Not all manufacturing is created equal—especially in life sciences. Producing a medical device, a vaccine and a cell therapy may all fall under the same industry umbrella, but the infrastructure, expertise and risk profiles behind each are worlds apart.

This growing divide is reshaping the future of biomanufacturing. As therapies become more specialized, the environments that produce them must evolve just as quickly. Facilities that once worked for traditional pharmaceuticals now struggle to support biologics and cell-based therapies. The result is a widening gap between legacy plants and the advanced infrastructure that new science demands.

Most legacy pharma facilities weren’t built for today’s scientific demands. Fixed layouts, aging utility systems and rigid processes make even minor changes costly and time-sensitive.

Add global component shortages—with lead times now stretching 25 weeks for critical HVAC and cleanroom components—projects can stall completely. The result is predictable: higher capital costs, delayed product launches and infrastructure that can’t keep pace with innovation.

Many manufacturers are still trying to retrofit outdated plants to handle advanced therapies. But factors like airflow, humidity, power redundancy and cleanroom zoning quickly become barriers. To stay competitive, biomanufacturing needs infrastructure built for adaptability—not as an afterthought, but from day one.

Leading life sciences firms are already making that shift. One global biopharma company partnered with JLL to divest legacy sites and invest in new manufacturing facilities built specifically for cell and gene therapy production. Instead of patching old assets, the company focused on strategic locations with the right talent pools, supply chain access and regulatory support.

It was more than a real estate play; it was a mindset shift. In the new era of complex therapeutics, infrastructure must evolve at the same pace as science itself.

Every therapy type places unique demands on infrastructure. Small-molecule drugs are relatively predictable, relying on chemical synthesis that scales efficiently. Biologics add complexity with living cells, sterile environments as well as strict temperature and humidity control. Cell and gene therapies push that complexity to the extreme—requiring cryogenic storage, 24-hour transport windows and specialized expertise that few facilities can currently support. These differences make several infrastructure principles clear:

• Modular and scalable design
  Leading firms are deploying modular construction to meet therapy-specific needs. Prefabricated cleanroom pods, as well as plug-and-play utilities, allow quick setup and easy expansion. Instead of starting from scratch, proven facility templates can be deployed globally and adapted for local regulatory requirements.

• Localized expertise
  Each region has unique regulations, resources and labor markets. Working with specialized local contractors—like those supporting JLL’s global biopharma projects—helps manage risk, shorten timelines and maintain consistent construction quality

• Redundancy and reliability
  As Jackson emphasized, predictability is a non-negotiable for high-risk production environments. Facilities producing biologics or cell therapies need redundant power, utilities and supply lines to ensure continuous operation. These safeguards raise initial costs but prevent costly downtime and product loss.

• Regulatory agility
  For advanced therapies, regulatory alignment can’t be an afterthought. Early engagement with agencies and the use of digital documentation and real-time tracking help teams move through validation faster and with fewer design changes.

• Smarter decisions through AI
  Artificial intelligence (AI) is also reshaping the way life sciences companies plan and manage their spaces. AI-driven analytics can predict equipment performance, optimize temperature zones and guide investment decisions based on operational data. It’s helping facility leaders strike a balance between speed, cost and compliance—a critical trifecta in complex manufacturing.