|
HS Code |
783343 |
| Scientific Name | Bacillus cereus |
| Shape | Rod-shaped |
| Gram Stain | Gram-positive |
| Motility | Motile |
| Spore Forming | Yes |
| Oxygen Requirement | Facultative anaerobe |
| Optimal Growth Temperature | 30-37°C |
| Habitat | Soil and food |
| Pathogenicity | Can cause food poisoning |
| Heat Resistance | High, due to spores |
| Colony Appearance | Large, rough, irregular colonies |
| Enzyme Production | Produces extracellular enzymes (e.g., amylase, protease) |
| Toxins | Produces emetic and diarrheal toxins |
| Clinical Significance | Associated with gastrointestinal infections |
| Catalase Test | Positive |
As an accredited Bacillus Cereus factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic container labeled "Bacillus cereus, 25g." Features hazard symbols, batch number, storage instructions, and manufacturer's details. |
| Shipping | Bacillus cereus is shipped as a laboratory culture in leak-proof, sealed containers compliant with biosafety regulations. Packaging includes absorbent material and secondary containment to prevent spills. It is labeled as a biological substance, Category B (UN3373), and shipped under controlled temperature conditions, typically via overnight or expedited delivery to ensure viability and safety. |
| Storage | **Bacillus cereus** cultures, spores, or samples should be stored in a secure, labeled, airtight container and kept at 2–8°C for short-term storage. For long-term preservation, freeze-dry (lyophilize) or store at –80°C in a protective medium, such as glycerol. Store separately from food items and under biosafety precautions to prevent contamination and ensure laboratory safety. |
| Purity 99%: Bacillus Cereus with a purity of 99% is used in biofertilizer formulations, where enhanced phosphorus solubilization increases crop yield potential. Spore Concentration 1x10^9 CFU/g: Bacillus Cereus at a spore concentration of 1x10^9 CFU/g is applied in soil amendment processes, where improved pathogen inhibition leads to healthier root zones. Thermal Stability up to 60°C: Bacillus Cereus with thermal stability up to 60°C is utilized in compost acceleration, where consistent biodegradation rates are maintained under variable temperature conditions. Particle Size 2-5 µm: Bacillus Cereus with a particle size of 2-5 µm is used in seed coating applications, where uniform adhesion ensures optimal microbial colonization. Emulsifiable Formulation: Bacillus Cereus in an emulsifiable formulation is implemented in foliar sprays, where increased leaf surface coverage enhances microbial efficacy against foliar diseases. Shelf Life 12 Months: Bacillus Cereus possessing a shelf life of 12 months is included in commercial inoculant products, where prolonged viability ensures dependable product performance during distribution. pH Tolerance 5.5-8.5: Bacillus Cereus with a pH tolerance of 5.5-8.5 is applied in wastewater treatment, where stable metabolic activity results in efficient organic pollutant degradation. Moisture Content Below 8%: Bacillus Cereus with moisture content below 8% is used in granular formulations, where extended storage stability prevents premature microbial activation. Salt Tolerance up to 1.5% NaCl: Bacillus Cereus with salt tolerance up to 1.5% NaCl is utilized in saline soil remediation projects, where improved survivability increases bioremediation success rates. Carrier Compatibility (Lignite-Based): Bacillus Cereus with lignite-based carrier compatibility is used in agricultural seed inoculants, where sustained microbial release optimizes rhizosphere colonization. |
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Over the years, the landscape of agriculture and environmental protection has been shaped by the drive for sustainability and efficiency. Through decades of research and hands-on production experience, Bacillus cereus has proved to be a critical bacterial agent, valued for its adaptability and performance in applications such as biofertilizer development, soil improvement, and organic waste management. In the world of industrial microbial products, countless strains and formulations exist, but Bacillus cereus provides a unique combination of robust enzymatic output, fast colony formation, and compatibility with other beneficial organisms. Drawing on fieldwork and real-world manufacturing feedback, our view as the producer has always been that choosing the right strain and form matters as much as the microbe itself. No shortcuts exist in microbial production: continuous quality monitoring, controlled fermentation parameters, and consistent post-processing all influence the end product's behavior in soil or bioreactor.
Bacillus cereus species are found widely in natural settings, notably in soils close to rhizospheres, aquatic systems, and decaying organic matter. The specific isolated strains we use have been selected after rigorous screening for spore-forming ability, metabolic range, and resilience to shifts in pH and temperature. These characteristics impact real-life outcomes on farms and in wastewater systems, dictating whether the active bacteria can establish and function in diverse environments. In the fermentation plant, a high-yielding Bacillus cereus model presents strong proliferation profiles and forms a stable, dormant endospore state, ensuring longer storage life and predictable vitality once activated in the field.
