landscape has undergone a notable shift with the rapid adoption of polymer-based single use technology – and there are no signs of it slowing down. By 2027, the global single use bioprocessing market is expected to reach $43.78 billion with a compound annual growth rate (CAGR) of 18.9%. But what’s driving the use of this disposable technology, and how can biopharmaceutical manufacturers find the right single use solutions for their needs?
The Role of Single Use Technology in Advanced Therapy Manufacturing
Why do biopharma companies opt for single use solutions in their manufacturing process? It’s important to understand the benefits these polymer-based products bring to the therapy manufacturing process. Traditionally, companies have used stainless steel equipment to develop therapies. However, in addition to being expensive and inflexible, stainless steel requires time-consuming clean-in-place (CIP) and sterilize-in-place (SIP) procedures, which can actually increase risk of contamination.
Single use solutions such as bags, tubing, transfer sets, overmolds, manifolds, and other solutions have begun to transform biopharma manufacturing. As a disposable, pre-sterilized, and highly flexible technology, single use solutions offer manufacturers simple, customizable, and cost-effective solutions for their cell therapy manufacturing challenges. Compared to the inflexible, costly, and time-consuming production lines of traditional stainless steel systems, single use solutions are designed to streamline manufacturing processes and accelerate time-to-market.
Why Use Disposable Technology?
To fully understand why biopharmaceutical manufacturers are switching from stainless steel to single use, let’s look at 7 key benefits single use bioprocessing solutions offer:
1. Ensure Sterilization
As mentioned earlier, biopharma manufacturers that use stainless steel equipment in their processes must clean and sterilize it after each use. Traditionally, this is done using steam cleaning, which is time-consuming and energy-intensive. Single use technology, on the other hand, comes pre-sterilized, minimizing the initial risk of microbial contamination. These disposable products enable biopharmaceutical manufacturers to maintain high standards of product quality, focus on patient safety, and simplify their sterilization validation processes.
2. Avoid Cross-contamination
In a traditional stainless steel system, cross-contamination is a critical concern, as it can compromise the quality and integrity of not only the production process, but also the final product. Single use technology is designed to be disposable, meaning it practically eliminates the risk of contamination carryover between manufacturing runs. Once a single use component has been used, it can be discarded and replaced with a fresh, sterilized product.
3. Reduce Manufacturing Costs
A single use cell culture bag, for example, is incredibly cost-effective compared to the resources required to maintain, clean, and sterilize traditional steel bioreactors. Without the need for extensive cleaning or validation procedures, single use technology saves biopharma manufacturers on cost and labor, demonstrating early return on investment (ROI). A consistent, reliable supply chain of single use solutions helps optimize production schedules, minimize downtime, and increases overall process efficiency, leading to quicker speed-to-market for life-saving therapies.
4. Increase Operational Efficiency
Operational efficiency is another key driver for the industry, helping manufacturing companies meet the increasing demands for biopharmaceutical production. In addition to eliminating the need for cleaning and sterilization steps, single use technology enhances operational efficiency by simplifying equipment setup with easy integration for disposable bags, tubing, transfer sets, filters, and other components in upstream and downstream processing. This enables operators to focus on higher-value tasks while maximizing productivity and output.
5. Improve Process Flexibility
A stainless steel system requires a dedicated production line, often for a single product or manufacturing step. For biopharmaceutical companies, this translates to a low degree of flexibility, requiring substantial lead time for modifications and complex reconfiguration processes. In contrast, single use components like tubing come in a wide range of specifications and can be quickly and easily modified to facilitate rapid process changes. This enables manufacturing companies to remain agile and respond swiftly to evolving process demands.
6. Compliance and Risk
Compliance with regulatory and clinical standards is paramount in the biopharmaceutical industry. Presterilized single use technology is traceable, as it comes with a trail of documented quality and regulatory data, which can simplify compliance efforts and minimize risks. Utilizing single use products – and working with a supplier that prioritizes quality – can minimize the risk of poor chemical composition and reduce particulate matter that might otherwise lead to safety and efficacy issues in the final product.
7. Reduce Environmental Impacts
The use of traditional stainless steel in pharmaceutical manufacturing requires high energy consumption and chemical agents used in the equipment-cleaning and sterilizing process that can impact environmental health. Single use materials can help reduce water usage by as much as 85% compared to stainless steel systems to minimize these impacts, as well as the use of chemicals such as caustic and acidic chemicals used in CIP and SIP procedures.1 While waste from single use plastics is a significant source of pollution globally, especially when it comes to consumer goods, waste from single use biopharma manufacturing components accounts for only about 0.01% of total plastic waste.2
Waste derived from biopharma activities continues to be an industry-wide area of concern. In recent years, organizations such as Bio-Process Systems Alliance (BPSA), The Global Commitment, and Biophorum, along with others, have led the charge to affect industry-wide changes to reduce the environmental impact of biopharmaceutical manufacturing while ensuring drug product manufacturing can continue to efficiently deliver critical therapies to patients in need.
Streamline Biopharmaceutical Manufacturing with Single use Technology
With extensive expertise in single use technologies and polymer science, Charter Medical LLC is a leading provider of solutions for the biopharmaceutical industry. Explore our website for standard or custom solutions for your biopharma manufacturing needs, explore our single use technology resources below, or contact us today.
Single use Technology Resources
1. “Selecting The Right Single-Use Materials In Biopharmaceutical Manufacturing”
Learn how to choose materials for single-use solutions based on a variety of criteria, including biocompatibility, chemical composition, durability, extractables and leachables, film characteristics, and temperature range.
2. “Choosing Safer Single-use Materials to Enhance Advanced Therapy Manufacturing”
Understand why it’s important to build single use technology without materials that contain additives that could impact cell therapy production and patient care.
3. “How Single-use Cryopreservation Solutions Enable Biopharmaceutical Manufacturing”
Explore considerations for choosing single use technology for 4 common cryopreservation applications, including storage and transportation, sample retention, working cell banks, and final fill.
4. Customizing Single use Technology
Learn how materials used in the construction of single use technology can be customized to meet specific needs for 7 steps of the biopharma manufacturing process, including cell culture, transfer, formulation, storage, filtration, biohazard disposal, and cryopreservation.
For a complete list of single use technology resources, visit our Educational Resources page.
References
1. Page-Belknap, Z. Which is more sustainable: stainless steel or single-use systems? https://www.crbgroup.com/insights/biotechnology/sustainable-stainless-steel-or-single-use-systems. Accessed November 9, 2023.
2. Whitford, B., Mokuolu, S. (July 15, 2021). Sustainable Recyclable Flexible Systems: Improving the Environmental Footprint, https://bpsalliance.org/wp-content/uploads/2022/07/BPSA-071521-Sustainability-Webinar-compressed.pdf. Accessed November 6, 2023.