Products

Bloomsurfact™ Surfactin Sodium

    • Product Name: Bloomsurfact™ Surfactin Sodium
    • Alias: bloomsurfact-surfactin-sodium
    • Einecs: 921-473-3
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    514789

    Product Name Bloomsurfact™ Surfactin Sodium
    Chemical Formula C53H92N7O13Na
    Cas Number 247664-57-3
    Appearance White to off-white powder
    Purity ≥90% (HPLC)
    Molecular Weight 1036.3 g/mol
    Solubility Water soluble
    Source Bacillus subtilis fermentation
    Storage Temperature 2-8°C
    Surface Activity Strong biosurfactant

    As an accredited Bloomsurfact™ Surfactin Sodium factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Bloomsurfact™ Surfactin Sodium is supplied in a 10-gram, sealed amber glass vial with a tamper-evident cap and product labeling.
    Shipping **Shipping Description:** Bloomsurfact™ Surfactin Sodium is shipped in securely sealed, chemical-resistant containers to ensure product integrity and safety. Packages are clearly labeled according to regulatory guidelines. Product ships at ambient temperature with appropriate documentation, and precautions are taken to prevent exposure to moisture, extreme temperatures, or physical damage during transit.
    Storage Bloomsurfact™ Surfactin Sodium should be stored in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Keep the container tightly sealed when not in use to prevent moisture absorption and contamination. Recommended storage temperature is between 2–8°C. Ensure proper labeling and segregate from incompatible substances. Avoid excessive heat and freezing conditions.
    Application of Bloomsurfact™ Surfactin Sodium

    Applications of Bloomsurfact™ Surfactin Sodium in Industrial Manufacturing

    Bloomsurfact™ Surfactin Sodium delivers advanced performance as a high-activity biosurfactant across a range of critical industrial sectors. As a primary manufacturer, we ensure its integration strictly aligns with rigorous industry-specific compliance, process protocols, and end-use requirements.

    1. Enhanced Oil Recovery (EOR) and Petroleum Extraction

    Major upstream oil companies incorporate biosurfactants like Surfactin Sodium to improve the displacement and recovery of residual crude oil in mature reservoirs. Its low interfacial tension and superior emulsification enable efficient mobilization of trapped hydrocarbons. Real-world deployment occurs in tertiary recovery stages, mixed within water flooding formulations or microbial flooding strategies explicitly to increase sweep efficiency. Compliance with site-specific environmental and toxicity regulations remains essential, particularly where discharge or reinjection takes place. Thorough QC includes monitoring surfactant stability, reservoir compatibility, and biodegradation profiles. Long-term injection programs rely on continuous adjustment of dosage by reservoir engineers based on salinity, temperature, and crude composition.

    Industry compliance standards

    • US EPA 40 CFR Part 435 (Oil and Gas Extraction Effluent Guidelines)
    • REACH Regulation (EC) No 1907/2006 – Analytical monitoring for biodegradability and aquatic toxicity
    • OSPAR Guidelines for Use and Discharge of Offshore Chemicals (North Sea operations)
    • ISO 9001:2015 certified QC processes for surfactant consistency

    Typical usage ratio

    • 0.01–0.2 wt% in water flooding systems
    • Dosage adjusted per core flood test data and reservoir conditions (salinity, temperature, crude viscosity)

    Downstream process integration

    • Formulated at onsite mixing stations with injection water
    • Dosing control into main water injection line or microbial injection system
    • Laboratory pilot studies to optimize injection protocol and monitor surfactant loss

    Final product types

    • Enhanced crude oil yield
    • Produced water streams with reduced hydrocarbon residuals
    • Recovered hydrocarbon mixtures for primary separation

    2. Industrial Detergents for Food and Beverage Plant Cleaning

    Food-grade cleaning chemical manufacturers deploy Surfactin Sodium as an effective bio-based surface agent in formulations for CIP (clean-in-place) systems. Its strong wetting and dispersing capacity excels in removing fats, proteins, and biofilms from stainless and polymer plant equipment. All raw materials in these applications are subject to stringent food hygiene and sanitization regulations. Surfactin’s natural origin and rapid biodegradation align with sustainability initiatives within food processing sectors. Process engineers optimize dosage based on soil load and contact time, ensuring conformity with surfactant residue limits post-rinse.

