Spunlace made from 100% cotton is a material based on natural cellulose fibers that decomposes through a natural biological process.
Unlike synthetic nonwoven materials that contain plastic, cotton Spunlace gradually breaks down under environmental conditions without forming microplastics.
The decomposition process begins when the material comes into contact with moisture, oxygen, and microorganisms. The fibers absorb water, the material structure gradually weakens, and then bacteria and fungi begin to break down the cellulose. Over time, the material decomposes into natural organic components: water, carbon dioxide, and organic matter.
The rate of decomposition directly depends on environmental conditions.
📎 In an industrial composting environment, with high humidity, access to oxygen, and active microflora, cotton Spunlace may begin to visibly break down within just a few weeks, while the full biological decomposition cycle usually takes from several months to one year.
📎 In moist soil, the material also decomposes relatively quickly due to the natural activity of microorganisms and constant contact with moisture.
📎 In a dry environment, with low humidity or limited access to oxygen, the process slows down significantly and may take several years.
📎 It is important to note that the decomposition rate is affected by:
- material density,
- the presence of additional impregnations or coatings,
- ambient temperature,
- humidity level,
- exposure to sunlight and oxygen.
At the same time, even during a longer decomposition cycle, natural cotton Spunlace does not form plastic microparticles that remain in the environment for decades.
This natural base is exactly what makes cotton Spunlace highly demanded in the hygiene, beauty, and medical product segments. The material combines softness, breathability, and user comfort with a more environmentally responsible life cycle compared to synthetic alternatives.
Today, material sustainability is becoming an important part of the nonwoven solutions industry. More and more manufacturers and brands are paying attention not only to how a product performs during use, but also to what happens to the material afterward.