|
HS Code |
266581 |
| Scientific Name | Bacillus pasteurii |
| Synonym | Sporosarcina pasteurii |
| Prokaryote Type | Gram-positive bacterium |
| Shape | Rod-shaped |
| Metabolism | Ureolytic |
| Spore Forming | Yes |
| Oxygen Requirement | Facultative anaerobe |
| Optimal Temperature | 30-37°C |
| Optimal Ph | 7.0-9.0 |
| Cell Motility | Motile (peritrichous flagella) |
| Cell Wall | Thick peptidoglycan |
| Industrial Application | Microbially induced calcite precipitation (MICP) |
| Salinity Tolerance | Moderate halotolerance |
| Colony Appearance | Creamy-white, round colonies |
| Genome Size | Approximately 4.0 Mb |
As an accredited Bacillus Pasteurii factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Sealed 100g white plastic jar with blue label; features product name “Bacillus Pasteurii”, usage instructions, safety warning, and manufacturer details. |
| Shipping | Bacillus pasteurii is shipped as a lyophilized (freeze-dried) culture or liquid suspension in secure, leak-proof containers with temperature controls as needed. Packaging complies with biosafety and transport regulations to ensure viability and prevent contamination. Documentation and labeling are included for safe and traceable delivery to research or industrial facilities. |
| Storage | Bacillus pasteurii should be stored as a lyophilized powder or in a spore suspension at 2–8°C in a dark, dry environment, protected from moisture and contamination. For long-term storage, freezing at –20°C or lower is recommended. Always keep containers tightly sealed and clearly labeled, and avoid repeated freeze-thaw cycles to maintain viability and activity. |
| Purity 99%: Bacillus Pasteurii with purity 99% is used in soil stabilization for road construction, where it enhances soil compressive strength and durability. Viable Cell Count 1x10^8 CFU/g: Bacillus Pasteurii with a viable cell count of 1x10^8 CFU/g is used in concrete crack remediation, where it promotes efficient calcium carbonate precipitation for self-healing. Particle Size <50 µm: Bacillus Pasteurii with particle size less than 50 µm is used in bio-cementation of sandy soils, where it ensures uniform distribution and effective pore filling. Storage Stability 6 months at 4°C: Bacillus Pasteurii with storage stability of 6 months at 4°C is used in bioremediation projects, where it maintains high microbial activity throughout the project duration. pH Tolerance 7.0-9.0: Bacillus Pasteurii with pH tolerance of 7.0-9.0 is used in wastewater treatment facilities, where it sustains robust calcite precipitation under alkaline conditions. Endospore Formation >90%: Bacillus Pasteurii with endospore formation above 90% is used in agriculture soil improvement, where it provides long-term microbial viability and resilience. Urease Activity >100 U/mg: Bacillus Pasteurii with urease activity over 100 U/mg is used in eco-friendly foundation reinforcement, where it rapidly induces calcium carbonate mineralization for soil binding. Thermal Stability up to 45°C: Bacillus Pasteurii with thermal stability up to 45°C is used in tropical construction sites, where it maintains efficient performance under elevated ambient temperatures. Suspension Stability 24 hours: Bacillus Pasteurii with suspension stability of 24 hours is used in injectable grout formulations, where it enables consistent and homogeneous delivery for subsurface treatments. |
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Step into any of our microbial fermentation halls and you will spot rows of stainless tanks quietly teeming with life. Over the last decade, we’ve developed a specialized approach to cultivating Bacillus Pasteurii, and we treat this process as both an art and a science. We select strains by evaluating resilience, metabolic vigor, and mineralization capacity. With every batch, fermentation runs monitored with exacting attention to dissolved oxygen, agitation rate, and temperature. Our team relies not just on instruments but on hard-won intuition. When scaling up production, BAC-9 stands out as our preferred model, chosen for its consistency and versatility across a wide range of environments.
Through years of refining the fermentation parameters, our team has observed that even minor tweaks in the nutrient balance impact biomass yield and spore formation. In busy production seasons, we make daily adjustments as cultures grow differently depending on subtle changes in raw material lots or shifts in water mineral content. Unlike bulk commodity microbes, every lot comes with a measured dry cell weight and a colony forming unit range you can rely on. We target spore concentrations not just to meet specs but to give our partners a tool that works in challenging field conditions.
We witness firsthand how clients leverage Bacillus Pasteurii in industries from construction to remediation. The most distinctive trait is the microorganism’s ability to induce calcium carbonate precipitation through microbial-induced calcite precipitation (MICP). Field engineers choose our product when conventional cementitious binders struggle in highly saline or variable temperature environments. Ground stabilization contractors, in particular, have told us they see predictable permeability reductions in treated soils after introducing our cultures. Laboratory collaborations have measured these effects—showing improvements in unconfined compressive strength compared to untreated subsoils.
Beyond geotechnical work, wastewater professionals tap into Bacillus Pasteurii’s metabolic pathways to reduce soluble heavy metals. Our team has visited sites where nitrification, denitrification, and heavy metal removal take place in stages, with Bacillus Pasteurii performing reliably in intermediary zones. A pattern emerged: batches grown under constant oxygen transfer seem to yield stronger, more active cultures for these processes. It is not a plug-and-play solution, so we provide support throughout pilot trials so customers can fine-tune dose and inoculation schedules to fit site-specific flows and loads.
Discussions about microbial calcium carbonate precipitation often include other Bacillus species as well as non-spore-forming bacteria. We’ve closely analyzed field and bench-scale data, pitting our Bacillus Pasteurii against strains such as B. subtilis and B. sphaericus. The difference centers on metabolic byproducts and spore robustness. Bacillus Pasteurii consistently outperforms for calcite crystal growth—especially at pH ranges common in alkaline soils and groundwater. The spores tolerate temperature swings and desiccation, maintaining viability in storage and transit, which has reduced shipment rejections and field failures for our partners.
