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VSEP Industries

Beverage Production

Advanced Water & Wastewater Solutions for Beverage Manufacturing

Reliable Treatment for Incoming Water, Wastewater Compliance

Beverage production depends on clean, consistent water quality, both for product formulation and for operational processes such as CIP, bottle washing, equipment sanitation, and cooling. Yet water challenges are growing more complex every year. From variable groundwater quality and municipal supply issues to tightening discharge regulations and rising PFAS contamination concerns, the industry faces mounting risk, cost, and compliance pressure.

VSEP® (Vibratory Shear Enhanced Processing) filtration systems offer a proven, sustainable way for beverage plants to secure high‑quality incoming water, remove PFAS, reduce wastewater surcharges, and enable water reuse, especially in regions with water scarcity.

Promotional chart for VSEP beverage production options.

The Water Challenges Facing Today’s Beverage Plants

1. Incoming Water Quantity and Quality Is Often Unreliable

Most beverage bottling facilities must be located near large population centers to minimize product shipping costs. But those same locations don’t always provide ideal water sources. Plants frequently encounter:

  • Brackish groundwater with high TDS
  • High TOC that affects taste and stability
  • Variable or poor municipal water quality
  • PFAS contamination, now recognized as a global issue and a product‑liability risk
  • Water restrictions due to drought or overburdened supplies

If incoming water doesn’t meet product standards, process engineers must compensate with expensive pretreatment steps or risk quality deviations and recalls. Some facilities are limited in production due to water allocation limits. Reusing water can improve plant production rates.

2. Wastewater Compliance Is Getting More Difficult and Expensive

Beverage operations generate multiple high‑strength wastewater streams:

  • Bottle and can rinsing
  • CIP and sanitation wastewater
  • Floor and equipment washdown
  • Returns of expired or off‑spec product
  • Concentrated waste from filtration and syrup recovery

These flows often contain high BOD, COD, and suspended solids, leading to:

  • Costly municipal surcharges
  • Requirements for on‑site pretreatment before discharge
  • Risk of non‑compliance fines
  • High hauling and disposal fees

In water‑stressed regions, wastewater disposal isn’t just costly, it’s unsustainable. Using water once and then throwing it away is wasteful.

3. Growing Pressure Around PFAS Contamination

PFAS compounds have been detected in water supplies across North America and globally. 7000 municipal water districts in the U.S. have detected PFAS in their drinking water. For beverage manufacturers, PFAS present dual risks:

  • Contaminating the final beverage, public liability and regulatory exposure
  • Appearing in wastewater, leading to new compliance hurdles and potential discharge restrictions

Traditional filtration often fails to remove PFAS effectively or cost‑efficiently.

4. Sustainability as a Competitive Advantage in the Beverage Industry

Water is the beverage industry’s most critical resource. As sustainability and ESG expectations rise, beverage manufacturers worldwide are prioritizing initiatives that reduce water use, increase reuse, and minimize wastewater discharge.

Across the sector, companies trying to keep up are working toward:

  • Water reuse and recycling systems for cooling, CIP, and utilities
  • High‑efficiency ingredient‑water systems to reduce consumption
  • Advanced treatment technologies to meet discharge and contaminant standards
  • Wastewater minimization and BOD/COD reduction technologies
  • PFAS mitigation strategies for both ingredient water and effluent
  • Cross‑industry collaboration through groups like BIER and WRAP
  • Digitalization and automation to improve water‑efficiency metrics

Collectively, these initiatives help beverage manufacturers reduce operational cost, meet ESG goals, protect brand integrity, remain compliant, and secure long‑term water availability.


VSEP®: A Proven Solution for Beverage Water & Wastewater

VSEP systems have been deployed in beverage plants worldwide for both incoming water, wastewater treatment, and water recycling. With high shear, anti‑fouling vibratory membrane technology, VSEP delivers exceptional separation performance, even with difficult high‑strength streams in a simple single-step treatment process.

What Is VSEP® and How It Works

VSEP® (Vibratory Shear Enhanced Processing) is an advanced membrane filtration technology engineered to treat difficult, high‑solids, and variable‑strength water streams that conventional membranes cannot handle or struggle with. Instead of relying on high cross‑flow velocities, VSEP uses a unique vibrating membrane module that creates intense shear waves across the membrane surface. This shear prevents fouling, keeps the membrane clean, and allows the system to operate at much higher solids loading and recovery rates.

Flow diagram of VSEP for fruit juice clarification.

How VSEP Works

  1. Feedwater enters the VSEP module, where it is exposed to a vibrating membrane surface.
  2. High‑frequency shear waves break up fouling layers before they can form, dramatically reducing fouling, scaling, and membrane degradation.
  3. Clean permeate passes through the membrane, producing high‑quality filtrate suitable for ingredient water, or water recycled from effluent for process water uses.
  4. Concentrated waste is thickened, minimizing disposal volume and lowering total wastewater cost.

