Hallam-ICS

09/03/2026

When evaluating laboratory projects, ventilation design is often viewed through the lens of safety and compliance. While those priorities are essential, they tell only part of the story.
Ventilation decisions can influence energy consumption, equipment life, facility flexibility, and long-term operating costs for decades. That's why it's important to evaluate laboratory ventilation through a lifecycle perspective, not just a first-cost perspective.

In our latest blog, Hallam-ICS Lead Mechanical Engineer and Project Manager Wayne Catucci explores how modern ventilation strategies can help biopharma facilities:

✔ Reduce long-term operating costs
✔ Improve equipment performance and longevity
✔ Increase facility flexibility
✔ Support sustainability and decarbonization goals
✔ Deliver greater long-term asset value

The right ventilation strategy isn't just an engineering decision—it's a long-term business decision.

This is the second article in our series on optimizing laboratory ventilation in biopharma facilities.

Read the blog: https://hubs.li/Q04wyWsf0


https://hubs.li/Q04wyWsf0

Learn how laboratory ventilation design impacts energy costs, equipment life, facility flexibility, and long-term asset value in biopharma facilities.

08/27/2026

💡 Good lighting design is about more than choosing fixtures.

Before a light fixture is ever installed, engineers determine how much light a space actually needs to support safety, productivity, comfort, and energy efficiency.

That starts with foot-candles—a measurement of how much light reaches a surface.

In this blog, Raimi Richards explains:

✔ What foot-candles are
✔ Why they matter in building design
✔ Recommended lighting levels for different types of spaces
✔ Common lighting design mistakes engineers work to avoid

Whether you're designing an office, laboratory, manufacturing facility, or another commercial space, understanding foot-candles is an important part of creating environments that perform as intended.

Read the full blog:
🔗 https://hubs.li/Q04vxChL0


https://hubs.li/Q04vxChL0

08/25/2026

A finished design isn't the end of the engineering process.

It's the beginning of the next engineer's.

The best designs don't just solve today's problem, they leave behind the knowledge that makes tomorrow's improvements possible.

In this blog, Hallam-ICS Mechanical Engineering Co-op Alvaro Cezon-Gimenez reflects on lessons learned through his experience with UConn's Formula SAE team and during his internship at Hallam-ICS. He shares why documenting design decisions is just as important as creating the design itself.

You'll learn:
✔ Why engineering documentation matters
✔ How knowledge transfer improves future designs
✔ What good documentation should include
✔ Why organization is a critical engineering skill

Whether you're an experienced engineer, a project manager, or just starting your engineering career, it's a reminder that great engineering isn't just about what you build, it's also about what you leave behind.

Read the full blog:
🔗 https://hubs.li/Q04vcdYP0


https://hubs.li/Q04vcdYP0

Learn why engineering documentation, organization, and knowledge transfer are essential to preserving decisions and improving future designs.

08/18/2026

When evaluating explosion protection, it’s easy to frame the decision as:

Passive = simple and cost-effective
Active = complex and expensive

But in many industrial facilities, the real answer is more nuanced.

Upfront cost is only one part of the equation. Downtime, cleanup, equipment damage, structural requirements, airflow impacts, energy consumption, and the risk of secondary events can all change the long-term value of an explosion protection strategy.

In our latest blog, Chris Giusto explains why active and passive explosion protection systems deserve a more balanced evaluation, and how facilities can make better decisions by looking at the full picture.

Read the blog: https://hubs.li/Q04tmtsm0


https://hubs.li/Q04tmtsm0

Compare active vs. passive explosion protection and learn how cost, downtime, structure, airflow, and risk affect the best solution.

08/13/2026

Unexpected equipment failure can quickly turn into costly downtime, emergency repairs, and lost productivity.

Infrared thermography gives maintenance and reliability teams a way to see problems before they become failures. By identifying abnormal heat patterns in electrical panels, motors, pumps, bearings, HVAC systems, and other critical equipment, teams can make more informed maintenance decisions without interrupting operations.

In our latest blog, Bryan Campbell explains how infrared thermography supports predictive maintenance programs, improves safety, and helps organizations move from reactive repairs to proactive equipment reliability.

Read the full article: https://hubs.li/Q04sX9Q_0


https://hubs.li/Q04sX9Q_0

Learn how infrared thermography supports predictive maintenance by detecting heat-related equipment issues before failures cause downtime.