Some practitioners ask about urea hydrolysis rates, citing productivity claims from other producers. In our experience, cultures harvested after careful, controlled fermentation offer higher and steadier urease activity, giving contractors peace of mind on long schedules. We don’t push maximum speed at the expense of stability or shelf life, which sets the results apart from low-cost alternatives imported from bulk suppliers. Every comparison run confirms that our Bacillus Pasteurii builds repeatable, reliable calcite bonds in a range of settings where competitor strains drop off due to environmental stress.
Feedback matters most to us. Once the product leaves our docks, we remain involved, tracking stability and viability in real storage and transport situations. Clients told us early on that clumping and settling were issues for powders and slurries sourced elsewhere. We made incremental changes—tuning moisture content, particle size, and packaging liners until rehydration became nearly foolproof. Now, technicians mix the product on-site with minimal agitation, and cell recovery stays high over the application window.
Storage instructions come from observation, not just theory. Our cultures tolerate room temperature for short hauls but perform best under cool, dark storage for extended periods—facts borne out by shelf-life assays run every quarter. Increased shelf stability has cut waste and secondary shipments for contractors working in remote locations. First-time users often remark on the absence of off-odors and the rapid dispersibility in both hard and soft water. This comes from rigorous exclusion of excess organic matter during fermentation—an effort guided by countless feedback loops between production staff and customers.
Quality never rides on a checklist alone. It grows from a culture of vigilance and learning. Every batch of Bacillus Pasteurii undergoes live-plate assays and rapid urease screening before reaching outbound packing. We maintain QC logs for each run—enzyme activity, pH drift, turbidity—no shortcuts. This level of vigilance keeps failures rare, as we catch out-of-spec variances before the culture leaves the plant. Whenever a deviation arises, our technicians trace everything from seed stock handling to raw input batches to pinpoint and correct root causes before scale-up resumes.
Process engineers remain on call to discuss field experiences, successes, and any hurdles. Our site visits and troubleshooting sessions have led us to unexpected improvements. We have adjusted feed rates, changed agitation speeds, and modified batch holding protocols thanks to feedback from the ground. We believe this hands-on approach brings more lasting value to project outcomes than any paper guarantee.
Large-scale bacterial products stir concerns about safety, runoff, and biological impact. We approach these questions with transparency shaped by firsthand observations and data. After monitoring dozens of field sites, we see no evidence of non-target organism disruption when Bacillus Pasteurii is used as designed. Our R&D team continually runs ecotoxicology assays on surplus fermentation broth, confirming breakdown and nonaccumulation of byproducts in treated soils or effluent streams over time.
The product is free of genetically modified strains, following regulatory guidelines and customer requests. We rely on classical isolation and selection methods for trait improvement, maintaining clear lineage tracking from the very first seed culture. Customers with environmental certifications appreciate this, as it simplifies documentation for regulatory review and reporting. Maintaining such purity in the seed bank costs more in labor and space but pays off in traceability and peace of mind.
Not every project unfolds as planned. In coastal grouting jobs, we watched Bacillus Pasteurii outperform in tidal cycles, but also ran into setbacks—unexpectedly high salt content curbed calcium carbonate precipitation. The lesson: field screening of water chemistry ahead of time, with recipe tweaks, locked in performance. In cold climates, we supported a pilot where colonies grew sluggish. Field techs suspected poor rehydration, but temperature proved the real culprit. Switching to a pre-warmed solution and adjusting dwell time fixed the lag. These stories shape our recommendations and future process choices.
Contractors running continuous treatment applications with tangled piping have faced biofilm buildup, threatening dosing equipment. Instead of defaulting to harsher cleaning cycles, we worked alongside onsite mechanics to stagger dosing and alternate flush solutions, reducing biofilm and equipment downtime. The process works because both factory expertise and local knowhow come together, not because of one-size-fits-all instructions. We put just as much effort into follow-up as production, knowing a smooth project outcome relies on this partnership.
The industry is full of innovation talk, but most new microbial products enter markets with gaps between claims and real-world results. We have witnessed too many cases where a strain demonstrates potential on the lab bench, yet falls short during mass production or under variable site conditions. In contrast, Bacillus Pasteurii, specifically our BAC-9 line, has delivered project after project, building trust just as much as calcite deposits. The molecular pathways are well understood, but more importantly, our team has decades of practical insight into how living systems behave at industrial scales, outside the neat confines of academic jars.
Every year, our customers set new challenges for us—faster turnaround, higher dose strength, better mixing properties, longer on-site shelf life—and every year, we answer with process changes and formulation tweaks rooted in plant-floor experience. By keeping research and production in one pair of hands, we know exactly what enters each drum, and what field engineers experience after delivery. Customer feedback tells us where improvements count and where to leave the culture unchanged. This keeps us nimble and attentive to both the science and the worksite realities.
At the end of every project, we gather results, good and bad. We listen—to chemists, to field techs, to environmental officers. Our doors remain open for plant visits, long post-installation evaluations, and troubleshooting calls. We keep on refining Bacillus Pasteurii not through market hype or glossy claims, but through every lesson learned from people who depend on these cultures to solve tough problems in soil and water.
This attitude shapes both our daily routines and long-term goals. Out on project sites, real limits surface, and genuine performance matters. Our Bacillus Pasteurii works hard in this world of concrete, steel, salt, and soil—not the safe space of brochures. That is why after years in production, we still find new ways to improve—guided by details that only emerge where science, experience, and trust intersect.