
Food & Beverage
Membrane filtration upgrades traditional juice processing by reducing reliance on filter aids while helping remove bacteria, microorganisms and turbidity.

Kaimi membrane solutions serve food and beverage, fermentation, biopharma, chemical processing, industrial reuse, decentralized treatment, municipal reuse and landfill leachate treatment.
Application groups cluster similar treatment and separation scenarios so non-technical buyers and engineers can begin from outcomes instead of model names.
For new wastewater reuse or process separation projects, a short discovery exchange usually clarifies which product family and verification path should come next.
Each industry group introduces the process challenge, suitable membrane route and related application tracks.

Membrane filtration upgrades traditional juice processing by reducing reliance on filter aids while helping remove bacteria, microorganisms and turbidity.

Fermentation broth is described as a complex mixture of organisms, soluble molecules, electrolytes, proteins, polysaccharides, enzymes, sugars and organic acids, requiring clarification and purification steps.

Biopharma and herbal extraction content focuses on removing fine dregs, sediment, bacteria, starch, resins and oils while protecting active ingredients and improving operating conditions.

Chemical applications include brine refining, waste alkali recovery and ultrafine powder production. The brine refining page highlights tubular and nanofiltration membranes for sulfate reduction.

The industrial wastewater category covers high-value reuse scenarios including petrochemical wastewater, produced water, oily wastewater, textile dyeing, electroplating, ink and electronic wastewater.

The decentralized page describes integrated point-source sewage treatment for 100-20000 m3/d, suited to urban sewage, rural sewage, river purification, point source sewage and emergency wastewater treatment.

Kaimi's municipal content highlights membrane filtration as state-of-the-art technology for clean water production and advanced municipal and industrial wastewater treatment.

Landfill leachate is high-concentration organic wastewater with complex constituents and variable quality. Combined physicochemical and biological membrane treatment provides a practical treatment route.
The content below follows the application hierarchy, with each scenario connected to treatment challenges, membrane route and recommended products.

Tubular membrane filtration helps clarify fruit juice by removing turbidity, bacteria, pectin and crude protein while retaining color, aroma and nutrients.
Traditional juice processing often relies on coarse filtration, finishing filtration, centrifuges, filter aids and clarifying agents. The process can be complicated, operating cost can be high and shelf life may be limited.
Kaimi applies sanitary tubular membrane systems to apple, pear, peach, orange, lemon, cherry, pomegranate, cranberry and other juice clarification and concentration lines.






Membrane separation supports dairy whey clarification and concentration, helping recover valuable protein and lactose fractions before downstream processing.
Whey streams contain fine suspended matter, protein, salts and organic content. Conventional concentration can be energy intensive when evaporation carries too much of the load.
Spiral and tubular membrane routes can be configured for whey pretreatment, concentration and process water recovery depending on feed condition and solids load.




Protein concentration applications use membrane selectivity to separate target macromolecules from water, salts and low molecular weight components.
Protein liquids are sensitive to heat and fouling. A separation route must protect activity, manage viscosity and keep cleaning cycles predictable.
Kaimi membrane modules can be selected by feed solids, viscosity, target cut-off and cleaning requirement to support protein enrichment and purification.





Polysaccharide extraction benefits from membrane clarification, impurity removal and staged concentration after extraction.
Extract streams can contain suspended residue, colloids, pigments and soluble impurities that make downstream concentration and drying less efficient.
Tubular, ceramic or spiral membranes can be arranged as clarification and concentration stages to stabilize the process before refining.





Tea extract processing uses membrane filtration for clarification, impurity removal and concentration while reducing harsh thermal exposure.
Tea extract can contain fine suspended solids, colloids and color-forming impurities that affect stability, appearance and downstream concentration.
Kaimi membrane systems provide a physical separation route for tea beverage, instant tea and extract processing lines.





Membrane clarification separates cells, proteins, polysaccharides and insoluble impurities from lysine fermentation broth before refining.
Fermentation broth is a complex mixture of microorganisms, soluble molecules, electrolytes, enzymes, sugars and organic acids, making stable clarification essential.
Ceramic and tubular membrane systems provide crossflow clarification to improve downstream ion exchange, concentration and crystallization conditions.





Threonine broth clarification uses membrane separation to remove biomass and colloidal impurities while protecting soluble product streams.
Traditional clarification may require multiple pretreatment steps and large filter-aid consumption when broth composition varies.
Kaimi crossflow membrane modules keep solids moving through the channel, supporting higher solids tolerance and repeatable cleaning.





Glutamic fermentation clarification targets stable separation of cell debris and macromolecular impurities before concentration and conversion.
Broth viscosity, fine particles and organic loading can challenge conventional filtration and increase replacement or cleaning frequency.
A ceramic or tubular crossflow system can be selected by operating temperature, pH, solids content and cleaning requirement.





Membrane processes help clarify herbal medicine extracts by removing fine dregs, sediment, bacteria, starch, resins and oils while protecting active ingredients.
Herbal extracts are compositionally complex and can create heavy load on settling, centrifugation, resin and evaporation sections.
Kaimi configures ceramic, tubular and spiral membranes as clarification, purification and concentration stages for herbal extraction lines.





