Filtration, membrane separation, disinfection, softening, storage and clean-in-place. Sized from your laboratory water analysis and matched to filler consumption with headroom for CIP.
Water treatment is the first stage of every beverage line and the one that constrains everything downstream. Undersized treatment limits filler output; the wrong process gives water that fails product standards no matter how good the filler is. We size this section from a laboratory analysis of your actual source water, then match its hourly capacity to the filler with headroom for CIP and peak demand.
Electrodeionization(EDI) is usually considered as a water treatment technology that utilizes an electrode to ionize water molecules and separate dissolved ions (impurities) from water. The main difference from other water purification technologies is that it i...
Pressure-driven membrane separation for beverage plants. When system pressure exceeds the osmotic pressure of the feed water, water molecules pass through the membrane while ions, organic matter, bacteria and viruses are retained and flushed to drain. Configur...
Cleans and sterilizes tanks, pipework and equipment in circulation without disassembly. A heat exchanger heats the cleaning solution to process temperature, and acid, alkali and heat act together as the pump flushes the circuit at high pressure.
Built to ASME BPE biotech equipment standards and food container standard QB/T2681-2004. Specialist polishing keeps surface roughness below Ra 0.8 μm. Available in 304 or 316L, upright or horizontal, and designed to the customer's actual requirement. Our Stain...
A strong oxidant and disinfectant that reacts quickly, leaves no persistent residue and causes no secondary pollution. Performance is best between pH 5.6 and 9.8 at water temperatures of 0–27°C. Ozone is generated from air or oxygen by high-frequency disc
Chemical-free microbial control for drinking water, purified water, beverage process water and pharmaceutical water, as well as circulating and reclaimed water systems. Adds no taste, odour or by-products.
Anion and cation resins replace one or more ions in the water to reduce hardness and achieve desalination, used where source hardness would otherwise scale downstream membranes and heat exchangers.
Membrane Module The membrane module imported from the US: Premium qualities, longer life span Quality product water, high water flux The module is the key part of instruments for brackish water treating, ultra-pure water, drinking purifies water, food
Nanofiltration System Nanofiltration is a relatively recent membrane filtration process used most often with low total dissolved solids water such as surface water and fresh groundwater, with the purpose of softening (polyvalent cation removal) and removal of ...
A purely physical separation process needing no additional pretreatment. The rolled membrane structure is solid and leak-resistant, with PES membranes offering high chemical stability and broad CIP tolerance for full performance recovery after cleaning.
Ultrafiltration can intercepts macromolecules and impurities between 0.002 and 0.1 micron. Small molecules and dissolved inorganic salts pass through, while colloids, proteins, microorganisms and macromolecular organics are retained.
Pressure-driven membrane separation for beverage plants. Water molecules pass through the membrane while ions, organic matter, bacteria and viruses are retained and flushed to drain. Configured from your raw-water analysis rather than a fixed model.
The cylinder shell are generally made of stainless steel, inside we use PP melt-blowing, wire burning, folding, titanium filter, activated carbon filters and other tubular filter as a filter elements, and depends on the different filter media and design proces...
These two types of filter adopt different types of filtering media (Quartz Sand, Manganese, Magnetite, Anthracite and Activated Carbon) to treat raw water to effectively purify and remove suspended solid pollutants, residual CL-, impurities, and organics
Layered quartz sand and manganese sand media intercept colloids, suspended solids and other impurities using the pores between filter beds. Low investment cost, simple operation and easy maintenance make it the standard first stage.
Water treatment is not a shopping list. Each stage exists to protect the next one, and the sequence is decided by what is actually in your source water.
Turbidity, hardness, total dissolved solids, iron, manganese, chloride and microbiological counts each pull the design in a different direction. A recent analysis of the actual source — not a regional average — is the single document that makes an accurate proposal possible.
Purified water needs reverse osmosis. Natural mineral water must retain its dissolved minerals, so ultrafiltration is used instead and RO would actually put the product out of standard. Buying the "strongest" process can be the wrong process.
Treated-water output must exceed the filler's hourly consumption, with margin for CIP cycles, membrane flushing and peak demand. Sizing treatment exactly to filler speed means the line runs dry during cleaning.
Multi-media and activated carbon filtration and precision cartridges exist to keep suspended solids and residual chlorine away from RO and UF membranes. Skipping pretreatment to save capital cost shortens membrane life and raises operating cost permanently.
UV is chemical-free and leaves nothing behind. Ozone gives residual protection in the tank and bottle but requires bromate control where the source contains bromide. Many plants use both at different points in the circuit.
SUS304 covers most beverage applications. SUS316L is specified where chloride content, hygiene standard or an export market's process requirement calls for it. Changing material after fabrication starts is expensive.
| Process | Removes | Retains minerals | Typical use | Pretreatment needed |
|---|---|---|---|---|
| Reverse osmosis | Dissolved salts, organics, bacteria, viruses | No | Purified bottled water, process water | Yes — carbon + precision filtration |
| Ultrafiltration | Colloids, proteins, microorganisms, macromolecules | Yes | Natural mineral and spring water | Light — media filtration |
| Nanofiltration | Multivalent cations, DBPs, organic compounds | Partly | Softening surface and groundwater | Yes |
| Ion exchange | Hardness ions, dissolved salts | No | Softening ahead of membranes or boilers | Light |
Specific to this equipment category. Line-level questions are answered on the solution pages.
Ask Our EngineersA recent raw-water analysis, the treated-water quality you need to reach, hourly capacity, daily operating hours, target recovery rate, destination country and the utilities available on site. Without the analysis, any proposal is an estimate.
Yes. The system is engineered with treated-water storage, distribution pipework, disinfection and controls so it can be tied into existing beverage processing or filling equipment, provided capacity and connection points are confirmed first.
Either. Material is selected according to water chemistry, hygiene requirement, process standard and project budget. SUS304 covers most beverage applications; SUS316L is specified where chloride content or the market's process standard requires it.
Many plants use both at different points. UV is typically installed inline before filling for chemical-free control, while ozone provides residual protection in the storage tank and finished bottle. Where the source contains bromide, ozone dosing must be managed for bromate control.
More than the filler consumes. Allowance is needed for CIP cycles, membrane flushing, product changeover and peak demand, so treatment is normally sized above nominal filler consumption rather than matched exactly to it.