Why It Matters

  • Handles high‑strength and variable wastewater from beverage operations
  • Produces consistent, high‑purity water from challenging sources
  • Effectively removes microplastics, PFAS and other emerging contaminants
  • Achieves high recovery rates, reducing waste volume
  • Supports water reuse, ZLD pathways, and ESG‑driven sustainability goals

VSEP delivers reliable, high‑efficiency filtration for both incoming water and wastewater.

VSEP for Incoming Water Treatment

Produce Consistent, High‑Purity Water for Bottling

VSEP provides advanced treatment for problematic water sources, including:

  • Brackish groundwater
  • Municipal water with poor quality
  • Surface water with TOC or seasonal variability

PFAS Removal for Product Safety and Compliance

VSEP’s membrane technology can remove PFAS compounds to extremely low levels, even to non-detect levels, helping protect the brand and meet evolving regulatory standards. Beverage companies cannot rely on municipal water to be safe and can be liable if PFAS is detected in their product and this is not disclosed to the public.

Key Benefits

✔ Reliable, better product water quality
✔ Reduction or elimination of taste and odor issues
✔ PFAS removal to non‑detect levels
✔ Lower chemical use compared to conventional pretreatment
✔ Smaller footprint than traditional systems with little or no pretreatment

VSEP for Beverage Wastewater Treatment & Reuse

Turn Wastewater Into a Recoverable Resource

Instead of paying surcharges or disposal fees, beverage plants can use VSEP to treat wastewater for:

  • Reuse in cooling towers
  • Reuse in CIP makeup water
  • Irrigation or non‑potable applications

High‑Performance Treatment for High‑BOD Waste

VSEP excels where conventional membranes quickly foul. It is proven effective on:

  • CIP wastewater
  • Sugar and syrup waste streams
  • Floor wash and tank cleaning wastewater
  • Returned product destruction wastewater

Key Benefits

✔ Lower BOD/COD for municipal compliance
✔ Reduced hauling and surcharge costs
✔ Simple, compact, single unit process without complexity
✔ Supports water‑reuse goals and ZLD pathways

Why Beverage Process Engineers Choose VSEP

  • Handles high solids and high‑BOD waste streams without rapid fouling
  • Delivers consistent permeate quality even on variable feedwater
  • Reduces operating cost through lower chemicals and less downtime
  • Improves environmental sustainability and corporate ESG metrics
  • Creates water security for facilities in drought‑prone or restricted areas

With a history of successful installations in beverage and food plants, VSEP offers reliability, scalability, and proven long‑term performance.

Proven VSEP Reliability

Case Study – Gatorade, 2000

In 2000, New Logic commissioned a UF VSEP system to filter incoming surface water to remove TOC and humic materials. Prior to the installation, the plant suffered from customer taste complaints. After the commissioning, the plant moved to second best in the country. They had used a sand filter and carbon filter as treatment. These were not sufficient and the addition of VSEP ultrafiltration removed virtually 100% of suspended solids, humic materials, and TOC. The system is now running for 26 years continuously using filters that are sometimes 10 years old.

Case Study – Pepsi Jordan, 2014

In 2014, A VSEP RO membrane system was commissioned to treat the plant wastewater for recycling.  This work was being done as part of a global effort to improve water efficiency and reuse within the PepsiCo organization. The VSEP system recovers 90% of the feed volume as clean water for reuse. UV is used as a protective final sanitizing process for the recycled water.

  Wastewater VSEP/UV Water Desired Water
pH 6.0 5.6 ~
Turbidity 160 ntu 0.8 ntu ~
TDS 1,361 mg/L 97 mg/L 750 mg/L
TSS 232 mg/L 1 mg/L 50 mg/L
COD 3,490 mg/L 165 mg/L 250 mg/L

VSEP plant installed for beverage facility in Jordan.

Case Study – Pepsi Crush Wastewater, 2019

The facility had a defective or expired product disposal area. The rejected bottles and cans are a mix of all Pepsi beverage products. These products are crushed and the resulting liquid is held and then hauled for disposal by a third party at cost to Pepsi. The client wanted to concentrate the crush wastewater to further volume reduce their waste stream. As a possible bonus, the concentrated crush slurry could be sold as a sugar-rich solution for animal feed or ethanol production, if the sugar con be concentrate to 20% (20º Brix).

