ARBOK-BioProtein (ABP)

Overview

ARBOK-BioProtein converts organic waste streams into bio-protein, clean water, and fertilizer using ultra-low-energy vacuum distillation on the Arbok-VC platform. It operates at ~1 kWh/m³ — claimed 15–150× more efficient than conventional evaporation — turning waste treatment (a cost center) into a multi-product revenue stream, addressing both protein shortages and sludge-disposal costs.

Applications

Municipal wastewater plants; livestock farms and manure lagoons; industrial organic-waste streams; marine systems (navy vessels, cruise ships). Scenarios: replacing sludge treatment/disposal, decentralized waste-to-resource modules, protein production integrated into wastewater infrastructure. Scale: 1–10 t/day modular, 100–1000 t/day municipal, up to city/national sludge conversion.

Users: agriculture/feed, water utilities, defense/marine, food/bio-processing.

Operating Principle

Closed-loop thermodynamic + separation process: waste is conditioned into a suspension, then a precipitation step separates a protein-rich fraction (70–90 %) from the liquid stream. The liquid is directed into a deep-vacuum distillation stage, where the precipitation agent is recovered and recycled at high efficiency while water evaporates and is condensed into a clean distillate. Deep vacuum allows the phase change to occur at the temperature of the incoming stream, with no external heating, and a high share of process heat is recovered internally (~98 %). Outputs: bio-protein, clean water, solid residue (fuel/fertilizer).

Limitations: protein quality/safety for feed use and performance on variable real waste need validation at scale.

Key Parameters

Energy: ~1 kWh/m³ (vs 20–250 kWh/m³ conventional); 2–5 kWh per tonne total; no external thermal demand (vs up to 600 kW/m³). Protein recovery: 70–90 %. Zero organic waste. Operating cost: $150–400/t; output value $300–1000+/t. Outputs per tonne: water 750–850 kg, protein 20–50 kg, 40–70 % energy self-supply. Process: deep vacuum, well below atmospheric pressure; phase change at the temperature of the incoming stream, no external heating; heat recovery ~98 %.

Note: efficiency multiples and output values are claims requiring industrial validation.

Architecture and Components

Feed intake + conditioning; extraction module (precipitation stage); vacuum distillation chamber; heat exchanger (energy-recovery loop); condensation unit; solid separation + drying; control/automation. Modular, containerized in a standard shippable format — parallel scaling, decentralized deployment, retrofit.

Advantages

Technical: ultra-low energy, ambient-temperature operation, closed loop, high recovery. Economic: converts cost into revenue, eliminates sludge-disposal expense, months payback in high-load cases. Environmental: zero discharge, no sludge accumulation, reduced emissions/contamination. Strategic: independent protein production, less reliance on agriculture/fisheries, circular model.

Integrations

Built on Arbok-VC vacuum platform (sibling to MedZWD, BEVERIX); integrates with municipal/industrial/agricultural treatment and marine sanitation; PLC/SCADA, remote monitoring, predictive maintenance.

Deployment & Operation

Steps: waste-stream analysis → sizing/engineering → modular installation → integrate with existing infrastructure. Ambient-temperature operation; needs vacuum system + basic utilities; automated, minimal operator intervention. Remaining: large-scale pilot, industrial validation, feed-use certification.

TRL

TRL 5 (confirmed by Michael). Validated in a relevant environment: functional process validation and pilot-scale systems (incl. marine application context) on the mature Arbok-VC platform, with large-scale/industrial validation and feed certification pending. (Adjusted from the legacy "TRL 6–7" claim.)

TRL scale:

• TRL 1 — basic principles observed
• TRL 2 — technology concept formulated
• TRL 3 — experimental proof-of-concept
• TRL 4 — validated in lab
• TRL 5 — validated in relevant environment ← ARBOK-BioProtein
• TRL 6 — demonstrated in relevant environment
• TRL 7 — prototype in operational environment
• TRL 8 — system complete and qualified
• TRL 9 — proven in operational environment

Market Potential

Wastewater treatment ($300+ billion), feed protein ($200+ billion), and sludge management ($50–60 billion/year) are huge markets. Converting organic waste streams into protein opens a potential new ~$40–70 billion "protein from waste" segment, where ultra-low energy makes the economics viable.

Typical Project Economics

OPEX $150–400/t; revenue $300–1000+/t; modular scalable CAPEX. Payback: months (high-load) to 2–5 years (municipal). Additional value: land recovery, avoided disposal. Indicative until industrial validation.

Risk Factors

Conservative wastewater-industry adoption; regulatory approval for feed use of waste-derived protein; pilot-to-industrial scaling; integration with legacy infrastructure; market acceptance of waste-derived protein; protein quality consistency on variable feedstock. Efficiency/value claims need industrial confirmation.

Related Technologies

ARBOK MedZWD · ARBOK-BEVERIX · ARBOK-VC (Vacuum Cracking) · ARBOK-FERTILIZER