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HS Code |
864914 |
| Product Name | Bacillus Acidophilus |
| Type | Probiotic supplement |
| Form | Capsule |
| Main Ingredient | Lactobacillus acidophilus |
| Intended Use | Supports digestive health |
| Shelf Life | 24 months |
| Storage Conditions | Store in a cool, dry place |
| Recommended Dosage | 1-2 capsules daily |
| Country Of Origin | USA |
| Allergen Information | Free from gluten, dairy, and soy |
| Manufacturer | ABC Supplements Inc. |
| Packaging Size | 60 capsules per bottle |
| Expiration Date | Printed on bottle |
As an accredited Bacillus Acidophilus factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, resealable plastic pouch labeled "Bacillus Acidophilus," 100g net weight, with detailed usage instructions and safety information printed clearly. |
| Shipping | **Shipping for Bacillus Acidophilus:** Bacillus Acidophilus is shipped in sealed, moisture-proof containers to maintain viability. Shipments typically use cold packs or refrigerated transport to preserve activity, especially for long distances. All packaging complies with relevant regulations for microbial products, ensuring safe and stable delivery. Expedited shipping is recommended to minimize temperature fluctuations. |
| Storage | **Bacillus acidophilus** should be stored in a cool, dry place, ideally at 2–8°C (refrigerated) to maintain its viability. Protect it from heat, moisture, and direct sunlight. Keep the container tightly closed when not in use. If the product is in lyophilized powder form, refrigeration is preferred, but short-term storage at room temperature is acceptable unless otherwise specified by the manufacturer. |
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Purity 99%: Bacillus Acidophilus Purity 99% is used in probiotic dairy formulations, where it enhances gut flora balance and improves digestive health outcomes. Viability 1x10^10 CFU/g: Bacillus Acidophilus Viability 1x10^10 CFU/g is used in synbiotic supplements, where it increases probiotic colonization efficiency and supports immune modulation. Stability at 37°C: Bacillus Acidophilus Stability at 37°C is used in fermented beverage production, where it maintains live cultures during storage and extends shelf life. Particle Size <10 µm: Bacillus Acidophilus Particle Size <10 µm is used in encapsulated probiotic powders, where it allows for uniform blending and optimal dispersibility in food matrices. pH Tolerance 2.0-6.5: Bacillus Acidophilus pH Tolerance 2.0-6.5 is used in oral health lozenges, where it survives gastric acidity and promotes oral microbiome balance. Moisture Content <5%: Bacillus Acidophilus Moisture Content <5% is used in chewable probiotic formulations, where it ensures stability and prevents degradation during storage. Heat Resistance up to 70°C: Bacillus Acidophilus Heat Resistance up to 70°C is used in baked functional foods, where it retains probiotic activity post-baking for reliable health benefits. Molecular Identification by 16S rRNA: Bacillus Acidophilus Molecular Identification by 16S rRNA is used in pharmaceutical probiotics, where it guarantees strain authenticity for regulatory compliance and product efficacy. Antibiotic Resistance Profile Negative: Bacillus Acidophilus Antibiotic Resistance Profile Negative is used in pediatric probiotic blends, where it ensures safety by minimizing the risk of gene transfer. Shelf Life 24 months: Bacillus Acidophilus Shelf Life 24 months is used in export-grade probiotic capsules, where it provides long-term viability and market stability. |
Competitive Bacillus Acidophilus prices that fit your budget—flexible terms and customized quotes for every order.
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Years of developing and optimizing Bacillus acidophilus production have given us a front-row view of how reliable probiotics shape industries ranging from food fermentation to animal nutrition. The story rarely starts in a sterile lab; it begins in carefully selected raw materials—each batch of growth media has its own quirks, and variability in sugar, protein, or mineral content can change fermentation dynamics. Our technical team has refined cultivation and harvesting techniques so the microorganism maintains robust viability across a range of storage and handling conditions. The outcome is a consistent powder or granular product, depending on the downstream application, with characteristics shaped through repeated real-world trials and not just lab theory.
