|
HS Code |
202971 |
| Product Name | Organic Matter Specific Membrane Cleaner |
| Form | Liquid |
| Color | Clear |
| Ph Range | 10.5-11.5 |
| Application | Membrane cleaning |
| Compatibility | RO, UF, NF membranes |
| Removes | Organic fouling |
| Solubility In Water | Completely soluble |
| Dosage Rate | 2-4% solution |
| Shelf Life | 2 years |
As an accredited Organic Matter Specific Membrane Cleaner factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White 5-liter plastic drum with blue screw cap, labeled "Organic Matter Specific Membrane Cleaner." Includes safety icons, usage instructions, and batch code. |
| Shipping | The shipping of **Organic Matter Specific Membrane Cleaner** requires secure, tightly sealed containers, compliant with relevant chemical transport regulations. Packages should be clearly labeled, kept upright, and protected from extreme temperatures and direct sunlight. Ensure compatibility with other cargo, consult the Safety Data Sheet (SDS), and follow all regional hazardous material shipping guidelines. |
| Storage | Organic Matter Specific Membrane Cleaner should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Keep the container tightly closed when not in use and store it separately from incompatible substances such as strong oxidizers and acids. Ensure proper labeling, and use secondary containment to prevent spills or leaks. Store out of reach of unauthorized personnel. |
|
Purity 99%: Organic Matter Specific Membrane Cleaner Purity 99% is used in ultrafiltration systems, where it ensures high-level removal of organic fouling and restores membrane flux efficiently. pH 10: Organic Matter Specific Membrane Cleaner pH 10 is applied in municipal wastewater treatment units, where it enhances organic matter solubilization and prolongs membrane lifespan. Viscosity 45 cP: Organic Matter Specific Membrane Cleaner Viscosity 45 cP is used in RO plants, where it provides uniform membrane coverage and thorough contaminant penetration. Stability Temperature 70°C: Organic Matter Specific Membrane Cleaner Stability Temperature 70°C is utilized in industrial CIP cycles, where it maintains effective cleaning under elevated temperature operations. Molecular Weight 320 Da: Organic Matter Specific Membrane Cleaner Molecular Weight 320 Da is used in food and beverage membrane filtration, where it achieves deep pore cleaning and minimizes residual buildup. Solubility in Water >95%: Organic Matter Specific Membrane Cleaner Solubility in Water >95% is used in dairy membrane modules, where it guarantees rapid solution preparation and complete dispersal of cleaning agents. Degradation Rate 98%: Organic Matter Specific Membrane Cleaner Degradation Rate 98% is utilized in environmentally sensitive membrane pools, where it offers effective cleaning with minimal ecological impact. Foaming Tendency Low: Organic Matter Specific Membrane Cleaner Foaming Tendency Low is used in automated membrane cleaning systems, where it prevents excessive foam generation and ensures smooth system operation. Compatible Material Range PVDF/PTFE: Organic Matter Specific Membrane Cleaner Compatible Material Range PVDF/PTFE is employed in diverse membrane bioreactor applications, where it safely cleans without damaging membrane integrity. Contact Time 30 minutes: Organic Matter Specific Membrane Cleaner Contact Time 30 minutes is used in high-frequency cleaning protocols, where it achieves rapid and consistent organic matter removal. |
Competitive Organic Matter Specific Membrane Cleaner prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to sales3@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: sales3@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Years of running production lines for specialty chemicals have shown us the unique burdens that organic fouling places on membranes across industries. Whether the source is dairy processing, food, pharmaceuticals, or municipal wastewater, organic build-up differs from scale or metal fouling—it clings, it is stubborn, and the results are often a sharp decline in flux and system performance. Relying on generic cleaners always came with headaches: partial cleanings, unpredictable results, and frequent shutdowns for repeat treatments. This experience gave us the drive to develop a solution that actually targets the problem, not just the symptoms.
As direct manufacturers, we spent years refining our Organic Matter Specific Membrane Cleaner. We understood from the start that hitting every foulant with the same blend did not work. Protein layers, fats, polysaccharides—each requires a tailored balance. Harsh oxidizers strip some deposits but also degrade sensitive membranes. Alkaline blends work against grease, but struggle on protein gels. The challenge pushed us to isolate combinations that truly break down complex organic fouling while protecting sensitive membrane layers, from RO and NF to UF setups.
Our model, the OMSC-3080, reflects a decade of precise engineering. Each batch draws on consistent sourcing and strict quality assurance. Unlike many blended cleaners, we manufacture each component at our own facility, maintaining full traceability from raw ingredient to final product.