Many years ago, only limited wild-type strains were available, often suffering from poor sporulation and narrow metabolic spectra. Investment in advanced strain selection changed that. Bacillus cereus, in the proprietary model we have standardized, generates broad-spectrum extracellular enzymes—proteases, amylases, and lipases—contributing to rapid decomposition of plant residues and animal waste. Among various Bacillus species, only a few offer this versatile enzymatic blend without unwanted side effects or competition issues in consortia products. This ability to break down a wide spectrum of organic substrates defines Bacillus cereus’s utility beyond generic probiotics or nutrient mobilizers.
We manufacture Bacillus cereus in concentrated spore powder and liquid suspensions based on market demand and technical requirements. The regular model—Bacillus cereus S288—is produced in batch fermenters under sterile, aerobic conditions, with careful control over agitation and oxygen transfer rates. Investing in process automation and multi-stage in-process quality controls allows us to monitor cell density (CFU per gram or per milliliter), spore purity, and the absence of contaminants at every stage.
In powder form, the product shows high stability through extended storage since the spores resist heat and desiccation. Technicians favor the powder for solid blending with other soil amendments and as dry seed coatings. For applications demanding immediate action—such as hydroponics, aerobic wastewater treatment, or foliar spray—the liquid formulation speeds up activation due to pre-hydrated cells and nutrient supplements. This flexibility addresses the operational constraints different users encounter. Over several years, farmers and technical consultants have reported that repeat use of Bacillus cereus S288 restores soil biological activity, helps in crop residue breakdown after harvest, and cuts foul odors in livestock pens.
High spore counts remain non-negotiable for us. On commercial farms, under-processed or low-potency products collapse quickly under sunlight, residual agrochemicals, or high salt levels. Production quality translates directly into reliability: every gram of product must deliver viable, active Bacillus cereus within a week of application or sooner, no matter the soil type or climate. We set our typical specification at 1x109 CFU/g as a minimum, based on long-term storage trials and field test feedback.
Bacillus cereus S288 has delivered strong results across several sectors. In agriculture, it accelerates plant tissue breakdown, freeing up nutrients for the next crop cycle and suppressing some soil-borne pathogens by competing for resources and space. Growers using conservation tillage or organic systems depend on rapid residue conversion; delayed breakdown causes planting delays and increases pest pressure. Microbial decomposition by Bacillus cereus addresses these pain points, giving farmers another biological tool. It also becomes a vital input for composting operations aiming for a mature, pathogen-free end product. Waste management operators processing manure or kitchen waste report fewer odor complaints and faster compost maturity following our formulation protocols.
In environmental engineering, Bacillus cereus S288 finds use in bioremediation for moderately contaminated soils and effluents. By elevating populations of Bacillus cereus, operators increase degradation rates for certain petroleum hydrocarbons, proteins, and starches without introducing genetically modified organisms or foreign chemicals. One limitation that always comes back from the field is sensitivity to high concentrations of heavy metals or herbicide residues. For this reason, we work closely with users to test new sites before recommending full-scale use.
Aquaculturists also capitalize on the product’s capabilities. Pond ecosystems often face cycles of organic waste accumulation—excess feed, shrimp or fish feces, dead algae blooms. Targeted addition of Bacillus cereus reduces bottom sludge, clarifies water, and limits the buildup of toxic ammonia, contributing to more stable aquatic environments. We have tailored dosing regimens together with technical teams over the past decade, favoring daily or weekly shock treatments during peak feed periods and microbial maintenance during off-peak. Recurring customer feedback points toward more consistent water quality, reduced aeration costs, and improved animal health.
The Bacillus genus contains dozens of commercially viable microbes, so customers regularly ask what distinguishes Bacillus cereus S288 from more widely recognized species like B. subtilis or B. amyloliquefaciens. From the manufacturing perspective, three things set Bacillus cereus apart.
First, Bacillus cereus synthesizes a broader range of extracellular enzymes under field conditions, allowing it to tackle different organic materials simultaneously. Many B. subtilis models focus on a narrower band, usually confined to amino-acid cycling or phosphate solubilization. This broader activity range means Bacillus cereus S288 fits better in applications where multi-component organic wastes need treatment. In several pilot projects with vegetable packhouses and animal farms, operators using mixed consortia products found that Bacillus cereus outcompeted or complemented their existing microbes, speeding up overall residue breakdown.
Second, sporulation rates and spore stability favor Bacillus cereus in shelf-life and transportability. The formulations we produce maintain targeted CFU counts even in fluctuating storage environments, providing a level of reassurance for distributors and end-users alike. While some Bacillus species require elaborate cold-chain logistics to retain activity, our powder-based Bacillus cereus withstands multi-season storage with less risk of potency loss.
Third, Bacillus cereus demonstrates greater resilience during co-cultivation with fungi and other beneficial bacteria commonly used in multi-microbe blends. Compatibility translates into real benefits for large agricultural projects and integrated waste treatment. From repeated side-by-side field trials, Bacillus cereus S288 consistently persists alongside Trichoderma, Pseudomonas, and Rhizobium strains. No single microbe works as a standalone solution for every biological challenge, so compatibility with other agents remains essential for results.
