The production of sugarcane PLA involves a series of biochemical and polymer science steps:
Cultivation of Sugarcane:
Sugarcane is grown in annually renewable cycles, absorbing CO₂ as it grows — effectively storing “biogenic” carbon in plant biomass.
Extraction & Fermentation:
The sugar is extracted from the cane and fermented to produce lactic acid. This process transforms simple plant sugars into an organic acid that becomes the monomer for PLA.
Polymerization:
Lactic acid undergoes polymerization — usually via advanced processes such as ring-opening polymerization — to create high-molecular-weight polylactic acid resin, which can be pelletized for manufacturing.
Bottle Manufacturing:
These PLA pellets are processed using conventional injection and blow-molding equipment, enabling seamless integration with existing production lines. The result is clear, lightweight, high-quality bottles that meet food-contact regulations and performance requirements for cold beverages.
This plant-to-bottle pathway ensures that our PLA bottles are 100% biobased, renewable, and manufactured without petrochemical raw materials.
PET bottles degrade over time, breaking down into microscopic fragments known as microplastics. These tiny particles are not only pervasive in the environment but are also entering our food chain and drinking water.
PET bottles can leach harmful substances into the liquids they contain, particularly when exposed to heat, sunlight, or reused multiple times.
Read the article, showing PLA does not create microplastics:
PLA is made from sugarcane, an annually renewable crop. During growth, sugarcane captures atmospheric carbon, embedding it into the material’s lifecycle — a feature referred to as biogenic carbon storage. This contrasts sharply with fossil-derived plastics, which add new carbon to the atmosphere when produced or incinerated.
Independent life cycle assessments (LCA) of sugarcane-based PLA show substantially lower greenhouse gas emissions compared with conventional plastics like PET, glass, or aluminum. These reductions are due to both the renewable feedstock and energy efficiencies in production.
PLA supports several end-of-life pathways, creating flexibility for circular economy strategies:
Industrial Composting: Under certified conditions (e.g., EN13432 in Europe), PLA can break down into CO₂ and water, leaving no toxic residues.
Mechanical & Chemical Recycling: PLA resin can be recovered and reused in new products or processed into feedstock for other materials.
Material Recovery & Energy Use: Where composting infrastructure is limited, PLA can be integrated into controlled energy recovery systems with lower environmental impact than fossil plastics.
These options substantially expand end-of-life pathways beyond landfill or incineration alone, offering brands strategic flexibility depending on local infrastructure.
Research indicates that PLA does not form long-lasting nano or microplastics in the environment, unlike traditional polymers. This characteristic is significant in addressing long-term pollution concerns associated with fossil-based plastics.
The water is naturally filtered through geological layers, resulting in a stable mineral composition, a neutral-to-slightly-alkaline pH, and a clean, balanced taste profile.
VITAL is a functional hydration product designed for daily stress resilience and mental balance, addressing a core and growing consumer need in modern European lifestyles.
NEURO is a premium functional water positioned at the intersection of hydration, cognition, and clean stimulation. The formula delivers measurable mental performance support.