Bacillus acidophilus has plenty of close relatives, but strain choice dramatically affects outcome. After trialing dozens of candidates, we selected models that show active, stable growth and thrive in both acidic and mildly basic environments. This opens the door for use in wide-ranging pH settings, not just in yogurt or dietary supplements but also in animal feed and bioprocessing. Fermentation reaches high cell densities through a stepwise approach, starting with seed cultures grown in tightly controlled, stainless steel reactors. Real-world production rarely tracks exactly the same as the process data sheets; every scale-up round forces tweaks in agitation, aeration, and nutrient ratios. The strain we cultivate now tolerates the high-shear conditions of our larger tanks, which means fewer batch losses and greater batch-to-batch resemblance.
Once fermentation hits the right point, gentle methods separate the cells from the broth. Excessive heat or rough centrifugation damages bacteria, so we combine cooled separation and spray-drying. We rarely stop at a single downstream pass. Post-drying, we stabilize the product with protective carriers—food-grade maltodextrin, prebiotics, or custom bulking agents—sometimes tweaking percentages to match how the end-user processes our powder. This is not about fussiness; if the wrong carrier is used, the probiotics lose effectiveness before even reaching a final formulation.
People often ask what makes Bacillus acidophilus stand apart from standard lactic acid bacteria. Lab strains like Lactobacillus give similar short-term probiotic numbers, but our Bacillus acidophilus often pounds through changes in temperature and humidity better, keeping colony-forming units high after long transport or storage. Its acid resistance supports shelf stability in feeds and oral supplements. After freeze-thaw cycles, we still observe high reactivation under simulated gut conditions, which matters when formulating animal probiotics or functional foods.
Technical users usually want cell counts above 109 CFU/g, and this is where real production habits make a difference. Smaller players might advertise similar CFU numbers, but we have measured rival samples that plummet in potency within three months. Our standard protocol delivers at or above 2 x 1010 CFU/g at shipment—tougher benchmarks, matched by multi-point QC and live cell enumeration. Beyond numbers, our lot tracking system ties each batch to all key process data so we solve traceability issues without lengthy searches.
Formulators working with dairy, plant-based drinks, and health supplements often find that bacterial survivability outranks all other buying factors. Our clients value being able to push products through pasteurization or moderate heating steps, and still count on live probiotic activity at the point of consumption. Bacillus acidophilus shows up not only in yogurts but also in smoothies, nutritional shakes, and bar formulations—often added near the end of the process to keep live counts maximized.
Animal nutrition manufacturers require a probiotic that withstands pelleting, high-storage times, and transportation through regions with big climate swings. Our strain tolerates short-term exposure to temperatures above 80°C, which is rare among non-sporulating probiotics. Integrators running pilot trials for new poultry or swine lines often request technical support to tune Bacillus acidophilus blends for local feedstock and water quality. We provide not only a bacteria blend but also custom carrier choices matched to end-use machinery.
For environmental and industrial fermentation, Bacillus acidophilus helps boost organic breakdown and stably lowers pH in biofilters and digesters. Some partners want blends that partner Bacillus acidophilus with other microbes—yeasts, Bacillus subtilis, or enzyme producers—for tailored microbiome support. We have found co-blending under carefully controlled drying yields compatible mixes, allowing formulators to reduce clumping and keep application straightforward.
No probiotic is magic on its own, which is why we never claim health effects not backed by established science. Clinical studies have demonstrated Bacillus acidophilus strains’ ability to survive the gastrointestinal tract and interact with the host microbiome. Unlike certain relatives that rely primarily on lactic acid production, our strain also synthesizes bioactive polysaccharides and bacteriocins—compounds that moderate microbial competition in the gut. Animal trial partners have reported improved weight gain and feed efficiency when switching to our product over more fragile lactic strains. Laboratory data link our Bacillus acidophilus to a reduction in pathogenic E. coli and Salmonella proliferation under realistic gut simulation, which has caught the attention of veterinarians looking for antibiotic alternatives.
Those insights lead to actual practice updates: animal producers now factor in lower therapeutic antibiotic usage after consistent Bacillus acidophilus supplementation. Feed manufacturers report more stable pH in silage and feed preservation, which supports better fermentation and preservation quality across farm conditions. We have also worked with selected human supplement brands to incorporate this strain in targeted blends, focused on supporting both immune balance and gut regularity.
We ship Bacillus acidophilus in multi-layer moisture-proof bags, reinforced drums, or simple inner foil pouches depending on volume and customer need. The packaging focus isn’t just about form—moisture migration and oxygen entry are the main destruction routes for probiotic cultures. Years of transport through varying climates have taught us that even a few percent higher humidity shortens shelf shelf life. To minimize risk, we include real-time temperature and humidity logging for large lots and provide user-friendly on-pack sensors for immediate checks.