Through years of manufacturing, feedback cycles, and collaborative product development, these differences become clear. Bacillus cereus products are not “just another Bacillus,” despite some overlap in application descriptions. Where a buyer values fast-acting, enzyme-rich, and field-tolerant formulations, Bacillus cereus will often outperform traditional alternatives, provided the strain is well managed from fermentation to field.
As manufacturers, facing challenges at every stage is an expected part of the job. Sourcing high-quality raw materials, maintaining contamination-free fermenter runs, and scaling up from pilot to industrial volumes present ongoing pressures. Bacillus cereus fermentation, despite decades of optimization, demands repeated monitoring for unwanted byproducts, phage attacks, and raw ingredient variability. Our plant engineers and microbiologists spend as much time troubleshooting process noise as they do fine-tuning yields.
Quality assurance teams employ plate count, PCR diagnostics, and rapid enzyme activity tests on every lot before shipping. Any deviation, whether a drop in CFU or the presence of unwanted actinomycetes, forces a halt and lot retesting. In practice, this may disappoint some customers during seasonal crunch times, but cutting corners simply produces unreliable results in the field. We have had end-users relay issues with third-party or “white label” Bacillus cereus products underdosed or mixed with filler. Consistency in manufacturing determines the bacteria’s real-world impact, so transparency about quality processes and recorded batch numbers for traceability forms part of every delivery.
Safety also matters. Bacillus cereus is not a probiotic for direct human consumption; adherence to safe handling, appropriate application rates, and storage standards always takes priority. While the strain we use has a long record of non-toxigenic behavior in soil and compost applications, end-users must avoid large-scale inhalation of dry spores or inappropriate feed applications for animals. Our teams conduct regular safety reviews in line with changing regulations and maintain open dialogue with technical partners and customers to address any new findings or best practices.
Through repeated field testing, a few patterns emerge that help maximize Bacillus cereus benefits. For seedling production or new crop establishment, our teams recommend pre-hydrating the powder in non-chlorinated water and applying it just before rainfall or irrigation. This practice rewards users with visibly improved residue decomposition and faster seedbed development. In waste treatment, the best outcomes arise when Bacillus cereus is dosed soon after fresh waste addition, maintaining regular agitation and adequate oxygen supply. Farms that have built these practices into their routines often report increased throughput and cleaner work environments.
For users in colder climates, preconditioning the formulation by mixing with composted material or liquid feedstock two days ahead of field spreading boosts the adaptation and growth rate once applied. Some agricultural cooperatives have shared trial results showing that even on compacted, low-organic soils, Bacillus cereus establishes and increases microbial biomass over time, improving soil texture and water retention after repeated use.
On-site education also helps. Some customers underestimate the impact of storage and handling on microbial vigor. Our technical team regularly visits farms and composting sites, running onsite demonstrations about product activation, targeted application spots, and correct dosage calibration. These relationships provide essential feedback—our own products have modified application guidelines and packaging design in direct response to comments and requests from these users.
Ongoing improvements never slow down on the manufacturing side. We continue to invest in strain banking facilities and genomic analysis to ensure the S288 model is stable, traceable, and free from unwanted genes. Research collaborations with several universities aim at expanding Bacillus cereus’s documented impacts on specific crop diseases and environmental contaminants, with new peer-reviewed data arriving every season. Experimentation with formulation carriers, such as microgranules that boost survivability in saline soils, opens new product models and wider application geographic spread.
Global challenges, such as soil degradation, waste overloading, and the push for safer, non-chemical alternatives, create increasing interest in reliable, field-proven biological products. Bacillus cereus stands as a testament to the potential of targeted microbial solutions when they are properly selected, produced, and applied. Drawing on years of manufacturing experience and thousands of hectares of feedback, it becomes clear that the journey from lab bench to farm field or waste treatment plant takes more than just a bottle of spores—it demands ongoing vigilance, adaptation, and collaboration with every link in the supply chain.
Manufacturers cannot rest on standard models or claims. Satisfying the diverse, dynamic environment of modern agriculture and waste management means constant, real-world engagement with evolving conditions and honest evaluations of both success and failure. In this context, Bacillus cereus—especially the S288 model—has earned its place as a trusted input for those seeking more than just an average microbial blend. Its production reflects not only our technical capabilities but our long-term investment in quality, transparency, and continuous learning.
From day-to-day fermentation oversight to on-farm field walks, our commitment remains the same: deliver reliable Bacillus cereus products and knowledge-driven support that unlocks biological potential for every partner in the chain. The results, borne out in crop fields, compost piles, fish ponds, and remediation sites, demonstrate the value of getting the detail right, every batch, every shipment, every season.