• Skip to primary navigation
  • Skip to content

Design Garden

Resources for Biomedical Engineering Device Design

  • Design Garden
  • Design Innovation Process
    • Global Health Capstone
    • Voice of the Customer
    • User Needs and Design Inputs
    • Intellectual Property
    • Ideation
    • Prototyping Resources
    • Regulatory Affairs
    • Market Assessment
  • Capstone Projects
    • S25 Capstone Expo Showcase
    • F24 Expo Project Showcase
    • S24 Expo Project Showcase
  • Capstone Testimonials
  • Sponsor a Project
  • STAT Credentialing
  • Contact Us

I.1 Active Cooling Coverall for Cleanroom Applications

S25, S25 Mixed · January 7, 2025

IP Requirement: Industry IP

Experience Requirement:

– Mechanical Design

– Potentially Electronics

– Rapid Prototyping

 

Problem Description

Maintaining particle control and sterility is critical in cleanroom environments across industries such as pharmaceuticals, medical devices, and semiconductor manufacturing. Operators in these controlled environments don full-body protective apparel (including coveralls, masks, hoods, and goggles) designed to meet strict ISO and GMP standards and prevent contaminants from compromising product quality. However, these sealed PPE designs trap heat, restrict ventilation, and cause significant discomfort during prolonged use. Heat buildup contributes to fatigue, reduced focus, and increased error rates, in addition to posing severe health and safety risks such as dehydration and heat stress to the operator [1]. 

Existing passive cooling solutions, such as moisture-wicking fabrics or ventilation panels, do not adequately manage poor air circulation and heat buildup in typical cleanroom environments. Some active cooling technologies in the market provide localized cooling for specific areas, such as the head and neck, using adjustable fans to facilitate active air exchange. However, these solutions do not address full-body cooling needs required for a comprehensive coverall system. Other active cooling mechanisms in non-cleanroom applications also fall short due to challenges surrounding particle release, bulkiness, and compromises in sterility. These limitations highlight the need for a novel, cleanroom-compliant approach to active cooling in coverall systems. Key considerations include industry-specific requirements for ergonomic fit, breathability, filtration performance, particle containment, noise and vision, sterility, and cost. These unique design features can be implemented into the coverall design to provide a competitive advantage over existing solutions.

The goal of this project is to design and develop an active cooling system for cleanroom coveralls intended for ISO-rated cleanrooms. By actively regulating heat across the entire body, the solution would reduce the health and safety risks associated with overheating, whilst enhancing operator focus and productivity. Improvements in user comfort would also result in fewer product defects and ensure regulatory compliance, positively impacting the broader cleanroom-dependent consumer/patient ecosystem.

 

References:

[1] https://www.osha.gov/emergency-preparedness/guides/heat-stress#:~:text=Monitor%20workers%20who%20are%20at,than%20500%20kcal/hour).

Filed Under: S25, S25 Mixed

Alessandra Luna

Alessandra is a fifth-year Ph.D. student in Biomedical Engineering at Georgia Tech and Emory University, developing ultrasound-based microfluidic sensors for intracranial pressure monitoring. She has been part of the BME Capstone Design program since 2022, previously serving as Head Graduate Teaching Assistant and currently as the New Partnerships Liaison. Passionate about education and mentorship, she aims to lead a Tier-1 academic lab focused on advancing biomedical innovation and improving access to medical care.

Reader Interactions

Copyright © 2025 · Maker Pro on Genesis Framework · WordPress · Log in