Life Sciences Facility Design
Designing laboratory, biotech, and pharmaceutical buildings.
Quick Answer
Life sciences facility design plans buildings for research, development, and manufacturing in biotechnology, pharmaceuticals, and medical science. These facilities rely on laboratory planning, high air change ventilation, fume exhaust, specialty utilities, containment, and flexible infrastructure, so building systems typically make up a larger share of cost than in office buildings.
The Full Picture
Life sciences buildings include research laboratories, vivariums, pilot plants, clinical manufacturing, and the offices and support spaces around them. Some are speculative lab buildings built for multiple tenants, while others are custom facilities for a single company. The mix of wet labs, dry labs, and production areas changes the infrastructure needed.
Laboratory design is driven by safety and flexibility. Fume hoods and biosafety cabinets require substantial exhaust, and labs typically use high ventilation rates with no recirculation of lab air in many cases. Pressure relationships between spaces, specialty gases, purified water, and waste handling add complexity. Planning modules and utility corridors allow labs to be reconfigured as science changes.
Containment and regulation add layers. Biosafety levels describe the practices and facility features needed for work with biological agents, and pharmaceutical manufacturing follows good manufacturing practice expectations from regulators. Fire and life safety codes such as NFPA 45 govern laboratories using chemicals. Requirements vary by agent, product, and jurisdiction, and owners usually engage specialist consultants.
For a general contractor, life sciences projects are MEP-intensive and coordination-heavy, with long-lead equipment such as air handlers, exhaust fans, and generators. Dense overhead utilities, tight floor-to-floor heights, and commissioning and validation add schedule time. Fast-moving tenants and changing programs mean design can evolve late, so scope clarity and change management are important.
Real Examples
Common Misconceptions
People assume: A lab is an office with sinks and benches.
Actually: Lab buildings need far more ventilation, exhaust, utilities, and safety infrastructure, and MEP systems usually dominate the cost.
People assume: Biosafety level only affects the lab furniture.
Actually: Biosafety levels shape airflow, pressure, access control, surface finishes, and waste handling, so they influence the whole building design.
Frequently Asked Questions
What is a wet lab versus a dry lab?
Wet labs handle chemicals, biological materials, and liquids and need sinks, exhaust, and special utilities. Dry labs focus on computing and instruments and have lighter infrastructure needs.
What are biosafety levels?
They are tiers of containment, from BSL-1 to BSL-4, that describe practices, equipment, and facility features for work with biological agents of increasing risk.
Why do labs use so much air?
Fume hoods and safety needs call for high ventilation and exhaust rates to protect occupants, which makes HVAC a large cost and energy driver.
What is good manufacturing practice?
GMP refers to regulatory expectations for producing pharmaceuticals and similar products in a controlled, documented way, including facility design and cleanliness.
What is a vivarium?
A vivarium is a facility for housing research animals, with specialized ventilation, sanitation, and access control.