    Industry compliance standards

    • EU Regulation (EC) No 1333/2008 (Food Additives—Cleaners must not contaminate food contact surfaces)
    • US FDA 21 CFR 173.315 (Chemicals Used in Washing or to Assist in the Peeling of Fruits and Vegetables)
    • NSF A1/A3 (General Cleaners for Food Plant Use)
    • ISO 22000:2018 Food Safety Management Systems

    Typical usage ratio

    • 0.05–0.5% w/w in cleaning concentrate formulations
    • Final diluted in-place rinse at 100–400 ppm depending on contamination level

    Downstream process integration

    • Incorporation into alkaline or neutral detergent tank mixes
    • Metered dosing into CIP circuits for dairy, beverage, and meat processing lines
    • QC for rinse-off, micro-residue tests, and surface compatibility

    Final product types

    • Alkaline food plant CIP detergents
    • Surface cleaners for bottling and pasteurization lines
    • Bio-based foam cleaners for protein processing facilities

    3. Pharmaceutical Formulation: Bacterial Lysis and Bioprocessing

    In industrial biotechnology, contract manufacturers use this class of biosurfactant in enzymatic processing and cell lysis steps for recombinant protein and vaccine production. Surfactin Sodium disrupts lipid membranes efficiently, aiding release of intracellular products during harvest or extraction. All procedures mandate strict cGMP compliance and full traceability from raw material sourcing to batch records. Dosing precision supports maximal product yield while reducing risk of downstream purification complexity. Validation studies confirm absence of cytotoxic residues and demonstrate removal during ultrafiltration or chromatography steps.

    Industry compliance standards

    • US FDA cGMP (21 CFR Parts 210 and 211 for finished pharmaceuticals)
    • European Pharmacopoeia 2.6.7 (Mycoplasma Testing) for biosurfactant compatibility
    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • ISO 13485 (Medical Device Quality Management Systems, where used in diagnostic kit prep)

    Typical usage ratio

    • 0.001–0.02% w/v in bioprocess buffers or cell lysis reagents
    • Adjusted per cell type and process scale, verified in preclinical process development

    Downstream process integration

    • Direct addition during lysis or harvest stage in fermenters or cell culture reactors
    • Integrated with cell disruption steps before filtration, extraction, or purification
    • Removal confirmed through downstream purification: UF/DF, chromatography, diafiltration

    Final product types

    • Therapeutic recombinant proteins
    • Bulk vaccine intermediates
    • Diagnostic enzyme and antigen concentrates

    4. Agricultural Crop Protection (Biopesticide Formulation)

    Specialty agrochemical formulators utilize Surfactin Sodium as an adjuvant and active ingredient in bio-based crop protection products. It enhances wetting, adhesion, and coverage on leaf surfaces, improving the efficacy of microbial or biochemical pesticides. Surfactin’s microbial origin supports compliance for organic farming inputs, subject to regional MRL (maximum residue level) requirements and risk assessment. Field formulations undergo rigorous stability, compatibility, and phytotoxicity evaluation prior to registration. Manufacturing facilities track compliance with residue and environmental management rules at every step.

    Industry compliance standards

    • European Regulation (EC) No 1107/2009 (Plant Protection Products)
    • US EPA FIFRA (Federal Insecticide, Fungicide, and Rodenticide Act) for inert and active ingredients
    • Organic Materials Review Institute (OMRI) for organic input eligibility
    • ISO 9001:2015 QA/QC for agricultural formulation plants

    Typical usage ratio

    • 0.1–1.0% w/w in liquid crop protection tank-mix concentrates
    • Field dilution to 100–500 mg/L spray solution depending on target pest/pathogen

    Downstream process integration

    • Formulation into aqueous or emulsifiable concentrate with active ingredient
    • Pre-mixing at agrochemical blending plants—quality testing for storage stability
    • Final adjustment in on-farm sprayer tanks immediately before application

