How Sustainability Can Become a Competitive Advantage in Biomanufacturing

Aug 25, 2026 | Biotech

Image Source: Fran Zaina via Pexels
Independent Contributor
Written by: Robert Barrentine, Sustainability Manager
On behalf of: Saint-Gobain Critical Process Solutions

Sustainability has become an expectation across the life sciences industry. Regulations are evolving, customers expect more from suppliers, and companies are making increasingly ambitious environmental commitments. Compliance has helped create a common baseline for measuring, reporting and managing biomanufacturing sustainability in a credible way. However, compliance is only the starting point. It establishes the floor, not the ceiling.

If sustainability continues to simply be a reporting exercise, the industry will continue optimizing for minimum acceptable performance. We have a greater opportunity to treat sustainability as a competitive differentiator that drives innovation, improves resource efficiency, advances lower-carbon materials and accelerates new approaches. The conversation can shift from meeting requirements to creating better products, processes and partnerships.

Carbon Matters, but It Is Not the Whole Scoreboard

Sustainability decisions are rarely made with complete information. Simply improving one environmental metric can unnecessarily create consequences elsewhere, but these tradeoffs should not prevent our progress. Organizations generally have enough information to move in the right direction by making the best decisions possible with the data available, remaining transparent about assumptions and continuing to improve as better information emerges.

Carbon footprint has become one of the industry’s most visible sustainability metrics, particularly as organizations work toward science-based emissions reduction targets, such as those validated by the Science Based Targets initiative (SBTi). While this focus has accelerated climate action, carbon cannot become the sole definition of sustainability. From a Life Cycle Assessment (LCA) perspective, a lower-carbon option is not necessarily the better option if it shifts environmental impacts elsewhere through increased water consumption, land use or biodiversity impacts. Life cycle thinking provides a broader understanding of environmental performance by considering impacts across sourcing, manufacturing, transportation and end-of-life rather than optimizing a single metric or life cycle stage.

Build Biomanufacturing Sustainability In Before It Is Locked In

The greatest opportunities to improve biomanufacturing sustainability exist during product and process development. Once a material or component has been validated in a manufacturing process, introducing changes becomes significantly more difficult. Building sustainability into design decisions from the outset allows organizations to influence environmental performance before those decisions become locked in.

This approach also reinforces the importance of early collaboration between suppliers and manufacturers. Better materials, components and process solutions need to be available while customers are still making platform decisions, when there is greater flexibility to adopt new approaches and incorporate sustainability into the design process.

Innovation in a highly regulated industry must also recognize the realities of qualification and change management. New solutions must maintain product performance, quality and patient safety while reducing environmental impact. The Mass Balance Approach (MBA) is one example of how industry can increase the use of renewable and circular feedstocks within existing supply chains. Through a third-party certified chain of custody, sustainability attributes from biobased or circular feedstocks can be allocated to finished products without changing the physical properties of validated materials, enabling measurable progress while respecting existing manufacturing requirements. It serves as a practical bridge toward broader goals such as circularity, material recovery and next-generation product design.

Customer Pull Matters More Than Supplier Push

Progress depends on collaboration, which makes biomanufacturing sustainability a shared responsibility between suppliers and customers. Suppliers can introduce more sustainable materials and technologies, but adoption truly accelerates when customers seek those solutions themselves and recognize the value.

The most productive collaborations focus on the areas with the greatest potential impact rather than expecting every supplier to address every sustainability challenge at once. Improving product carbon footprint data, advancing circularity, accelerating material qualification and strengthening supplier engagement all represent opportunities where shared priorities can produce measurable progress.

The life sciences industry has made significant progress in establishing sustainability as a business priority. The next phase will depend less on expanding reporting requirements and more on embedding sustainability into the decisions that shape products, processes and supply chains from the very beginning. Compliance will continue to provide the foundation, but lasting competitive advantage will come from designing sustainability into innovation rather than measuring it after the fact.

 

Author Bio

    Robert Barrentine is Sustainability Manager for Saint-Gobain Critical Process Solutions, where he leads initiatives focused on product environmental transparency, decarbonization, circularity, and sustainable innovation. With more than a decade at Saint-Gobain, he has worked across manufacturing, product development, and sustainability, helping advance life cycle assessment (LCA), product carbon footprint methodologies, and the adoption of bio-attributed and recycled materials. He collaborates across R&D, operations, procurement, quality, and commercial teams to translate complex sustainability challenges into practical business decisions.
    References: None included.
    The author is employed by a company that supplies materials and components to the life sciences manufacturing sector and therefore has a commercial interest in the subject matter discussed in this article.  All content is published for informational purposes only and does not constitute medical, legal, or investment advice. For more information, see our Terms and Conditions

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