Real user feedback helped us improve rehydration properties. Some users want rapid dispersement in water, while others prefer direct injection into formulations. By adjusting drying temperatures and particle sizing, we have reached a compromise that works for both. Complaint rates for caking, inconsistent flow, or impaired reconstitution have dropped year-on-year since the last round of process updates.
It’s common to see Bacillus acidophilus listed in catalogs alongside dozens of probiotic species. On paper, powder forms and claimed potency can look similar, but practical differences add up. Some competitors work with bulk intermediates sourced from outside producers, often reblending or relabeling before delivery. In contrast, everything from starter culture preparation to drying and packaging stays in-house at our dedicated site—this reduces mismatched specifications, batch-to-batch differences, and traceability headaches.
Secondary repackers may miss subtle differences in moisture level, heat sensitivity, or particle integrity, which hurts shelf stability. Our direct manufacturing approach lets us lock in tightly controlled finishing steps, and because we work closely with both small and industrial-size partners, real-time feedback quickly loops back into production improvements.
Probiotics can degrade from simple mistakes like storing product above 25°C or allowing exposure to sunlight in receiving areas. We learned early to invest in strict cold-chain options and closely monitor the duration of customs hold-ups during export. Long-term collaborations with major food and supplement brands have shaped our documentation and audit trails, and line workers receive ongoing food safety, allergen, and hygiene training under verifiable standards.
Quality and safety claims only go so far without structured documentation. We supply certificates confirming live cell counts, absence of pathogens, and allergen status with each lot. Regulatory expectations change quickly—it is common for buyers to ask for GMO-free confirmation, organic handling certification, or detailed allergen breakdowns. We prepared robust cross-check protocols so customers can support label claims in case of audits or inspect authorities’ requests.
We keep detailed stability studies using accelerated and real-time scenarios, giving customers clear guidance for ideal shelfing and optimal reordering cycles. Our internal samples undergo ongoing live enumeration, so early loss trends rarely go undetected. Customers now rely less on their own lab verification and more on our reliable chain of records. Regulatory partners audit our systems regularly—each pass feeds into improved transparency and continued product evolution.
Even well-run fermentation operations can run into supply disruption or unpredictable pricing of input media. We established long-term supplier contracts and multi-source select inputs for critical nutrients, backed by in-house laboratory checks. Troubleshooting batch issues goes beyond simple troubleshooting logs—in some cases, we dispatch field engineers to customer plants, especially when new process variables disrupt viability or shelf life.
Technical support spans beyond initial order. We frequently walk industrial users through modifying blending, hydration, or timing protocols for their environment and equipment. Send us observed caking, off-odor, or discoloration issues and we can usually trace cause-and-cure through collaborative pilot testing, batch documentation, and cross-lab trials.
Microbial technology continues to expand, and Bacillus acidophilus serves as both a proven performer and a platform for future innovation. We invest in exploring co-cultures, custom prebiotic pairing, and improved drying and encapsulation. Feedback loops from actual users help direct our strain improvement program. Researchers are probing the next generation of functional capabilities—enzyme production, vitamin synthesis, and precision gut modulation. Each step forward requires a careful balance between lab promise and real-world scale stability.
Our production model avoids easy shortcuts—direct ownership of strain banking, master cell storage, fermentation, and downstream finishing. Supply chain stability matters more year after year, especially as regulatory oversight tightens, customer technical capability broadens, and end-user expectations rise.
Bacillus acidophilus is not just another product code on a spreadsheet. Building a reliable, lasting product means hands-on control at every step, resistance to shortcuts, and quick uptake of practical field feedback. We back up product claims with current stability curves, transparent process data, and on-the-spot technical support shaped by actual manufacturing experience. Users from food production to animal health, and from researchers to large-scale formulators, count on steady live cell counts, repeatable performance, and well-documented quality at delivery.
By choosing a manufacturer rooted in ground-level expertise and constant process improvement, customers hedge against variability and ensure their formulations work as promised long after they leave the warehouse. Bacillus acidophilus continues to prove its worth in challenging environments, making it a cornerstone for product developers aiming to deliver more than claims on a package.