Floc Accelerator

Chemical Conditioning

Built for Dewatering.

Phosphorus Removal

Total Phosphorus (TP)
0 -85%

TSS Removal

Total Suspended Solids
0 -97%

BOD Reduction

Biochemical Oxygen Demand
0 -60%

Overview

What Is InnoFloc?

InnoFloc is a fully automated wastewater conditioning and dewatering system that uses precision inline chemical dosing to prepare wastewater for efficient solids removal. Unlike the InnoCyclone — which uses a separation vessel — InnoFloc conditions the wastewater through coagulation and flocculation, then sends it directly to a dewatering process.

The result is stable, well-formed flocs ready for geotextile bag or roll-off container dewatering — removing phosphorus, TSS, algae, and BOD with minimal operator involvement.

Technology

How It Works

1

Wastewater Inlet

Incoming wastewater — typically Waste Activated Sludge (WAS) or industrial effluent — enters the InnoFloc system.

WAS or Industrial

2

Coagulant Injection

A coagulant (alum or ferric chloride) is precision-dosed into the stream, destabilizing particles and initiating floc formation.

Static mixer

3

Polymer Injection

Polymer is injected and mixed through a second static mixer, agglomerating micro-flocs into larger, stable structures.

Static mixer

4

Dewatering

Conditioned wastewater is directed to geotextile bag or roll-off container dewatering for solids capture.

PLC automated

Dewatering

Two Dewatering Options

Geotextile Bag Dewatering

Conditioned wastewater is pumped into geotextile bags placed on the ground or in a roll-off container. Water filters through the bag fabric while solids are retained. Simple, low-cost, and effective for a wide range of wastewater types.

Roll-Off Container Dewatering

Geotextile bags are housed inside a roll-off container for a contained, portable dewatering solution. Ideal for sites requiring easy solids transport and disposal, or where ground space is limited.

Who It's For

Applications

Waste Activated Sludge (WAS)

Municipal wastewater treatment plant sludge conditioning prior to dewatering — improving solids capture and reducing dewatered volume.

Waste Activated Sludge (WAS)

Municipal wastewater treatment plant sludge conditioning prior to dewatering — improving solids capture and reducing dewatered volume.

Industrial Wastewater

Pretreatment and conditioning of industrial process effluent for compliant discharge or water reuse within the plant.

Industrial Wastewater

Pretreatment and conditioning of industrial process effluent for compliant discharge or water reuse within the plant.

Phosphorus Recovery

Captures phosphorus-rich solids that can be further processed into high-quality fertilizer, turning a waste stream into a valuable resource.

Phosphorus Recovery

Captures phosphorus-rich solids that can be further processed into high-quality fertilizer, turning a waste stream into a valuable resource.

Algae Removal

Effective conditioning and capture of algal biomass from lagoons and ponds, reducing eutrophication and improving effluent quality.

Algae Removal

Effective conditioning and capture of algal biomass from lagoons and ponds, reducing eutrophication and improving effluent quality.

Food Processing

Removal of TSS, fats, oil, and grease from food processing effluents to meet discharge criteria or enable on-site water reuse.

Food Processing

Removal of TSS, fats, oil, and grease from food processing effluents to meet discharge criteria or enable on-site water reuse.

Sludge Management

Integrated with broader sludge management workflows — conditioning, dewatering, and composting for responsible solids disposal.

Sludge Management

Integrated with broader sludge management workflows — conditioning, dewatering, and composting for responsible solids disposal.

Proven Results

Estimated Performance

Contaminant

Estimated Removal Rate

Notes

Total Phosphorus (TP)

85 – 95%

Dependent on coagulant type and dose

Total Suspended Solids (TSS)

90 – 97%

High capture efficiency with polymer addition

Algae

85 – 95%

Effective for most bloom-forming species

Biochemical Oxygen Demand (BOD)

40 – 60%

Indirect reduction through TSS capture

Contaminant

Total Phosphorus (TP)

Estimated Removal Rate

85 – 95%

Notes

Dependent on coagulant type and dose

Contaminant

Total Suspended Solids (TSS)

Estimated Removal Rate

90 – 97%

Notes

High capture efficiency with polymer addition

Contaminant

Algae

Estimated Removal Rate

85 – 95%

Notes

Effective for most bloom-forming species

Contaminant

Biochemical Oxygen Demand (BOD)

Estimated Removal Rate

40 – 60%

Notes

Indirect reduction through TSS capture

* Estimated performance based on similar chemical conditioning systems. Actual results vary with wastewater characteristics and dewatering method.

Technical Overview

The InnoFloc System

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The InnoFloc system: dual static inline mixers, coagulant and polymer precision dosing pumps, collection hoppers, and the Innovantage PLC for full automated control. Compact and modular — integrates readily into existing infrastructure.

Download the InnoFloc Technical Sheet

Full system description, process flow, performance data, features, and advantages — ready for your engineering review.