    Final product types

    • Biofungicide and biobactericide leaf sprays
    • Organic-compliant spreaders and stickers
    • Tank-mix adjuvant products for IPM (Integrated Pest Management) programs

    5. Personal Care and Cosmetic Ingredient Manufacturing

    Major skincare and haircare producers use Surfactin Sodium within mild, natural-origin cleansing and foaming formulations, valued for its non-irritating profile and high foaming power. Ingredient selection aligns with global cosmetic and personal care product regulations, with strong attention to allergenicity and microbial quality. Surfactin supports claims for vegan, biodegradable, and low-toxicity finished goods. Cosmetic formulators run benchmark sensory and efficacy trials before scale-up, ensuring compatibility with other actives and preservatives. Stability and shelf-life evaluations confirm formulation integrity across global distribution networks.

    Industry compliance standards

    • EU Regulation (EC) No 1223/2009 on cosmetic products
    • US FDA Cosmetic Ingredient Review (CIR) safety assessments
    • ISO 22716:2007 (Cosmetic Good Manufacturing Practices)
    • Cruelty-free and allergen labeling requirements (as applicable by region)

    Typical usage ratio

    • 0.02–1.2% w/w depending on finished formulation (e.g., face wash, shampoo, cleanser)
    • Dosing fine-tuned through pilot-scale sensory and compatibility tests

    Downstream process integration

    • Pre-blending in aqueous base with other surfactants, humectants, and actives
    • Homogenization under controlled pH and temperature in batch mixers
    • Inline microbial challenge testing and preservative adjustment prior to filling

    Final product types

    • Foaming facial cleansers and micellar waters
    • Low-irritancy shampoos and scalp treatments
    • Child-safe liquid soaps and makeup removers

    Free Quote

    Competitive Bloomsurfact™ Surfactin Sodium 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 admin@ascent-chem.com.

    We will respond to you as soon as possible.

    Tel: +8615365186327

    Email: admin@ascent-chem.com

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    Certification & Compliance
    More Introduction

    Bloomsurfact™ Surfactin Sodium: Raising Standards in Biosurfactant Manufacture

    The Real Experience Behind Surfactin Sodium Production

    Launching Bloomsurfact™ Surfactin Sodium marked a milestone for our team. We have spent years in labs, scaled pilot fermenters, and poured over endless columns of chromatograms to produce biosurfactants that consistently perform in demanding applications. Surfactin Sodium is not a new name to many, but the difference shows up in how it’s manufactured and why that matters. Many markets have become flooded with chemically synthesized or diluted blends, but our Surfactin Sodium comes as a direct output of microbial fermentation—tightly monitored and stringently purified. Its core chemical fingerprint stands apart for purity, activity, and reliability.

    What You See in the Drum—And Why That Matters

    We monitor every step during fermentation using Bacillus strains selected for stable, high-yield surfactin production—not off-the-shelf, not genetically random. Downstream, our extraction uses high-efficiency filtration and ion-exchange chromatography. Every batch comes through a careful drying process. Each drum contains material that delivers surfactin content verified by HPLC—not approximated by mass or fluff-content. The powder has a light yellow-beige tone, a faint earthy aroma, and packs tight, fine particles. Pour it out, and there’s no dust storm, no clumping, and no bitterness in the air—an important detail for every operator who handles it.

    Specifications Built for Real Work

    Customers ask for high-purity surfactin sodium because that impacts downstream processing, yield, and regulatory clearance. Our typical assays run between 90-96% total surfactin content by dry weight, with sodium as the predominant cationic counterion. We maintain strict limits on protein, ash, and residual solvents. Moisture comes in below 5%. What matters to formulation chemists often comes down to solubility and dispersibility. Our Surfactin Sodium dissolves cleanly in water and most solvent mixtures used in biotech, oil recovery, cosmetics, and environmental cleanup. It carries a strong CMC (critical micelle concentration) in the low mg/L range and delivers a robust reduction in surface tension—sometimes using grams where others use tens of grams for the same result.