08/06/2026

Laboratory ventilation is often the largest energy consumer in a biopharma facility, yet many organizations continue to operate systems based on fixed assumptions rather than actual risk and demand.

While demand-controlled ventilation (DCV) can reduce airflow during low-risk conditions, laboratories still require significant amounts of conditioned outside air to maintain safety and compliance. That's where energy recovery can make a meaningful impact.

In our latest blog, Hallam-ICS Lead Mechanical Engineer and Project Manager Wayne Catucci explores how energy recovery systems can help biopharma facilities:

✔ Reduce heating and cooling energy consumption
✔ Lower carbon emissions
✔ Support sustainability and ESG goals
✔ Improve overall building performance
✔ Complement demand-controlled ventilation strategies

As organizations pursue decarbonization initiatives, energy recovery is becoming an increasingly important strategy for improving laboratory efficiency without compromising safety.
Read the blog: https://hubs.ly/Q04s6PCh0


https://hubs.ly/Q04s6PCh0

Learn how energy recovery systems help biopharma laboratories reduce energy consumption, lower carbon emissions, and support decarbonization goals.

07/30/2026

PPE doesn't eliminate electrical hazards. It helps protect workers when hazards can't be eliminated.

That's why Personal Protective Equipment should be viewed as one part of a comprehensive electrical safety program, not the entire solution.

Arc-rated clothing, insulating gloves, face shields, hard hats, and other protective equipment help reduce the risk of injury from arc flash and shock hazards. But effective electrical safety also depends on hazard assessments, training, equipment maintenance, lockout/tagout procedures, and safe work practices.

In this blog, Steven Skoll explains the role of electrical PPE, how it protects workers, and why proper selection, inspection, and training are essential.

👉 https://hubs.li/Q04rkXzs0


https://hubs.li/Q04rkXzs0

Protect workers from arc flash, shock, and burn hazards. Learn the role of electrical PPE, including arc-rated clothing, gloves, face protection, and safety best practices.

07/23/2026

Improving reliability can sometimes increase arc flash risk.

That sounds backwards, but it's a challenge electrical engineers face every day.

Protective device coordination is designed to improve system reliability by ensuring the device closest to a fault operates first. The catch? Achieving that coordination often requires intentional delays in breaker operation.

Longer clearing times can mean higher incident energy during an arc flash event.
The result is a balancing act between:
⚡ System reliability
⚡ Worker safety
⚡ Arc flash energy reduction

In our latest blog, Kaitlin Slattery explains how protective device coordination affects arc flash energy and why coordination studies and arc flash studies should never be treated as separate exercises.

Read the full article ➡️ https://hubs.li/Q04qvYCN0


https://hubs.li/Q04qvYCN0

Learn how protective device coordination affects arc flash energy, breaker clearing times, incident energy levels, and electrical system reliability.

07/16/2026

Installing a semiconductor tool is rarely just about the tool itself.

Successful projects depend on coordinating specialty gases, cooling water, exhaust, power, controls, equipment layouts, and supporting infrastructure, often long before construction begins.

In this new blog, Dylan Kerkes shares practical lessons from the field on how early planning and multidisciplinary coordination can help reduce costly redesigns, schedule delays, and field modifications.

Whether you're planning a new installation, expanding an existing facility, or upgrading equipment, these considerations can help improve project outcomes.

Read the full article:
🔗 https://hubs.li/Q04pMvBg0


https://hubs.li/Q04pMvBg0

Learn key lessons for semiconductor tool design and installation, including utility planning, layout coordination, gas systems, cooling water, exhaust, and prefabrication.

07/09/2026

An arc flash study is only as good as the data behind it.

Missing or outdated information can lead to inaccurate incident energy calculations, incorrect PPE recommendations, costly rework, and unnecessary delays.

Before starting an arc flash study, make sure you have these five critical data points:

✔ Utility available fault current
✔ An up-to-date one-line diagram
✔ Equipment nameplate data
✔ Protective device information and settings
✔ Conductor lengths and system configuration details

In this blog, Kimberly Witte explains why each of these data points matters and how gathering accurate information upfront can help improve the quality of your study.

👉 https://hubs.li/Q04p1Ncw0


https://hubs.li/Q04p1Ncw0

Learn the five critical data points needed before an arc flash study, including fault current, one-line diagrams, protective device settings, and equipment data.