Designing Laboratories from the Inside Out: How Bulb Integrates Laboratory Technical Services into the Design Process
Laboratories are fundamentally different from most built environments. While architecture defines how a space looks and feels, it is the technical infrastructure that determines how a laboratory performs. Laboratory technical services play a critical role in creating safe, reliable and high-performing scientific environments, integrating ventilation, environmental control, power, data and specialist systems to support the precise requirements of modern laboratory operations. These systems are not simply supporting utilities – they are intrinsic to the scientific process itself.
At Bulb, we approach laboratory design from this perspective.
We don’t design utilities around a building; we design them around the process.
Mechanical, electrical and specialist services are considered alongside workflow, equipment and research objectives from the earliest stages of design. Rather than being engineered to serve a completed layout, these systems actively shape it. This distinction is important. When services are designed only to meet today’s brief, laboratories risk becoming constrained almost immediately. Scientific environments must instead be conceived as adaptable technical platforms capable of evolving alongside research, technology and organisational change.
Services as Part of the Laboratory Process
Every laboratory activity places specific demands on its environment. Air movement governs safety and containment. Environmental stability supports repeatable results. Reliable power enables sensitive instrumentation, while data infrastructure increasingly defines how research is conducted and interpreted.
For this reason, Bulb treats MEP and specialist systems as part of the laboratory process itself rather than background infrastructure. Early integration ensures engineering strategies support scientific intent, allowing spatial planning, user experience and technical performance to develop together.
By embedding technical thinking at concept stage, we avoid the disconnect that can occur when engineering solutions are introduced late and forced to adapt to decisions already made.
Ventilation and Environmental Control
Ventilation and climate control form the operational backbone of laboratory environments. Their role extends well beyond compliance, influencing safety, energy performance and the reliability of scientific outcomes.
Our approach begins with understanding how laboratories will truly function – how researchers interact with spaces, how equipment behaves thermally, and how containment requirements influence airflow strategies. Considering these factors early allows systems to be optimised holistically, balancing performance with sustainability while avoiding over-engineered or inefficient solutions.
The goal is not simply to condition air, but to create stable environments that enable consistent scientific work.
Specialist Systems that Enable Research
Laboratories rely on a range of specialist services that directly support experimental activity. At Bulb, these systems are coordinated as integral components of the design rather than isolated engineering packages.
Local Exhaust Ventilation (LEV) plays a critical role in protecting users and maintaining safe working environments, particularly where processes generate particulates, fumes or vapours. Designing LEV systems in parallel with laboratory workflows ensures capture effectiveness while maintaining flexibility and energy efficiency.
Specialist gases and compressed air systems are similarly embedded within the design process from an early stage. Their distribution, safety provisions and accessibility must align with bench layouts, operational practices and future expansion requirements. When coordinated properly, these systems provide both precision and adaptability without compromising safety or usability.
Treating these services collectively allows the laboratory to function as a coherent technical environment rather than a collection of independent systems.
Data Infrastructure and the Rise of AI-Driven Laboratories
One of the most significant shifts in laboratory design today is the growing importance of data infrastructure. Modern research increasingly depends on automation, high-throughput instrumentation and artificial intelligence-driven analysis. Laboratories are no longer just places where experiments occur; they are environments where vast volumes of data are generated, processed and interpreted in real time.
As AI becomes embedded within research workflows, resilient and scalable data networks are becoming as critical as power or ventilation. Equipment connectivity, edge computing, secure data transfer and integration with digital platforms must all be anticipated during design, not retrofitted later.
At Bulb, data infrastructure is planned as a long-term strategic asset. Designing with sufficient capacity, resilience and adaptability ensures laboratories can accommodate emerging technologies, advanced analytics and evolving computational demands without disruptive upgrades.
In many respects, data is becoming a primary laboratory utility – one that underpins both scientific discovery and operational efficiency.
Designing for Change
Scientific priorities evolve far more quickly than buildings. A laboratory designed only for its initial occupants or equipment risks early obsolescence.
