|
HS Code |
274489 |
| Product Name | Spore Lactic Acid Bacteria |
| Type | Probiotic supplement |
| Main Ingredient | Bacillus coagulans spores |
| Form | Powder |
| Appearance | White to off-white powder |
| Odor | Slightly characteristic |
| Solubility | Partially soluble in water |
| Viable Spore Count | ≥1x10^9 CFU/g |
| Shelf Life | 24 months |
| Storage Condition | Cool, dry place |
| Application | Food and feed additive |
| Function | Supports gut health |
| Allergen Status | Non-allergenic |
| Heat Resistance | High |
| Ph Tolerance | Tolerant to low pH |
As an accredited Spore Lactic Acid Bacteria factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic bottle with a blue screw cap, labeled “Spore Lactic Acid Bacteria, 100g,” featuring clear usage and safety instructions. |
| Shipping | Spore Lactic Acid Bacteria should be shipped in sealed, moisture-proof containers, protected from direct sunlight, heat, and humidity. Transport at cool temperatures is recommended to maintain viability, ideally using insulated packaging or cold packs if required. Handle gently to prevent damage, and clearly label with handling and storage instructions. |
| Storage | Spore Lactic Acid Bacteria should be stored in a cool, dry place, ideally at temperatures below 8°C. Keep the product tightly sealed in its original packaging to protect it from moisture, heat, and direct sunlight. Avoid repeated temperature fluctuations and exposure to air to maintain viability and effectiveness. For long-term storage, refrigeration is recommended to preserve microbial stability. |
| Purity 99%: Spore Lactic Acid Bacteria with purity 99% is used in probiotic food supplementation, where it ensures high viability and rapid colonization of beneficial microbes. Stability Temperature 80°C: Spore Lactic Acid Bacteria with stability up to 80°C is used in heat-processed beverages, where it maintains cell integrity and functional efficacy during pasteurization. Viable Cell Count ≥10⁹ CFU/g: Spore Lactic Acid Bacteria with viable cell count ≥10⁹ CFU/g is used in animal feed, where it promotes gut health and enhances nutrient absorption efficiency. Moisture Content <5%: Spore Lactic Acid Bacteria with moisture content less than 5% is used in powdered formulations, where it prolongs shelf life and preserves bacterial spore potency. Particle Size 100 µm: Spore Lactic Acid Bacteria with particle size of 100 µm is used in capsule manufacturing, where it ensures homogeneous blending and precise dosing in each unit. pH Tolerance 2.0–9.0: Spore Lactic Acid Bacteria with pH tolerance from 2.0 to 9.0 is used in gastrointestinal supplements, where it survives acidic stomach and alkaline intestinal conditions for maximum probiotic delivery. Shelf Life 24 Months: Spore Lactic Acid Bacteria with a shelf life of 24 months is used in bulk storage for industrial applications, where it guarantees long-term microbial stability and consistent product functionality. Osmotic Pressure Resistance 15% NaCl: Spore Lactic Acid Bacteria with osmotic pressure resistance up to 15% NaCl is used in fermented meat products, where it maintains activity during curing and brining processes. |
Competitive Spore Lactic Acid Bacteria prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
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Tel: +8615371019725
Email: admin@sinochem-nanjing.com
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Every batch of our Spore Lactic Acid Bacteria comes from a careful process grounded in over two decades of direct production experience. Only a few organisms compare with the resilience and versatility of spore-forming lactic acid bacteria. As the manufacturer, we've learned through years of fermentor runs, pilot projects, and full-scale installations exactly where this bacteria excels and where it brings unique value to fermentation-based industries.
Spore-forming lactic acid bacteria—sometimes called Bacillus coagulans or Bacillus lacticus, depending on the strain and heritage—possess a natural shell that protects them during storage, processing, and even in harsh delivery systems. This feature sets them apart from regular lactic acid bacteria, which easily lose activity to heat, moisture, or acidity long before they reach a customer or livestock’s digestive tract.
Working in our production lines, we see firsthand how spore forms handle spray drying, granulation, pelletizing, and mixing. Where non-spore-formers drop in titer or lose structural integrity, spore-based strains maintain viability without a spike in production loss. For end users, this resilience means more reliable counts, consistent results, and fewer headaches troubleshooting variable fermentation performance.
Among the strains with a proven track record is our proprietary spore lactic acid bacteria model, BL-80S. We designed BL-80S specifically for high-tolerance conditions such as silage production, functional feed, food probiotic blends, and even crop residue treatment. Every batch undergoes counting by standard plate methods and phase-contrast microscopy to confirm actual concentration, not just theoretical values.
