hero-654791312-sized

Ensights

Science that is transforming lives and enabling the future

Cold-Wall or Convection? Critical Considerations for Application Selection

All Posts

Cold-Wall or Convection? Critical Considerations for Application Selection

By: Mike Lamach, Reach-In Sales Leader, FARRAR™ | Trane Technologies

The explosion of needs for -80°C through -60°C assets over the past decade has been nothing short of remarkable. Clinical research investments keep expanding while commercial-scale needs continue to transform the landscape. Due largely to the relative newness of commercialized products requiring cold storage, technologies have advanced incrementally while fundamentally mimicking the technologies of the past. Cold wall remains the gold standard of laboratory applications. Cost, size, and ease of procurement continue to influence cold-wall technology selections and dominate infrastructure purchases.

Conversely, the commercialization of cold solutions and the need for bulk volumes have placed substantial stress on cold-wall technologies to perform in applications for which they were not designed or intended. The industry increasingly views the conventional ultra-low temperature (ULT) cold wall as a ‘consumable’ despite the sustainability and operational issues caused by asset failures ahead of their anticipated life.

So, does alternative technology exist? The short answer is “yes.”

Traditional cold-wall technology: Conventional cold-wall technology, as deployed in all ULT freezers, is designed to promote cooling via expansion of a refrigerant through a series of chamber wall capillaries. This technology focuses on making the ULT shell as cold as possible, given that the ULT’s center would eventually reach the target temperature with minimal door openings and warm loads.

Convection technology: Convection technology forces air, tempered to the target temperature, through a chamber. This technology aims to force sufficient air volume through the chamber at uniformity to ensure consistent and repeatable cooling throughout the chamber enclosure. This technology is especially relevant for bulk loading as the more uniform freeze profiling reduces compressor stress and extends asset lifecycle.

When evaluating cold needs for an upcoming project, installation, development of the user requirements specification, consider deploying forced-air convection cooling if the following considerations apply:

  • Larger loads
  • Wide range of potential load scenarios
  • Rigorous performance demands
  • High-value materials
  • Frequent door openings
  • Unique material handling solutions including full-batch transfer carts

On the heels of COVID and Monkeypox, the innate performance and reliability of convection-cooling technology, purpose-built for commercial applications and precision temperature needs, is robust with benefits.

 

Contact us to learn more about how Entegris and FARRAR can help your precision temperature needs.

image-png-Mar-15-2023-06-14-31-4296-PM

Mike Lamach, Reach-In Sales Leader, FARRAR™ | Trane Technologies

Lamach Headshot

Mike Lamach leads the North American strategic account sales team for FARRAR’s Reach-In Business within Life Science Solutions, focused on the proper selection and utilization of cold processing and storage equipment in the biopharmaceutical manufacturing industry. 

Mike started in the pharmaceutical industry in a variety of engineering roles in Patheon’s (now Thermo Fisher) contract manufacturing division focused on bulk manufacturing and process scale-up. He eventually discovered a passion for sustainability and engineering/automation’s ability to impact quality by design transitioning to sales engineering and pre-construction support. He holds a Bachelor of Science degree in chemical engineering from Michigan State University and a Master of Business Administration degree from Duke University’s Fuqua School of Business.

 

Mike Lamach, Reach-In Sales Leader, FARRAR™ | Trane Technologies
Mike Lamach, Reach-In Sales Leader, FARRAR™ | Trane Technologies
Mike Lamach leads the North American strategic ccount sales team for FARRAR’s Reach-In Business within Life Science Solutions, focused on the proper selection and utilization of cold processing and storage equipment in the biopharmaceutical manufacturing industry. Mike started in the pharmaceutical industry in a variety of engineering roles in Patheon’s (now Thermo Fisher) contract manufacturing division focused on bulk manufacturing and process scale-up. He eventually discovered a passion for sustainability and engineering/automation’s ability to impact quality by design transitioning to sales engineering and pre-construction support. He holds a Bachelor of Science degree in chemical engineering from Michigan State University and a Master of Business Administration degree from Duke University’s Fuqua School of Business.

Related Posts

What is the Inkjet Cartridge Effect in Air Filtration Performance?

A “one size fits all” approach for chemical air filtration entails a productivity and safety risk in commercial environments reliant on pure air quality. Trying to use one type of chemical air filter for every scenario may provide protection, but without optimization the protection is both limited and temporary.

Sharing Semiconductor Industry Sustainability Plans at the SEMI Earth Month Lightning Talks

In recognition of Earth Day, SEMI’s Climate Equity & Social Impact Working Group (CESI) organized a series of lighting talks from member organizations to highlight their progress on sustainability. We heard from companies around the semiconductor industry, as well as Entegris engineer Paola Gonzalez. They shared a number of different strategies for mitigating climate impact. Here are some of the key takeaways.

One in a Billion: AMC Filtration Essential to a Safer, Healthy Environment

Airborne molecular contamination (AMC) is common to every environment. These contaminants are not physical particles such as those found in airborne dust or pathogens. AMC is gas molecules that are part of and move with air. These molecules are the result of outgassing or emissions from virtually anything that can be found in a given setting, from humans and animals to equipment, materials and processes, as well as external AMC sources. Sensitivity to these gases varies widely in each environment.