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PROJECT EVIDENCE

Engineering Case Studies

Compare project scale, feed or process stream, and the membrane sections actually used across tubular membrane engineering, industrial wastewater reuse and ZLD, and process-fluid separation.

All case studies (72)

Showing 13–24 of 72

All case studies

Tubular membrane equipment at the 50 m³/h iron phosphate production wash-water clarification and metals removal project

Tubular Membrane Engineering

50 m³/h Iron Phosphate Wash-Water Clarification and Metals Removal Project

Project scale
50 m³/h
Feed / process stream
Wash water from iron phosphate production
Membrane sections
Pretreatment → PEK tubular membranes → nanofiltration → reverse osmosis

This project treats wash water from iron phosphate production at a scale of 50 m³/h. The treatment train combines pretreatment, PEK tubular membranes, nanofiltration and reverse osmosis for wash-water clarification and metals removal.

This reference is for comparison; a new duty requires its own engineering validation.

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Tubular membrane equipment at the 7 m³/h photovoltaic grinding wastewater clarification project

Tubular Membrane Engineering

7 m³/h Photovoltaic Grinding Wastewater Clarification Project

Project scale
7 m³/h
Feed / process stream
Grinding wastewater from photovoltaic manufacturing
Membrane sections
Tubular membrane clarification → downstream reverse osmosis

This project treats wafer grinding wastewater from photovoltaic manufacturing at a project scale of 7 m³/h. Tubular membrane filtration separates grinding particles and colloids as pretreatment for downstream reverse osmosis.

This reference is for comparison; a new duty requires its own engineering validation.

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Vertical tubular membrane equipment at the 500 m³/d chemical wastewater Air-Lift MBR project

Tubular Membrane Engineering

500 m³/d Chemical Wastewater Air-Lift MBR Project

Project scale
500 m³/d
Feed / process stream
Chemical manufacturing wastewater
Membrane sections
Biological treatment → air-lift tubular membrane solid-liquid separation → downstream wastewater treatment

This project treats wastewater from chemical manufacturing at a project scale of 500 m³/d. It combines biological treatment with air-lift tubular membrane solid-liquid separation and connects to downstream wastewater treatment.

This reference is for comparison; a new duty requires its own engineering validation.

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External tubular membrane equipment at the 700 m³/d paper mill black liquor anaerobic MBR project

Tubular Membrane Engineering

700 m³/d Paper Mill Black Liquor Anaerobic MBR Project

Project scale
700 m³/d
Feed / process stream
Paper mill black liquor
Membrane sections
Anaerobic reactor → external tubular membrane solid-liquid separation

This project treats black liquor from a paper mill at a project scale of 700 m³/d. It combines an anaerobic reactor with external tubular membrane solid-liquid separation to form an anaerobic membrane bioreactor (AnMBR) stage.

This reference is for comparison; a new duty requires its own engineering validation.

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External crossflow tubular membrane MBR equipment for a 4000 m³/d landfill leachate project

Tubular Membrane Engineering

4,000 m³/d Landfill Leachate External Crossflow MBR Project

Project scale
4,000 m³/d
Feed / process stream
Biologically treated landfill leachate mixed liquor
Membrane sections
Biological treatment → external tubular crossflow membrane solid-liquid separation

This project applies external tubular crossflow membranes to the biological treatment system of a landfill leachate facility at a project scale of 4,000 m³/d. The membranes provide solid-liquid separation for the biological system.

This reference is for comparison; a new duty requires its own engineering validation.

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Tubular membrane clarification equipment for the 20 m³/h chip packaging grinding wastewater project

Tubular Membrane Engineering

20 m³/h Chip Packaging Grinding Wastewater Clarification

Project scale
20 m³/h
Feed / process stream
Grinding wastewater from chip packaging
Membrane sections
PEK tubular crossflow membrane clarification → downstream reuse system

This project clarifies grinding wastewater from chip packaging at a treatment capacity of 20 m³/h. PEK tubular crossflow membranes separate silicon powder, abrasive particles and colloids from the wastewater.

