ARBOK-BEVERIX (Beverage Industry Zero Waste Discharge)

Overview

ARBOK-BEVERIX is a deep vacuum-based wastewater treatment system designed specifically for beverage and food manufacturing effluents. Beverage industry wastewater is among the most chemically complex: COD values reach 725 000 mg/L (8,300× municipal norm), pH swings from 2.8 to 12.2 within a single cycle, and effluents contain PFAS, antibiotic-resistant bacteria, pesticide transformation products, and up to 47 simultaneous contaminants per sample. Standard biological, thermal, and membrane treatment systems fail under these conditions.

BEVERIX operates under deep vacuum, held well below atmospheric pressure, causing water to evaporate at ambient temperature with no heating, no reagents, and no membranes. Clean water is recovered and returned to production. All contaminants — organics, sugars, salts, PFAS, heavy metals — exit as dry, separated concentrates available for further processing or sale. There is zero liquid discharge (ZWD). The system is available under a BOOM (Build-Own-Operate-Maintain) or leasing model with zero capex for the client.

Applications

Primary use cases:

• Treatment of beverage manufacturing wastewater (carbonated drinks, juices, energy drinks)

• Food industry effluents with extreme COD loads and pH variation

• Sites where RO or biological treatment has failed or is cost-prohibitive

• Zero liquid discharge compliance for regulated facilities

Typical scenarios:

• Full wastewater cycle closure at beverage plants

• Replacement of failed RO or thermal (MEE) systems

• PFAS and antibiotic-resistant bacteria elimination

• Water recovery and reuse in production

Industries and users:

• Soft drink and energy drink manufacturers

• Juice and dairy beverage producers

• Breweries and distilleries

• Food processing companies with high-strength effluents

Scale:

• Small: 10–50 m³/day

• Medium: 50–500 m³/day

• Large: 500–2,000+ m³/day (modular expansion)

Operating Principle

The system operates under deep vacuum, maintained well below atmospheric pressure by continuous vacuum generation. At this pressure regime, water transitions to vapor phase at ambient temperature without any heating source. Only H₂O molecules evaporate; all dissolved and suspended matter — regardless of chemical composition — remains in the residual phase.

Key steps:

1. Beverage wastewater is fed into the vacuum activator
2. Deep vacuum causes water evaporation at ambient temperature
3. Water vapor is condensed into clean water (drinkable quality)
4. Residual concentrate (organics, sugars, salts, PFAS, metals) collects at the bottom
5. Dry or paste-form concentrates exit as separated fractions

The system is indifferent to feedwater chemistry: pH 2.8 or 12.2, COD 87 or 725 000 mg/L — operating parameters remain unchanged.

Limitations:

• Requires stable vacuum conditions

• In cold climates, standard shelter required (no heating inside)

• Pre-screening recommended for large solid particles

Key Parameters

| Parameter | Biological Treatment | Thermal (MEE) | Reverse Osmosis | ARBOK-BEVERIX |

|---|---|---|---|---|

| Energy consumption | 3–8 kWh/m³ | 150–250 kWh/t | 5–10 kWh/m³ | 0.7 kWh/m³ |

| Operating cost | Medium | $45–75/m³ | $15–30/m³ | Low |

| PFAS removal | No | Partial | No | Yes (concentrate) |

| Liquid waste output | High | Low | 60–70% brine | 0% |

| Water recovery | Low | Low | Partial | up to 99.98% |

| pH tolerance | 6–9 only | Any | 4–10 | 2.8–12.2 |

| COD tolerance | <5,000 mg/L | Any | <1,000 mg/L | Any (tested to 725 000) |

| Payback | — | Does not pay back | Does not pay back | 5–7 years |

Typical values:

• Energy: 0.7 kWh/m³ (full cycle)

• Water recovery: up to 99.98%

• Operating temperature: ambient — no heat supplied, no setpoint

• Operating pressure: deep vacuum, held well below atmospheric pressure by continuous vacuum generation

• Energy recovery inside unit: up to 98%

• CO₂ emissions: < 0.1 kg/t

• NOₓ emissions: < 0.05 kg/t

• SOₓ emissions: 0

Architecture and Components

Core components:

• Vacuum activator chamber

• Condensation unit

• Concentrate collection and separation system

• Vacuum generation system

• PLC automation and control

Auxiliary systems:

• Feed tanks and pre-screening

• Fraction separation modules

• Clean water output storage

Physical format:

• Container format: standard shippable modular enclosure, sized for road and sea freight

• Mounting: vertical, on concrete pad

• Footprint: compact — designed to fit constrained industrial plot sizes without a dedicated new building

• Shelter in northern climates: standard unheated building

The system is modular and scalable. Multiple units can be combined for higher throughput.

