What Happens to Your Gear Between Calls Matters More Than You Think
Most firefighters are meticulous about donning gear correctly. Far fewer think carefully about what happens to that gear during the hours or days it spends hanging between shifts.
Turnout gear is engineered to exacting standards. Every layer, outer shell, moisture barrier, and thermal barrier work together to protect the wearer. But engineering has limits, and the conditions in which gear is stored between uses directly affect how well those layers perform when they’re needed. Moisture, UV exposure, heat, poor airflow, and inadequate hanging hardware each degrade protective performance over time in ways that aren’t always visible until an inspection or, worse, a failure on the job.
Understanding the basics of proper turnout gear storage is one of the most straightforward steps a firefighter or department can take to extend gear life, maintain protection levels, and stay compliant with NFPA 1851 standards.
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Six Storage Practices Every Firefighter Should Know
Each of the following practices addresses a specific and common failure mode, the kind that shortens gear life, compromises protection, or creates health hazards that accumulate over time. None of them requires expensive retrofits. Most require only a change in habit and an honest look at the hardware already in use.
1. Choose a Ventilated, Temperature-Controlled Space
The storage environment itself is the first line of defense. Per NFPA 1851 standards, turnout gear should be stored in spaces that do not exceed 105°F and maintain consistent ambient conditions. Temperature fluctuations, particularly exposure to heat above the threshold, degrade the outer shell, moisture barrier, and thermal barrier, both independently and together.
Avoid storing gear in operational zones where heating elements, exhaust, or radiant heat from equipment can cause accidental temperature spikes. Dedicated storage areas separate from active bays provide more stable conditions and significantly reduce the risk of contamination from vehicle exhaust and combustion byproducts.
The safe storage temperature range is -32°F to 82°F. Consistent conditions within that range preserve fabric properties, stitching integrity, and the performance of each protective layer.
2. Hang Everything, Never Stack or Cram
Stacking or cramming turnout gear compresses the thermal insulation built into the layers, the same insulation that creates the barrier between a firefighter and heat exposure. Once compressed repeatedly, insulation loses loft and does not fully recover. The result is a measurable reduction in thermal protection that won’t be visible until an advanced inspection.
Hanging gear on a properly rated hanger maintains the coat’s and trousers’ designed shape, keeps all layers in their correct positions, and allows airflow to reach every surface. The hanger you use matters. A standard closet hanger narrows the shoulder span and concentrates the full weight of a wet, loaded turnout coat at a single stress point on the seam.
Repeated compressing of thermal insulation causes permanent loft loss a reduction in protection that won’t be visible until it’s too late.
A wide-shoulder, high-capacity hanger distributes that load across the full shoulder span, maintaining coat geometry and reducing long-term seam stress. Pants should be hung separately on dedicated hooks or rod systems — never folded over the same hanger as the coat.
3. Dry Completely Before Storage
Storing gear before it is completely dry is one of the fastest ways to accelerate degradation. Moisture trapped between the outer shell and the moisture barrier creates conditions for mold and mildew growth, damaging fabric, compromising the barrier layer, and creating biological contamination hazards that are difficult to fully remediate.
After use or washing, gear should be dried using ambient air circulation with fans or a dedicated cabinet dryer operating below 105°F. Separate the inner liner from the outer shell during drying to allow airflow to reach both surfaces independently a step that is frequently skipped and consistently problematic.
Drying Checklist
Detach inner liners from outer shells before drying. Verify closures are secure post-drying. Inspect hardware for damage before hanging for storage. Never store gear that is still damp to the touch, even if residual moisture is sufficient to promote microbial growth over a multi-day shift cycle.
What Does the Right Hanger for Turnout Gear Actually Look Like?
The Tough Hanger XL was designed around exactly this problem — a wide shoulder profile, 200 lb capacity, and corrosion-resistant polypropylene that holds its shape in high-humidity gear rooms. Built in the USA for the people who need it most.
4. Protect Gear from UV Exposure
UV degradation is one of the least visible yet most damaging threats to the longevity of turnout gear. Photo-oxidative reactions triggered by sunlight reduce the tear and tensile strength of outer shell fabrics by up to 80%, particularly at high-stress points like shoulders and knees. Research shows that just 13 days of continuous UV exposure can simulate years of natural wear on some materials.
The source of UV damage is not limited to direct sunlight. Fluorescent lighting in apparatus bays and station common areas also emits UV radiation sufficient to cause gradual degradation over time. Gear stored on open racks near windows, skylights, or unshielded fluorescent fixtures is at risk even when not in active use.
Store gear indoors in dedicated areas away from windows, skylights, and direct light sources. If gear must be stored in areas with ambient fluorescent lighting, use UV-protective covers designed specifically for turnout gear to shield the material between shifts.