    Why Biosurfactants Like Surfactin Sodium Matter

    The push for greener chemicals drives real change across cleaning products, agrochemicals, and petroleum recovery. Synthetic surfactants show persistence, toxicity, or limited biodegradability. Surfactin, as a cyclic lipopeptide, offers fast degradation in soil and water, leaving low toxicity byproducts. This isn’t just lab theory. Field testing has shown Surfactin Sodium breaking oil emulsions, aiding in heavy metal remediation, and replacing hydrocarbon-based detergents in formulations that meet tough eco-label requirements. Many industrial customers report easier discharge compliance after switching from synthetics.

    Diving Into Usage: Application-Driven Results

    We see three primary drivers for Surfactin Sodium. In oilfield sectors, it enters EOR (enhanced oil recovery) and tank cleaning products. Its emulsification power lets field chemists lower their dose, reduce handling hazards, and avoid blowout residue seen with some other surfactants. Pilot runs in oil production have shown improved oil stripping from sandstone compared to rhamnolipid or synthetic alternatives, especially at higher temperatures.

    For bioremediation and soil washing projects, Surfactin Sodium shines. Heavy metal-contaminated sites, especially those polluted with cadmium, lead, or chromium, benefit from Surfactin’s chelation and solubilization properties. Operators find that extraction efficiency climbs when using our product versus simple betaines or saponins. Soil structure stays more stable, runoff rates drop, and the biosurfactant breaks down predictably under microbial action post-cleanup.

    In personal care and cosmetic development, purity makes the difference between irritation and comfort. Our production methods cut out the protein and solvent residues that can cause redness, itchiness, or off-odors. Formulators working with Bloomsurfact™ Surfactin Sodium get high foaming, gentle cleansing, and a non-stripping afterwash feel. The powder integrates quickly into cold-process emulsions and holds stability across pH 4 to 9—essential for modern ‘free-from’ claims.

    Comparisons That Matter: How Surfactin Sodium Stands Alone

    Many products labeled as ‘biosurfactant’ do not contain purified, well-characterized surfactin. We meet chemists and product engineers who find products laced with side metabolites, mixed sodium/potassium salts, or residual peptone. The result is often inconsistent results, odor, and poor solution clarity. Our Surfactin Sodium undergoes fractionation steps that remove pigment and protein traces and keep the sodium ion content in narrow range. This attention reflects our background—engineering teams drive process optimization for every batch, not just a single run for certification.

    Compared to synthetic surfactants, Surfactin Sodium delivers lower aquatic toxicity, strong surface and interfacial tension reduction, and natural biodegradability. It doesn’t bring the same legacy issues seen with alkylbenzene sulfonates or alkyl polyglucosides. From an operator’s standpoint, the handling is easier—dry, non-caking powder, fast to dissolve, no special HAZMAT logistics required. In tank mixing, it holds clarity and foams steadily, making it reliable for automated dosing systems.

    Quality Control: The Hidden Work That Makes a Difference

    Lab analysis forms the backbone with every shipment. Every day, we take samples at critical control points: post-fermentation, after primary extraction, post-purification, and at final drying. We measure surfactin purity by HPLC, sodium by ICP, residual protein by BCA assay, moisture by loss-on-drying, and even color by HunterLab colorimeter. That work makes each lot traceable. If there’s a spike in protein or a shift in sodium, we don’t ship the material. Our plant staff run hands-on checks—pour, moisture check, flowability—before anything goes to the dock for loading.

    We build transparency across our documentation. Customers receive certificates with every drum, including full chromatograms, not just summary numbers. We maintain trend records so recurring issues never go undetected. Many companies outsource core QC steps or run only end-point tests. We believe spotting issues during mainline processing, not just at packing, produces consistent material, preserving customer trust.

    Supporting Claims with Real Numbers

    The surface tension of water drops from 72 mN/m to less than 30 mN/m with our Surfactin Sodium at concentrations below 40 mg/L. Emulsification indexes often surpass 60% when tested with common hydrocarbons, outperforming some synthetic and semi-synthetic surfactants. Biodegradation rates exceed 98% in standard OECD 301F protocol runs, and aquatic toxicity testing with Daphnia show values below regulatory concern for both acute and chronic exposure. Many users report that foam profile holds stable across both single-use and repeated use cycles.