Advantages

Technical:

• Operates on any beverage/food wastewater regardless of COD, pH, or composition

• Eliminates PFAS, antibiotic-resistant bacteria, pesticide transformation products

• No membranes — no fouling, no replacement, no degradation

• No reagents or biological components

• 130× more energy-efficient than heating equivalent volume (vs. thermal processes)

Economic:

• Water savings: 10× reduction in fresh water consumption

• Example (500 m³/day plant): ~170 000 m³/year recovered → ~$250 000/year saved on water alone

• Co-product revenue from separated dry concentrates

• Eliminates fine risk: no liquid discharge = full regulatory compliance

• BOOM/lease model: zero capex for client, pay per processed volume

Environmental:

• Zero Waste Discharge (ZWD): no liquid effluent, no landfill waste

• All outputs are utilizable fractions

• Emissions: CO₂ < 0.1 kg/t, NOₓ < 0.05 kg/t, SOₓ = 0

• Can operate on renewable energy sources

Strategic:

• Full compliance with EU UWWTD 2024 (food/beverage deadline 2033)

• US EPA PFAS tightening (0.004 μg/L limit for PFOA/PFOS)

• Replaces systems that fail under peak loads and produce false-clean monitoring data

Integrations

Compatible with:

• Existing plant wastewater pipelines (drop-in replacement)

• Industrial water recycling loops

• On-site energy generation (solar, biogas)

Digital integration:

• SCADA

• PLC automation

• Remote monitoring

• Real-time COD and flow tracking

Deployment & Operation

Implementation steps:

• Site assessment and flow characterization

• System sizing (volume, COD range, peak loads)

• Container delivery and vertical installation on pad

• Piping integration and commissioning

Operating conditions:

• Outdoor or indoor (shelter in cold climates)

• No heat source required

• No chemical storage or handling

Operation:

• Fully automated

• No specialized operator required

• Routine monitoring only

Installation timeline:

• 2–4 weeks to operational state

TRL

TRL 9

Evidence:

• Industrial validation at multiple site types

• Operational performance data confirmed

• Proven in conditions with COD up to 725 000 mg/L

Remaining steps:

• Scaling across beverage industry verticals

• Regulatory certification expansion (EU, US, APAC)

Market Potential

Target industries:

• Global beverage manufacturing

• Food processing

• Breweries, dairies, juice producers

Global market context:

• Global soft drink production: >800 billion liters/year

• Water use ratio: up to 10 liters per 1 liter of product

• Wastewater treatment market (food & beverage segment): $15–25 billion/year

• EU UWWTD compliance burden for food/beverage industry: estimated €1.2 billion/year additional

Regulatory drivers:

• EU Urban Wastewater Treatment Directive (2024): food/beverage industry deadline 2033

• US EPA PFAS MCL rule (2024): 0.004 μg/L for PFOA/PFOS in drinking water

• Mandatory online COD monitoring becoming standard across OECD jurisdictions

• Penalties for non-compliance: $1–10M+ per case (Yuengling $9.8M, Hanover $1.15M, Coca-Cola India $47M claim)

Typical Project Economics

Reference case: beverage plant, 500 m³/day wastewater

| Item | Value |

|---|---|

| Fresh water recovered/year | ~170 000 m³ |

| Water cost savings/year | ~$250 000 |

| Energy consumption | 0.7 kWh/m³ → ~$38,000/year (€0.30/kWh) |

| vs. RO energy cost | €274,000–548,000/year |

| vs. MEE cost | $8–14 million/year |

| Capex for client (BOOM) | $0 |

| Payback period | 5–7 years |

| Fine risk eliminated | Full ZWD compliance |

Risk Factors

• Conservative adoption in regulated industries with long procurement cycles

• Integration with legacy wastewater infrastructure

• Initial awareness gap — BEVERIX is often compared to RO/MEE which are familiar

• Concentrate fraction handling: requires downstream plan for solid/paste outputs

• BOOM model requires long-term service agreements

Related Technologies

ARBOK MedZWD · ARBOK-PAT · Arbok-Dairy · ARBOK-VC (Vacuum Cracking)