Stack-On Medium Personal Fire Safe with E-Lock

The Stack-On Medium Personal Fire Safe with E-Lock is a full-steel welded fireproof safe engineered for secure storage of documents, firearms, jewelry, and sensitive valuables. Built with all-steel construction rather than composite materials, this medium fire safe delivers protection verified by independent laboratory testing to withstand 30 minutes of exposure up to 1400°F—a standard critical for first responders, military personnel, and civilians protecting irreplaceable assets from fire damage.

The electronic lock system accepts a user-programmable 3- to 8-digit combination and includes a low-battery warning indicator so you maintain control of access without relying on mechanical keys alone. A backup key is included for emergency access when battery power is depleted—a practical redundancy operators value in mission-critical storage. At 59 pounds with dimensions of 15.25 x 13.5 x 17.5 inches, the medium profile balances storage capacity with portability, fitting securely in a bedroom closet, office, or vehicle without excessive weight that complicates relocation if needed.

This safe addresses the needs of homeowners, small business operators, and professionals requiring dependable fire protection without premium pricing. Law enforcement officers securing off-duty firearms and tactical gear, outdoor enthusiasts storing ammunition and sensitive equipment, and families protecting legal documents all find the all-steel construction superior to lower-cost composite alternatives. The combination lock approach eliminates concerns about electronic system failures common in cheaper models, while the digital interface provides modern convenience and audit trails of access attempts.

Stack-On has positioned this medium fire safe in the value-engineered segment where all-steel construction and proven fire rating deliver measurable protection without enterprise-level pricing. For buyers comparing fire safes, the all-steel welded design and independent laboratory verification distinguish this model from composite safes that fail catastrophically under sustained heat exposure.