    We keep every process step energy-lean to lower carbon output—the fermenters run at optimized conditions to reduce waste, and solvent usage in purification stays in tight feedback loops, with closed recycling. Water use follows similar paths—spent broth goes into on-site treatment, not uncontrolled flows. This kind of operational care lowers risk and builds credibility when downstream users pursue eco-labels or hazard-free product lines.

    Addressing Common Challenges

    Production at scale always brings surprises. During the ramp-up phase, biofilm management in fermenters challenged our team—excessive biofilm led to blockages, inconsistent yields, and affected powder hydration rates. Tweaking aeration, impeller configurations, and strain selection tightened yield and quality over time. Post-extraction, we faced the issue of residual pigment—solvents alone couldn’t fully resolve it, so we incorporated food-grade activated carbon steps without introducing flavor or extraneous particulate.

    End-users frequently ask about compatibility with other formulation components, from chelators in cleaners to preservatives in cosmetics. Surfactin Sodium shows excellent synergies with standard anionic and nonionic surfactants, but interactions with cationics can drop performance without careful buffering. Our lab regularly runs panel tests with common actives so that we can help troubleshoot before a customer runs a thousand-liter batch and encounters precipitation or haze.

    Looking at Sustainable Future Development

    Sourcing renewable feedstock for fermentation sits high on our agenda. Our supply chain relies on agricultural byproducts—corn steep, molasses, or spent yeast—rather than primary crops. That supports waste valorization and lowers land-use pressure. Strain development remains ongoing; we focus on stability and yield but won’t deploy gene editing that could trigger regulatory or consumer resistance. Process improvements keep energy draw and water use low so Surfactin Sodium’s green credentials aren’t hobbled by hidden resource footprints.

    Reusability matters, too. In environmental cleanups, once the initial product dose has acted, post-process breakdown must remain predictable. Surfactin Sodium leaves low levels of biodegradable fragments, and we conduct periodic wastewater testing post-project. We want to support users and regulators with factual biotransformation data, not just claims.

    Direct Connections With Customers

    From the start, we have worked closely with customers—not just through salespeople, but via direct conversations between our technical staff and your chemists. Many users show us their process diagrams, share real-life hang-ups, even send us product samples for analysis. Those exchanges fuel the process improvements that keep our Surfactin Sodium reliable, batch to batch, and drive us to share findings—good and bad—in real language, not vague promises.

    User feedback has prompted us to tighten fine powder fractions to reduce clumping during rainy season deliveries, alter drum liner materials for better pouring, and adjust particle size distributions after learning that certain filter presses jammed at lower bulk densities. We answer customer requests for custom blending, but always tell the truth about feasibility, timelines, and cost impact. This honesty builds long-term partnerships.

    Navigating Regulatory and Market Demands

    The regulatory scene evolves fast, especially for biosurfactants used in environmental cleanup or personal care. Agencies want deeper documentation of toxicity, environmental fate, and allergenicity. We keep detailed batch records and regularly submit pilot samples for third-party verification. Some big end-users want full ingredient disclosure—our data supports label claims about absence of GMOs, animal-sourced ingredients, and allergenic impurities.

    Market trends shift—years ago, the bulk of Surfactin Sodium demand centered on oilfield and remediation. These days, interest from food-contact packaging, biodegradable plastics, and even pharmaceutical excipient development is rising. Our scale, process control, and direct customer feedback loop let us adapt quickly without losing quality.

    Closing Thoughts on Industry Direction

    Biosurfactants are more than a niche play—they look set to replace persistent and toxic chemicals across industries. Still, reliable supply, traceability, and performance comprise the foundation. A biosurfactant’s value comes back to its utility in the field or plant—not just lab data or green promises. We shape our approach based on the reality of hands-on production, end-user stories, and the details that make all the difference, from feedstock procurement to the post-delivery customer email.

    For everyone reaching for cleaner chemistry, functional reliability, and genuine transparency, we stand accountable for every drum of Bloomsurfact™ Surfactin Sodium that leaves our factory. The job doesn’t end with a sale—it keeps evolving through science, dialogue, and hard-earned experience.

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