New Logic supplied demonstration VSEP RO equipment plus a spiral RO polishing system as a second stage. The system was able to concentrate the sugar to more than 20% and also produced a clean RO filtrate, suitable for reuse.

  pH Conductivity COD Brix
Expired Product 3.3 2,280 µS 47,600 ppm 5.8°
VSEP Concentrate 3.6 4,920 µS 291,600 ppm 23.2°
VSEP Permeate 3.3 265 µS 3,300 ppm 0.0°
Spiral RO Permeate     100 ppm 0.0°

VSEP Limitations & Design Considerations

  • Recovery limited by osmotic pressure and viscosity
  • Temperature typically limited to 60°C
  • Prescreening may be required to remove solids >100 µm
  • VSEP cannot accept aromatic solvents and oxidizers

Pilot‑Driven Engineering: How VSEP® Systems Are Sized and Validated

Engineering a high‑recovery VSEP RO system begins with a pilot‑based design approach. Because every water source has unique chemistry—silica speciation, scaling potential, organics, surfactants, and colloids—pilot testing is preferred to size VSEP systems. Empirical performance data is generated through structured pilot testing, either with the standard LP VSEP pilot machine or even with full-scale equipment. This is then used to predict full‑scale performance with high confidence.

Get Started

Evaluating ways to improve sustainability, recycle water, and minimize wastewater costs? VSEP can help.

  • Request a Performance Projection: info@vsep.com
  • Learn about Pilot Testing Options: https://www.vsep.com/technology/pilot-testing/
  • Learn More About the Technology: https://www.vsep.com/technology/
  • Bottled Water Case Study: https://www.vsep.com/pdf/Bottled-Water-Case-Study.pdf

About VSEP and New Logic Research

  • More than 450 industrial VSEP systems installed globally
  • Technology covered by U.S. and international patents
  • Used in food, beverage, wastewater, and agricultural applications
  • Engineering team with chemical, metallurgical, and mechanical engineering backgrounds
  • VSEP systems are NSF 61 Certified

New Logic Research, 2527 Aviation Way, Minden, NV 89423

 

Bottled Water Case StudyRO Reject Case StudyBeer RecoveryWinery Wastewater

Water Reuse

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Industries
  • Animal Protein and By-Products
    Aquaculture WastewaterFish Meal StickwaterFish Processing WastewaterLeather Tannery WastewaterRendering Wastewater TreatmentSlaughterhouse Wastewater
  • Biogas Effluent
  • Brine and Brackish Water
    RO Reject / Brine MinimizationZLD
  • Food and Beverage
    Beer Bottoms FiltrationBeverage ProductionBottled WaterCoffee Extract DewateringCooked Corn WastewaterFruit Juice ClarificationOlive ProcessingPalm Oil POME TreatmentSugar Juice ClarificationWhey WastewaterWinery Wastewater
  • Industrial Wastewater
    Calcium Chloride RecoveryColloidal Silica DewateringGlycol RecoveryHot Rolled Steel WastewaterIndigo Dye WastewaterLaundry WastewaterPET Recycling WastewaterPFAS Remediation and TreatmentSodium Sulfate RecoveryTextile Dye WastewaterYeast Wastewater
  • Landfill Leachate Treatment
    PFAS Removal for Landfill Leachate
  • Manure Management
  • Metal Finishing Wastewater
    Aluminum Can WastewaterAnodizing WastewaterElectroplating WastewaterGalvanizing WastewaterPowder Coating Wastewater
  • Mining and Metals
    Acid Purification and RecyclingCopper Refining WastewaterGold Tailings Pond WaterGypsum Stack WastewaterIron Tailings Pond WaterLithium ExtractionManganese Ferroalloy WastewaterPhosphoric Acid FiltrationPlatinum Group MetalsRare Earth ElementsRed Mud DewateringZinc Smelting Wastewater
  • Municipal Wastewater
    Indirect Potable ReusePOTW DischargeReclaimed Water TreatmentRemote Community Wastewater
  • Oil and Gas Applications
    Algae Dewatering & HarvestingDesalter EffluentDrilling Mud TreatmentFuel Storage Tank WaterFrac WaterOily WastewaterProduced WaterSlop Oil TreatmentStripped Sour Water
  • Pigment Dewatering
    Calcium Carbonate DewateringCarbon BlackIron Oxide PigmentKaolin Clay DewateringMetal Chromate PigmentTitanium Dioxide Filtration
  • Polymer Manufacturing
  • Power Plant Effluent
    Cooling Tower BlowdownFGD WastewaterFly Ash Leachate TreatmentNuclear Power
  • Pulp & Paper
    Black LiquorBox Plant WastewaterEnd of Pipe WastewaterHardboard WastewaterMDF WastewaterPaper Coating RecoveryWhitewater Treatment
  • Semiconductor
    Gallium Arsenide WastewaterHF WastewaterPCB WastewaterScrubber WastewaterUltrapure WaterWafer Fabrication Wastewater
  • Stillage and Vinasse Dewatering
    Glycerol Recovery from Stillage

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New Logic Research
  • From chemical processing and manure wastewater to pure drinking water, VSEP systems can be configured to meet the needs of virtually any industry application.
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