Flexibility therefore sits at the centre of our laboratory technical services strategy. Service distribution routes, plant capacity and control systems are all considered through the lens of future change. The aim is to allow laboratories to adapt, expand or be reconfigured with minimal disruption, extending the lifespan and value of the environment.
By designing infrastructure that anticipates uncertainty, laboratories remain relevant long after project completion.
Integration Through Collaboration
Achieving meaningful integration requires close collaboration between designers, engineers, clients and end users throughout the project lifecycle. Technical services teams must engage early, translating scientific ambition into coordinated engineering solutions that support both performance and practicality.
At Bulb, this collaborative approach ensures that building systems do more than satisfy specification – they actively enable research.
Looking Forward
As laboratories become more technologically advanced and increasingly data-driven, the importance of integrated technical services will continue to grow.
Viewing ventilation, environmental control, LEV, specialist gases, compressed air, power and data infrastructure as part of the laboratory process – rather than utilities designed for a single moment in time – allows us to create environments that are resilient, efficient and prepared for the future of science.
Ready to Design Your Laboratory Around Its Future?
From ventilation and environmental control to specialist systems, power and data infrastructure, effective laboratory design starts with the right technical strategy. Bulb integrates laboratory technical services from the outset, creating high-performing, adaptable environments designed to support the changing demands of science.
Talk to Bulb about your next laboratory project.
Technical Services
FAQs
01
Why are technical services important in laboratory design?
Technical services directly influence laboratory safety, workflow, environmental stability, equipment performance and future adaptability. In modern laboratories, these systems form part of the research process itself, helping to create the conditions required for scientific activities to take place safely, accurately and efficiently.
02
When should laboratory technical services be considered in the design process?
Laboratory technical services should be considered from the earliest stages of laboratory design. Early coordination allows ventilation, power, data, specialist gases and other systems to be developed alongside workflows, equipment requirements and spatial planning. This early consideration allows engineering systems to shape and support laboratory operations, rather than being retrofitted around a predefined layout.
03
How does laboratory ventilation affect laboratory performance?
Laboratory ventilation plays an important role in safety, containment, environmental control and energy performance. Understanding laboratory processes, equipment heat loads and airflow requirements early in the design process helps create stable and effective working environments.
04
What is LEV and why is it important in laboratories?
Local Exhaust Ventilation (LEV) captures and removes airborne contaminants such as fumes, vapours and particulates at or near their source. Effective LEV design should be coordinated with laboratory workflows and equipment to provide appropriate protection while maintaining flexibility and energy efficiency.
05
How should specialist gases and compressed air be incorporated into laboratory design?
Specialist gases and compressed air should be planned alongside laboratory equipment, bench layouts and operational requirements. Early coordination helps ensure that distribution, accessibility, safety provisions and future expansion are properly considered.
06
Why is data infrastructure becoming more important in laboratory design?
Modern laboratories increasingly rely on connected equipment, automation, high-throughput instrumentation and AI-driven research. Designing resilient and scalable data infrastructure from the outset helps laboratories accommodate growing connectivity and computational requirements without disruptive future upgrades.
07
How can laboratory design support future changes in technology and research?
Flexible laboratory design can incorporate adaptable service distribution, appropriate plant capacity, scalable data infrastructure and flexible control systems. This allows spaces to be reconfigured or expanded as research priorities, equipment and technologies change.
08
What should be considered when designing a future-ready laboratory?
A future-ready laboratory should consider changing research requirements, equipment upgrades, energy performance, digital connectivity, ventilation, specialist services and the ability to reconfigure spaces. Designing infrastructure with future change in mind can extend the useful life of the laboratory.
09
How can laboratory technical services improve laboratory sustainability?
Early integration of technical services can help balance laboratory performance with energy efficiency. Optimising ventilation, environmental control, plant capacity and specialist systems around actual laboratory use can help avoid unnecessary energy consumption and over-engineering.
10
How does Bulb approach laboratory technical services?
Bulb integrates laboratory technical services into the design process from the outset, coordinating mechanical, electrical and specialist systems with laboratory workflows, equipment and research objectives. We view technical services as part of the laboratory process itself rather than standalone building services, ensuring that engineering solutions actively support science, operational efficiency and future adaptability.
