https://www.facebook.com/446520069181805/

Ecletic S, São Paulo (2026)

26/04/2026

Some ancient symbols feel familiar before we understand them.

Why?

Because the brain may recognize structure before language.

This is where the Harappan Reset begins.

04/11/2025

At sea.

17/04/2025

https://linktr.ee/Ecletic__s?fbclid=PAY2xjawJucINleHRuA2FlbQIxMQABp2g8vidFy9iNaWx4Qab8Mv4-sZNvzPXUXizrfxnAfKePwboHOQuQdTwJWny5_aem_Lf_egrkpLrfaDxz07sYRQQ

$Our closed-loop recycling system is designed to recover and repurpose every fraction of the input waste. Unlike traditio...$

17/04/2025

Our closed-loop recycling system is designed to recover and repurpose every fraction of the input waste. Unlike traditional systems that only capture a portion of the waste—often leaving behind residual materials or by-products that are considered losses—our approach is engineered to ensure that nothing is wasted. Here’s how we achieve a net waste recycling rate of 100%: Complete Material Recovery: Every waste stream (plastics, textiles, metals, composites, etc.) is processed such that even the smallest particles are captured. Our system is designed to treat all waste items with advanced separation, conversion, and purification processes. Residual fractions, which in conventional systems might be lost, are reintegrated as either feedstocks or energy inputs. Recycling Efficiency of Individual Items: In conventional calculations, net waste recycled for a category is derived by multiplying the recycling efficiency (percentage recycled by mass) of each waste item by its mass fraction in the category, then summing the products. For example, if clothing is recycled at 70% (accounting for 77% of the mass) and towels at 80% (21% of the mass), the sum might be around 71%. In our system, however, advanced processes ensure that each waste item—regardless of its initial efficiency—achieves nearly 100% recovery because all fractions are processed. Every by-product that would otherwise be lost is captured and redirected back into the cycle. Closed-Loop Integration: Our design incorporates multiple interconnected modules—from pre-sorting and fragmentation to conversion and energy recovery—all managed by a digital twin system. This digital twin monitors every parameter in real time and adjusts process variables using AI-driven optimization. By doing so, it ensures that even trace amounts of material or energy that would normally be considered unusable are recovered. For instance, ash and refractory residues are not discarded; they are fed into our thermal energy recovery module, while even minor chemical by-products are reprocessed as catalysts or energy sources. System Optimization: Every module is engineered with the 0/0 Systems philosophy in