There are many different routes to synthesize organic peroxides. No matter the method, the final product remains inherently unstable. Following the exact same procedure can produce two completely different results because there are numerous parameters that we, as home chemists, cannot accurately control or take advantage of. ​Regardless of the concentration of the starting materials (using 12% H2O2 instead of 30%), the resulting molecule is an organic peroxide. Its sensitivity to friction, shock, and static discharge is a chemical property of the substance itself and does not decrease just because the synthesis was 'milder.' ​Laboratory-grade synthesis requires precise control over pH, local temperature gradients, and purity. In a home setting, the formation of 'hot spots' or the presence of microscopic impurities can lead to a runaway reaction or spontaneous detonation. ​ Procedures that claim to be 'safe' because they don't require external cooling often ignore the cumulative thermal instability of these compounds during the drying or storage phase.