Aging Test Calculator

Accelerated aging testing works by storing a product at elevated temperatures to speed up its chemical degradation. This simulates years of normal shelf-life storage in a fraction of the time. By placing products in a heated chamber, you increase the molecular kinetics and force packaging materials to age faster. For instance, testing a device at 55°C (131°F) instead of normal room temperature speeds up the aging process by a factor of 9.8. This means a 1-year shelf life can be simulated in just 37 days of continuous oven exposure.

You calculate accelerated aging by applying the Arrhenius equation with a reaction rate multiplier called the Q10 factor. The Q10 factor estimates how much faster a chemical reaction happens when you raise the temperature by 10°C. Under the ASTM F1980 standard, a conservative Q10 factor of 2.0 is used for medical device packaging. To run the calculation, find the temperature difference between your oven and the ambient storage environment. For a typical lab, the ambient temperature is set at 22°C, and the aging oven runs at 55°C. This 33°C difference means the reaction rate doubles roughly 3.3 times, yielding an Accelerated Aging Factor of 9.85.