This reference is for comparison; a new duty requires its own engineering validation.

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PEK tubular membrane equipment at the 3600 m³/d PCB wastewater heavy metals treatment project

Tubular Membrane Engineering

3,600 m³/d PCB Wastewater Heavy Metals Treatment Project

Project scale
3,600 m³/d
Feed / process stream
PCB manufacturing wastewater containing heavy metals
Membrane sections
Pretreatment → PEK tubular membranes → reverse osmosis → production reuse

This project treats mixed wastewater containing heavy metals from PCB manufacturing at a project scale of 3,600 m³/d. The process combines pretreatment, PEK tubular membranes and reverse osmosis, with treated water reused in production.

This reference is for comparison; a new duty requires its own engineering validation.

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1,350 m³/d steel pickling wastewater tubular membrane system

Industrial Wastewater Reuse & ZLD

1,350 m³/d Pickling Wastewater Metals & Hardness Removal

Project scale
1,350 m³/d
Feed / process stream
Steel pickling wastewater
Membrane sections
Iron-removal and softening pretreatment → PEK tubular membranes → nanofiltration salt separation → reverse osmosis concentration → evaporation and crystallization

This 1,350 m³/d steel pickling wastewater project combines iron-removal and softening pretreatment, tubular membrane separation, nanofiltration salt separation, reverse osmosis concentration, and evaporation and crystallization for water reuse and salt resource recovery.

The capacity and membrane sections document this reference only; they do not establish design or performance for a new duty.

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PEK tubular membrane and downstream system for reclaimed water and RO brine

Industrial Wastewater Reuse & ZLD

235 + 106 m³/h Reclaimed Water & RO Brine Treatment

Project scale
235 m³/h reclaimed water + 106 m³/h phase-one RO brine
Feed / process stream
Reclaimed water and phase-one RO brine
Membrane sections
Softening + PEK tubular membrane + downstream membrane interface

Manage separate reclaimed-water and RO-brine duties before project-defined reuse, fractionation, concentration, or terminal sections.

The capacity and membrane sections document this reference only; they do not establish design or performance for a new duty.

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Equipment at the 150 m³/h mine water treatment and ZLD project

Industrial Wastewater Reuse & ZLD

150 m³/h Mine Water Reuse & ZLD

Project scale
150 m³/h
Feed / process stream
Mine water and brine side streams
Membrane sections
Pretreatment + softening/tubular membrane + desalination/concentration interface

Define reuse and concentrate routes from actual mine-water chemistry and project endpoints.

The capacity and membrane sections document this reference only; they do not establish design or performance for a new duty.

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52 m³/h cooling-tower blowdown PEK and HRCC system

Industrial Wastewater Reuse & ZLD

52 m³/h Cooling-Tower Blowdown Reuse

Project scale
52 m³/h
Feed / process stream
Power-plant cooling-tower blowdown
Membrane sections
Conditioning + PEK tubular membrane + HRCC RO

Control scaling and suspended solids before project-specific desalination, reuse, and concentrate management.

The capacity and membrane sections document this reference only; they do not establish design or performance for a new duty.

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Nanofiltration equipment at the 425 plus 300 m³/d landfill leachate project

Industrial Wastewater Reuse & ZLD

425 + 300 m³/d Landfill Leachate Multistage NF

Project scale
425 m³/d leachate + 300 m³/d concentrate
Feed / process stream
Landfill leachate and concentrate streams
Membrane sections
UF + multistage NF selective fractionation

Organize selective organic/inorganic fractionation while defining every permeate and concentrate endpoint separately.

The capacity and membrane sections document this reference only; they do not establish design or performance for a new duty.

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PROJECT CONTEXT

Use references for comparison, not as a new-project guarantee