Antibiotic production uses membrane separation for broth clarification, impurity reduction and product concentration before refining.
Fine solids, proteins and colloids can affect extraction efficiency and create unstable downstream operating conditions.
Membrane modules can be staged with existing fermentation and refining equipment to reduce impurity load and improve product stream consistency.





E. coli extraction applications use membrane separation to support cell harvesting, clarification and impurity control in biological production.
Cell-rich streams require careful separation to avoid excessive shear, blockage and inconsistent filtrate quality.
Crossflow membrane equipment helps manage biomass streams and creates a clearer route into downstream extraction or purification.





Brine refining uses membrane treatment to remove sulfate and suspended impurities from salt-containing streams before chemical production.
Brine wells can contain significant salt and sulfate levels, while chemical production routes may require sulfate reduction and stable pretreatment.
Tubular and nanofiltration membrane stages can be combined to reduce sulfate and improve the quality of feed brine.





Waste alkali recovery applications use acid and alkali resistant membrane systems to separate recoverable caustic from suspended and organic impurities.
Alkaline waste streams can be corrosive, high in suspended solids and costly to neutralize or discharge without recovery.
Kaimi braced and tubular membrane systems support caustic cleaning and recovery routes with broad pH tolerance.





Membrane filtration supports ultrafine powder production by classifying, washing and concentrating fine-particle suspensions.
Fine powder suspensions can cause severe fouling and difficult solid-liquid separation when particle size distribution is narrow.
Ceramic and tubular membrane channels can be selected for abrasion resistance, cleaning tolerance and slurry circulation.



Petroleum and coal chemical wastewater treatment focuses on high-COD, high-salt and difficult-to-degrade streams that require robust pretreatment and reuse pathways.
Oily components, suspended solids, phenols, salts and fluctuating loads can destabilize biological and polishing sections.
Kaimi combines tubular, hollow fiber and system equipment to remove solids, protect downstream units and support reuse or advanced treatment.



Produced water treatment targets oil, suspended solids and salinity-related operating challenges in oil and gas field water management.
Produced water quality fluctuates by field and operating stage, making compact, stable and maintainable treatment routes important.
Containerized and membrane-based systems can be configured for mobile treatment, reuse preparation or discharge polishing.



Emulsified oily wastewater treatment uses membrane separation to break through the limits of gravity separation and conventional oil-water separation.
Stable emulsions, surfactants and fine droplets can pass through ordinary separation equipment and overload downstream treatment.
Tubular and ceramic membrane systems provide crossflow filtration for oil, suspended matter and colloidal impurity removal.


Textile dyeing wastewater treatment addresses color, salt, COD and suspended impurities for reuse and advanced discharge requirements.
Dyeing wastewater often has strong color, variable chemistry and high conductivity, creating pressure on conventional biochemical treatment.
Membrane systems can be integrated as advanced treatment, reuse preparation and concentration stages after primary treatment.



Electroplating wastewater treatment uses membrane separation to support heavy-metal wastewater reuse, concentration and polishing routes.
Metal ions, suspended solids, surfactants and changing bath chemistry require stable pretreatment and recovery-oriented process design.
Ceramic, tubular and spiral membrane systems can be selected according to pH, oxidant tolerance and target recovery path.



Ink wastewater treatment removes pigment, resin, suspended solids and organic load from difficult printing and ink production wastewater.
Pigment particles and resin components can create heavy color and fouling, while wastewater quality changes by formulation.
Open-channel tubular and ceramic membranes help separate suspended pigments and protect downstream treatment or reuse systems.



Electronic wastewater treatment focuses on precision polishing, suspended solid removal and reuse preparation for electronics manufacturing water systems.
Electronics wastewater may include fine particles, cleaning chemicals, metals and high purity reuse requirements.
Membrane treatment can be used as pretreatment, advanced polishing or reuse preparation depending on the wastewater segment.


Integrated decentralized sewage treatment is designed for point-source sewage from 100-20000 m3/d, including urban sewage, rural sewage, river purification and emergency treatment.
Decentralized sites often need fast deployment, limited footprint, simple operation and stable effluent without large civil construction.
Kaimi packages membrane and biofilm treatment into modular systems using submerged hollow fiber MBR, FBBR and intelligent operating controls.


Municipal wastewater treatment and reuse applies membrane filtration for clean water production, advanced sewage treatment and higher effluent quality.
Municipal plants face space limits, stricter discharge standards, reuse demand and variable influent quality.
Kaimi hollow fiber MBR and ceramic membrane equipment can be integrated into new plants, upgrades and advanced treatment systems.


Landfill leachate treatment addresses high-concentration organic wastewater with complex constituents, large water-quality variation and high treatment difficulty.
Leachate often contains high COD, ammonia nitrogen, salts, suspended matter and refractory organic substances, requiring strong pretreatment and membrane stability.
External tubular MBR and combined physicochemical-biological membrane routes help retain sludge, reduce blockage and improve system reliability.