5. Decontaminate Before You Store
Contaminated gear stored between shifts transfers carcinogens, polycyclic aromatic hydrocarbons (PAHs), and other combustion byproducts directly onto the hanger, the locker, and every surface the gear contacts during the next use. NFPA 1851 emphasizes gross decontamination at the scene and advanced decontamination before storage for any gear with known or suspected exposure.
Pre-soaking in a water-detergent solution removes most surface contamination before machine washing. Using front-loading washer extractors can damage stitching and hardware during the agitation cycle. Decontaminated gear that is properly dried and hung on adequate storage hardware will have a substantially longer service life than gear that moves directly from the incident to the locker.
Maintain detailed records of cleaning, decontamination, and inspection events for each gear set. NFPA 1851 requires documentation as part of a compliant program, and those records support both retirement decisions and individual health tracking.
6. Use the Right Hardware for the Job
Storage hardware, the hangers, hooks, rods, and racks that gear physically rests on between shifts, is the component most often selected based on cost rather than capability. The result is hardware that bends under full gear weight, narrows the shoulder profile of coats, or corrodes in the humidity of a gear room, transferring rust to fabric.
For turnout gear specifically, the hardware requirements are straightforward: a wide shoulder span to maintain coat shape, high load capacity to support the weight of wet gear without deformation, and corrosion-resistant materials that won’t degrade in humid storage. Open-air hanger and rack systems consistently outperform hooks alone because they distribute weight properly and allow airflow to reach all surfaces simultaneously.
Wall-mounted rack systems that use proper hangers save floor space, promote full-perimeter airflow, and allow gear to be organized, visible, and immediately accessible at the start of every shift. The hanger is the point of contact between the gear and the storage system. Selecting one rated for the actual weight of full turnout gear is not optional.
Conclusion
Turnout gear is one of the most technically sophisticated pieces of protective equipment in any profession. It is also one of the most routinely understored. The gap between how carefully gear is selected and how casually it is stored between shifts is where a significant portion of premature gear failure originates.
The six practices covered here, controlled temperature, proper hanging, complete drying, UV protection, decontamination, and appropriate hardware, are not complex. They are consistent. Departments and individual firefighters who apply them consistently see longer inspection cycles, fewer early retirements, and gear that holds its rated protection level across its full service life.
A set of turnout gear costs between $3,000 and $18,000. The storage system that rests between every shift is one of the most cost-effective investments a station can make and one of the easiest to get wrong with off-the-shelf hardware that was never built for the job. For first responders who depend on their gear, that distinction is worth understanding before the next shift starts.
Frequently Asked Questions
How often should turnout gear be inspected for damage?
Inspect turnout gear before and after every shift for visible damage, soiling, or hardware issues. Conduct more thorough inspections monthly after cleaning events. Advanced inspections by a UL-verified Independent Service Provider (ISP) should occur at least once per year, and immediately following any incident involving known or suspected contamination, thermal exposure, or physical damage.
What temperature should turnout gear be stored at?
Per NFPA 1851, storage environments should not exceed 105°F. The recommended safe storage range is -32°F to 82°F. Consistent temperatures within that range preserve the integrity of all three protective layers — outer shell, moisture barrier, and thermal barrier. Avoid storing gear near heating elements, vehicle exhaust, or radiant heat sources that can cause localized temperature spikes.
Can turnout gear be stored in personal vehicles?
Vehicle storage is permissible under NFPA 1851 with written authorization and proper precautions. Gear must be stored in abrasion-resistant, sealed bags that prevent contamination transfer to the vehicle interior. Avoid storing gear in direct sunlight inside vehicles, as interior temperatures can quickly exceed 105°F, and UV exposure through windows accelerates material degradation.
How does humidity affect turnout gear in storage?
High humidity accelerates fabric degradation, promotes mold and mildew growth, and can cause rust on metal hardware components. Storage areas should maintain controlled humidity levels through adequate ventilation. In high-humidity environments, supplemental dehumidifiers or climate control help maintain safe conditions. Gear must be completely dry before storage — residual moisture in a confined locker creates conditions for accelerated microbial growth within 24–48 hours.
What is NFPA 1851, and why does it matter for storage?
NFPA 1851 is the Standard on Selection, Care, and Maintenance of Protective Ensembles for Structural Fire Fighting and Proximity Fire Fighting. It defines the standards for inspection, cleaning, repair, storage, and retirement of structural firefighting PPE. Compliance with NFPA 1851 storage requirements — ventilation, temperature control, contamination separation, and documentation — is the benchmark for programs that aim to maximize gear life and firefighter safety.
What type of hanger is best for hanging turnout coats?
A wide-shoulder, high-capacity hanger is essential for turnout coats. The shoulder span needs to match the coat’s design width to prevent the shoulder seams from bearing the full hanging load, which causes long-term seam stress and distortion. The hanger must be rated to handle the wet weight of gear, which can significantly exceed the dry weight of a full turnout coat. Corrosion-resistant materials are required for gear room environments where humidity is consistently elevated