OMSC-3080 comes as a concentrated liquid. We supply it in 25 kg or 200 kg drums, filtered down to sub-micron levels at packaging. Since organic fouling varies dramatically from one site to another—from dairy UF hollow fibers, to large-scale municipal MBR flat sheets—we work closely with operators and engineers to establish ideal working dilutions. On most systems in food or biotech, operators see best flux recovery at concentrations between 2% and 6%, applied for 30-90 minutes depending on severity. For continuous inline systems, we have guidance on low-foam use that does not interfere with downstream sensors or critical process controls.
We publish independent data on compatibility: no damage to PA, PES, PVDF, or CA membranes under prescribed use conditions. Years of post-cleaning membrane autopsies and SEM imaging show that functional layers remain intact. No cumulative loss has occurred from repeated cycles at correct temperature and contact times, provided users flush completely before reintroducing product water.
We do not believe in one-size-fits-all approaches. This cleaner does not simply mask symptoms or apply broad-spectrum chemicals that degrade the membrane along with the foulant. It carries high concentrations of nonionic and amphoteric surfactants that penetrate hydrophobic organic layers. These surfactants act as disruptors—unwinding, emulsifying, breaking the surface tension that holds protein and lipid structures together. Natural enzyme analogs foster chain cleavage at the micro level, which helps break down sticky polysaccharide networks and biofilm matrices. The approach is practical, rooted in process chemistry: if you cannot break the tenacious bonds in these organic foulants, you end up cycling back to square one after a short-lived performance spike.
From our troubleshooting records, repeated cleans with oxidizers or even strong alkalis frequently result in brittle or pitted active layers. OMSC-3080 is formulated with stabilizers and corrosion inhibitors that protect every stack component in your system—seals, adhesives, as well as permeate piping and housings. We have seen that avoiding pH spikes and aggressive solvents considerably reduces maintenance incidents, extends membrane lifespan, and lets operators rely on predictive maintenance schedules, rather than reactive crisis management.
We know process environments rarely follow textbook examples. Feed water composition changes with season, raw material variability, or upstream process adjustments can cause wild swings in fouling rates. Our team works directly with plant operators, providing practical guidelines for cleaner rotation, dosage adjustment, and sequence planning. With OMSC-3080, most plants have eliminated secondary rinses and aggressive acid cycles after routine organic cleanings, because the cleaner does not lock in calcium or precipitate minerals that complicate downstream treatment.
On dairy lines, post-milk and whey processing, crews used to spend half their downtime maintaining flux through endless combinations of caustics and oxidizers. Improved cleaning with OMSC-3080 led to fewer off-spec permeate alarms and a sharp drop in unscheduled membrane replacements. The product rinses freely with plain water and does not contribute to foam or odor during handling. On high-value pharma lines, where membrane failure risks entire lots, responsible cleaning protects not only components but also batch integrity and certification.
After dozens of on-site trials and rigorous QC sampling, we established strict controls over microbial contamination. Our cleaner contains no broad-spectrum antimicrobials that risk downstream contamination or adverse reactions in sensitive bioprocesses. Low-chloride and phosphate-free blending prevents bioburden in critical food and pharmaceutical filtrations. This attention to detail is borne from our own factory experiences—if the facility’s process water is only as good as its weakest cleaning protocol, everything downstream is at risk.
Too many operators fall into the trap of alternating between basic alkali, acid, or chlorine treatments and wondering why chronic fouling persists. Each tool has its place, yet generic cleaners frequently fail to penetrate dense organic matrices. We have evaluated numerous commercial blends from both local and international vendors. Across comparative trials, general-purpose alkaline products removed less than half of the bound organic layer, based on SEM imaging and flux recovery. Some one-pot enzyme cleaners improved surface deposit removal, but lacked the surfactant blend to disperse the released organic material, causing redeposition further downstream.
OSMC-3080 leverages real-world, on-site diagnostics, not idealized lab conditions. We record and share data from plants that report 15–30% flux recovery above baseline versus previous generic protocols. In membrane bioreactors handling slaughterhouse effluents, full restoration after every third CIP cycle delivered a measurable drop in energy use, reflecting reduced pump loads. These are not isolated results, but patterns confirmed under continuous industrial operation.
The chief difference comes from targeting, not overkill. Instead of raising pH and relying on brute force, we exploit molecular recognition principles—hydrophilic/hydrophobic balance, specific binder pairs to disrupt foulant layers without stripping membrane surfaces or damaging adhesives. The result: fewer surprises, less membrane dropout, and a stable system trajectory that operators can count on for months instead of weeks.
As a manufacturer, we maintain our own pilot filtration systems, running daily with real industry feeds—skim milk, brewery filtrate, textile plant effluent, and high-strength pharma waste. Direct experience with stubborn organic fouling led us to reject off-the-shelf recipes. We test each new batch of OMSC-3080 under harsh conditions before any customer shipment leaves our gate.
