Investment proposal
Bio Cycle Labs — Liquid waste
This brief is structured for funding and partnership review: a deployable 40 ft treatment line with nominal capacity up to 300 m³/day, a reference high-strength whey case, transparent unit-cost positioning vs. market bands, and a technology story built around activation, aeration, and high-surface biological media—without legacy sludge logistics at the core.
Sections below walk thesis → reference feed → economics → differentiation → contact. Numbers are presented as charts and tables for diligence; imagery illustrates deployment reality (transportable unit, in-container process density). Final terms are subject to technical diligence, feed variability, and jurisdiction.
We return water to the ecosystem.
We treat liquid effluents at industrial throughput: a single 40 ft module is designed for up to 300 m³ per day of treatment capacity, depending on feed characteristics and configuration.
Nominal capacity (40 ft unit)
up to 300 m³ / day
Treat 5–12 m³ per hour of whey in a compact layout—without bulky, energy-intensive conventional trains—while keeping capital and operating complexity low. All process equipment fits inside a 40 ft container.
| Component | Indicative share / quality |
|---|---|
| Protein | ≈ 1.5% |
| Sugars | ≈ 5.5% |
| Ash | ≈ 1% |
| Water | ≈ 92% |
| COD | > 25,000 mg O₂/L |
Illustrative comparison: internal **target band** vs. **typical market reference range** (sources vary by region and contract). Not a guarantee of performance.
€ per m³ treated
Single **40 ft** configuration: indicative **hourly** window; daily capacity scales with uptime and feed class.
| Target treatment cost (project) | < €10 / m³ |
|---|---|
| Reference market cost band | €25–45 / m³ |
| Nominal capacity (40 ft unit) | up to 300 m³ / day |
| Process throughput range (layout-dependent) | 5–50 m³ / h |
| Reference feed (case study) | Whey, food production |
Electrolysis, cavitation, and magnetostriction condition the water for rapid chemical polishing, efficient reagent dissolution, and gas transfer—enabling very fast reaction kinetics. In a 40 ft container layout, throughput can reach roughly 5–50 m³ per hour, depending on configuration and water class.
A new aeration approach supports dissolving more than 80% of the gas into the liquid phase at low energy input, improving mass transfer where it matters.
By combining biochemistry and molecular-scale design, we use a microbial substrate that outperforms common carriers: about 5,000 m² of effective surface area per 1 m³ of media for biofilm development.
For **NDA**, data room access, and **technical / commercial workshops**, route enquiries through the corporate desk. We respond to qualified institutional and strategic counterparties.
By contacting us you agree to be reached regarding this proposal. See the site privacy policy for details.