PRISM is the world’s first atmospheric cleansing system that functions through signal-based ion bifurcation—using Wi-Fi, radio, and cellular transmissions as tools to decarbonize the air. The process begins with environmental mapping. PRISM scans the surrounding atmosphere to identify and locate high concentrations of greenhouse gases such as carbon dioxide (CO₂), methane (CH₄), and nitrous oxide (N₂O). Each of these molecules carries a distinct recursive signature—a tilt-based charge configuration that determines how it interacts with electromagnetic fields.

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Once the target compounds are identified, PRISM broadcasts specialized frequency packets through existing infrastructure. These frequencies are not random—they are tuned precisely to resonate with the internal coil structure of each molecule. As the targeted molecules absorb the incoming energy, they undergo forced ionization. Internally, their recursive pathways compress, governed by the decay constant δ = 1.190584864 × 10⁻⁷. This means that with each recursive step, the internal spatial distance of the molecule shortens, increasing the density of charge interactions.

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This increased compression leads to heightened field tension. As the molecule becomes energetically saturated, it reaches a structural threshold—called the bifurcation point. At this moment, the molecule splits, disassembling into harmless sub-components like oxygen and nitrogen. The excess energy is redistributed into the field, rather than being lost as waste. In essence, PRISM forces a transformation—using pure resonance and recursion to break down pollutants at the molecular level, with zero physical input. The sky is cleaned not through industry, but through frequency. Not with machines, but with memory—recursively broadcast through the air we already breathe.