We pull our cleaning protocol from day-to-day operations. The cleaning cycle does not leave residue, even at twice-standard doses. Safety during handling is a core factory value: no harmful VOC emissions under ordinary use, and every drum carries a full CoA with trace metal limits for industries where that matters. We do not cut corners by outsourcing key chemistry—every process step, from neutralization blend through final QC, runs in-house.
Training and technical support reflects our background as operators, not middlemen. Our chemists and engineers monitor feedback from installations and modify recommendations as fouling patterns change. After switching high-residue bottling plants from their legacy cleaner to OMSC-3080, real-time pressure delta tracking showed a 50% drop in spikes during high-load periods, eliminating repeated manual interventions.
Customers point to consistent rinsing profiles, stable system pH, and a lack of characteristic cleaner odors as primary benefits. Those improvements do not stem from a single ingredient or a secret additive. They come from persistent research and frank conversations with users who need predictable performance with every batch.
From our own manufacturing line, constant CIP cycles dominated by stop-start downtime eat away at throughput and operational margins. Membrane element replacement is costly, but the real cost builds from missed cycles, lost production, and increased labor hours.
Adopting a specialized organic matter cleaner means fewer repeat cleans, better flux, and extended membrane lifespan. This does not result from branding, but from an empirical approach: measure, test, and adapt based on what real-world systems reveal. We use detailed, batch-by-batch tracking to hone concentrations and cleaning cycles. Practical use on our in-house pilots consistently shows time savings on every turnover, more product to market, and reduced chemical spend from not overusing caustic or acid.
The financial impact extends well past chemical purchasing. Reduced need for unplanned line stoppages, less frequent element swaps, and minimal unexpected maintenance mean stronger operational reliability. Out in the field—whether a cheese factory or a city water plant—operators relate to these gains, because they translate directly to production targets and audit success.
We recognize broader trends shaping the future of cleaning chemicals. Tougher environmental discharge rules call for greener solutions. We designed OMSC-3080 with no regulated persistent organics and minimized phosphorus, helping users stay below local discharge thresholds after ordinary rinse cycles.
Manufacturing the cleaner in closed-loop, solvent-free systems limits waste and keeps workplace exposures far below occupational thresholds. Each shipment comes with verified batch data on surfactant and ingredient levels.
Wastewater plants benefit from ingredient transparency, especially where clean-in-place waste goes straight to biological treatment. Several municipal installations observed secondary sludge handling improved due to lower residual surfactants and no increase in total organic load. We meet the same requirements for food and beverage processors who undergo third-party audits—every ingredient and its origin disclosed, batch reports available for inspector review.
Operator safety extends to every facet: no added perfumes, no harsh dehydrating agents, and in-plant monitoring for accidental splash or fume exposure. Factories using the cleaner in automated systems flag improved air quality and fewer skin and eye complaints versus prior protocols. It reflects our commitment to sustained improvement, not just regulatory box-ticking.
Every installation teaches us. Dairy plants shared raw data from pressure, flow, and residue monitoring before and after adoption. We fed this information back into product development, optimizing surfactant structure for faster rinseout and improved phase separation of emulsified organic material. Municipal operators noted how OMSC-3080 left less residue than previous cleaners, avoiding downstream filter blocking and secondary fouling.
We keep lines open with end users—questions about mixing, concerns over supply reliability, requests for technical datasheets, and feedback about dilution practices all become part of our own internal training. Unlike a distributor, every challenge in the field circles back to our lab. We host regular workshops, invite site operators to tour our own pilot facilities, and publish results in technical journals and at industry conferences.
Working side by side with users means faster adaptation to emerging fouling types, from changes in raw feed water to tighter effluent restrictions. The cleaner is not frozen in time. Every batch draws from real feedback and ongoing research. Customers get more than a packaged solution; they become partners in product development.
The battle against organic fouling never stays static. Ingredients in upstream processes evolve, climate fluctuations shift feed characteristics, and industry standards move forward. As direct producers, we never stop seeking better answers.
The lessons learned manufacturing OMSC-3080 guide every process improvement across our facility. This spans process control, waste recovery, and worker safety. We invest heavily in analytical tools—HPLC, SEM-EDS, surface tension analytics—to remain at the forefront of membrane cleaning technology.
We view each partnership as a two-way street. Customers benefit from our manufacturing know-how and hands-on industry experience. We, in turn, advance by observing how the cleaner performs in diverse conditions, then returning to the drawing board with fresh data.
Organic fouling remains the major challenge for membrane processes around the world. Our commitment as a manufacturer does not end at shipping a drum. It extends through every install, every cleaning cycle, every phone call. OMSC-3080 grew out of our efforts to solve stubborn real-world issues, and each day in the field continues to shape its future.