Our BL-80S typically ranges from 1×109 to 2×1011 CFU per gram based on process requirements. These numbers come from routine sampling, not guesswork. Colony morphology, sporulation rates, and dormancy are monitored using transparent practices shaped by on-the-floor experiences—not just by reference to published literature.
The path to our current production process included setbacks. Years ago, we ran into thermal kill during spray drying with ordinary lactic acid strains, leading to poor shelf life and frequent client complaints. Out of necessity, we screened hundreds of wild and culture bank isolates for survivability against heat, pressure, and desiccation. The result is a master seed that tolerates not only these processes but also environmental pH shifts from 2.0 to 9.0.
Routine fermentation batches run between 36–42 hours, with tight control on oxygen and temperature. Over time, keeping oxygen in the ideal band for strong sporulation—without over-oxidizing—made a measurable difference to both viability and shelf stability. Post-harvest, our technicians move into rapid cooling, centrifugation, and fluid bed drying. These steps keep the metabolic machinery intact inside the spores until use.
What stands out in our own plant is the strict control over raw material purity and batch standardization. Starting each lot with only pharmaceutical-class glucose, yeast extract, and mineral salts avoids side-product fermentation and contamination. Each cycle’s progress gets logged both digitally and on paper, and no batch moves forward unless physical spore counts hit specification.
Our storage facilities use HVAC systems set for low humidity, and sealed packaging runs only after residual water drops below 6 percent—a standard driven by spoilage problems seen years ago. Spore integrity under transport and during storage remains constant. Over the years, we've seen some producers cut corners to save costs using lower-grade carbohydrates or skip spore phase confirmation, but we value enduring customer trust over momentary efficiency.
Producers in feedlots and silage operations often deal with variable climate, unpredictable forage quality, and storage challenges that regular lactic acid bacteria strains simply can’t handle long term. Spore-formers persevere. Every harvest, farmers face the same question: Will the addition survive to actually acidify the fodder or feed? Using our BL-80S means producers get an organism with the muscle to activate at the right moment—after exposure to pressure, sun, and fluctuating storage temperatures.
Unlike basic lactic starters that rarely survive field-side application, our spore-based product reactivates when moisture returns during feed-out or mixing. This dormancy-activation mechanism reduces both loss and dosage over the cycle, and our field partners repeatedly tell us they notice less spoilage, better silage flavor, and more predictable pH drops over the first days of fermentation.
We receive steady inquiries from the food supplement sector, particularly for products destined for environments where shelf life and travel stress matter. Standard lactic acid bacteria supplements face instability on store shelves—heat, oxygen, and time all take their toll. Our spore-formers awaken only after passage through the acidic stomach, providing more targeted colonization in the intestine.
Long-term studies carried out by several of our partners show not just survivability through shelf storage, but also measurable improvements in gut flora balance. Parents, athletes, and even elderly consumers send us direct feedback on less gastrointestinal upset and improved digestion. It’s the reliable passage through stress conditions—achieved only by spores—that underpins these benefits.
The main benefit users report—whether in feed, silage, or probiotic supplements—comes down to consistency. Non-spore-formers have their value, especially when the application system guarantees stable handling and immediate use. But issues begin as soon as delivery departs from ideal. Temperature swings during transport, short-term spikes in humidity, or longer storage periods each take a toll on regular lactic acid bacteria, causing sharp cell count drop-offs. In direct plant use, we've documented losses of over 80 percent in some batches of conventional lactic acid bacteria. For customers who value continuity in product performance, spore-form forms have become the preferred solution.
We do not blend in other stabilizing agents—no artificial encapsulates, no chemical extenders—just pure vegetative and spore forms in their harvested state. This transparency helps downstream processors avoid guessing which stabilizer or excipient might interact with their finished product. Years of troubleshooting and small-scale trials show that simpler inputs mean fewer complications in real-world environments.
In one notable case, a regional dairy cooperative implemented our BL-80S across rotating silage storage facilities. Over three consecutive years, they reported a reduction in mold spoilage and improved aerobic stability compared to the prior lactic starter, which frequently crashed under summer temperatures. Documentation from laboratory pH readings and field observations recorded persistent, stable fermentation bands in every stack treated with our spores even when summer storms delayed silage cover application.
Livestock nutritionists report marked gains in feed dry matter retention when using our spore-based product. Cattle feeding trials measured not only higher nutritional value over extended storage, but a reduction in secondary heating—a major risk factor in silage management. Where competing products faltered, the spore lactic acid bacteria delivered thanks to their resilience to oxygen and temperature.
For ornamental horticulture, our spores shine in residue breakdown and root zone fermentation, where fluctuating humidity and unpredictable substrate quality challenge regular bacteria. Better decomposition and faster nutrient cycling have been consistently observed in real soils, not just in greenhouse conditions.
Many years in this industry teach that shortcuts betray confidence: every failed batch, every false promise, returns to the manufacturer before it spreads to the market. Our lab technicians and operators take direct responsibility for every sample and master seed. We continually invest in training and analytical equipment, including genetic verification systems that confirm strain purity.
Every step, from seed selection to the finished product, aligns with a belief: only robust manufacturing supports robust organisms. That’s why we test every critical batch not just for cell count, but for sporulation phase ratio, thermal stability, and dormancy retention post-processing. We've observed competitors ship organisms based on theoretical numbers or initial lab shelf tests, but only real-life conditions expose weaknesses—something our production and QC teams avoid by direct oversight.
We maintain collaborative connections with universities and agricultural extension stations, providing our spore strains for field work and published trials. These relationships anchor our claims—not just factory data, but independent confirmation in working conditions. Some of these published trials document measurable feed conversion improvements, reduction in organic matter loss, and improved palatability in livestock samples. Our ongoing R&D focuses on strain improvement for more rapid germination once introduced into the application environment, leveraging both traditional screening and modern sequencing techniques.
Our in-house technical team regularly evaluates new isolate candidates alongside the current production strain, always seeking incremental advance in both survivability and application adaptability. Technical support doesn’t end at sale; we troubleshoot with our partners, fine-tune application protocols, and stand by any shortfalls that arise. Experience proves that only continuous investment in process and field support matches the rapidly changing needs of modern industry.
What stands at the foundation of our business is the drive to deliver real results—not just in cell counts or product claims, but in how Spore Lactic Acid Bacteria perform across the many unpredictable environments found on farms, in warehouses, or on store shelves. We rely on transparency: each batch receives a documented lot number, actual CFU count, and risk assays for pathogen contamination performed by internal and, periodically, external labs.
Customers return and recommend our product because repeated use builds trust in performance, not just on paper, but under daily working conditions. Over time, our clients learn to recognize the difference when their applications run smoother and their spoilage complaints drop away. We don’t rely on marketing spin or distant references—instead, every claim connects directly to our own experience, hands-on process control, and the voices of users from every link in the supply chain.
Installations at feed mills, silage bunkers, and even food processors often involve close technical support for mixing, dissolution, and application procedures. Over the years, we’ve built practical protocols for different local realities. We know that a winter silage operation in Siberia demands different prepping timelines and activation temperatures compared to a summer dairy in Brazil. By running on-the-ground trial batches and monitoring environmental data, we have fine-tuned our strain and support to minimize batch-to-batch variation.
Some processors have integrated our product upstream into pelleting and extrusion systems—these machines generate enough heat to kill regular lactic acid bacteria instantly. Spore lactic types pass through with minimal count loss, with field data affirming real retention even after high-temp conditioning. Our technical team worked on site with engineers to dial in application rates and timing for maximum post-cool viability.
Concerns about the introduction or overuse of bacterial additives arise in both feed and food systems. Years of direct production and field application have shown rigorous microbial monitoring meets these challenges. We adhere to international food safety and quality standards during every stage. Periodic, independent verification by external labs backs up our own results, with full traceability on every lot.
Another common question relates to the dormant-to-active switch. Unlike many standard lactic acid bacteria, our spores only germinate upon direct exposure to favorable moisture and nutrient conditions. This trait eliminates unwanted fermentation during storage, only starting activity right where and when it’s needed. Incidents of premature activation, off-gassing, or odor are avoided because our team controls every factor from spore harvest water activity to packaging permeability.
Our vision goes further than just consistent product output. We continue to invest in pilot projects for tailored spore-based solutions: specialty probiotic synbiotics, new fermentation aids for modern bioeconomy applications, and improved residue decomposers. Partnerships with researchers and feedback from customer-end users help us identify next-generation needs where resilience, activation timing, and improved shelf stability bring even greater value.
Our advisory team regularly provides updated protocols and best practices built from long-term batch data and partner reports. We openly discuss both the limits and possibilities found while using our spores in diverse climates, crops, and livestock systems. Years of direct dialogue with our customers underline the importance of honesty, responsiveness, and a drive to solve practical issues that arise.
Every innovation, every reliability boost, comes from the lessons learned through hands-on production, thorough quality assurance, and the willingness to stand behind the product. Our spore lactic acid bacteria go through more than just a series of bench tests—they face the real-world realities of global transport, variable storage, and the unpredictable conditions found in agricultural, food processing, and feed environments.
The company’s roots in manufacturing—not just trading—make all the difference: oversight at every stage, careful sourcing of raw materials, staff who know both bioprocessing and field applications, and a system for continuous improvement. We see the impact every time a customer tells us their bottom line improved, waste dropped, or complaint calls vanished. For us, every single spore counts, and so do the people who trust us to deliver them.