|
HS Code |
204990 |
| Product Name | Rhodobacter Sp. |
| Organism Type | Purple non-sulfur bacteria |
| Cell Shape | Rod-shaped |
| Gram Stain | Gram-negative |
| Metabolism Type | Photoheterotrophic |
| Oxygen Requirement | Facultative anaerobe |
| Optimal Temperature | 25-35°C |
| Optimum Ph | 6.8-7.5 |
| Primary Use | Wastewater treatment, aquaculture |
| Motility | Motile with polar flagella |
| Pigmentation | Reddish to purple |
| Nitrogen Fixation | Capable of nitrogen fixation |
| Carbon Source | Organic compounds |
| Light Requirement | Can grow in light and dark conditions |
| Salinity Tolerance | Tolerant to a range of salinity |
As an accredited Rhodobacter Sp. factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White HDPE bottle with secure cap, labeled "Rhodobacter Sp. 100g," featuring handling instructions and batch number, stored in sealed packaging. |
| Shipping | The chemical **Rhodobacter Sp.** is shipped as a live bacterial culture, typically in a sterilized, leak-proof container with sufficient medium to maintain viability. It is packed in insulated materials with cool packs to ensure temperature stability during transit and shipped via expedited service to maintain organism integrity and activity. |
| Storage | Rhodobacter sp. should be stored in a cool, dark place, ideally at 4°C, to preserve bacterial viability. Cultures should be kept in sterile, airtight containers to prevent contamination and desiccation. If storing for long-term use, glycerol stocks can be prepared and stored at –80°C. Avoid repeated freeze-thaw cycles to maintain the integrity and viability of the culture. |
| Purity 99%: Rhodobacter Sp. with purity 99% is used in aquaculture water treatment, where it enhances organic waste degradation and reduces ammonia levels.Viable Cell Concentration 1x10^9 CFU/mL: Rhodobacter Sp. at viable cell concentration 1x10^9 CFU/mL is used in bioaugmentation for wastewater treatment, where it improves nitrogen and phosphorus removal efficiency.Stability Temperature 4°C–40°C: Rhodobacter Sp. with stability temperature 4°C–40°C is used in probiotic feed additives for livestock, where it promotes gut microbiota balance and boosts animal immunity.Lyophilized Form: Rhodobacter Sp. in lyophilized form is used for biofertilization in rice paddies, where it accelerates decomposition of organic matter and increases crop yield.pH Tolerance Range 5.5–9.0: Rhodobacter Sp. with pH tolerance range 5.5–9.0 is used in aquaponics systems, where it maintains high metabolic activity across variable water conditions.Particle Size < 50 µm: Rhodobacter Sp. with particle size less than 50 µm is used in microencapsulation for controlled release formulations, where it ensures consistent delivery in agricultural applications.Photosynthetic Activity Rate >80%: Rhodobacter Sp. with photosynthetic activity rate over 80% is used in bioreactors for hydrogen production, where it maximizes biohydrogen yield. |
Competitive Rhodobacter Sp. prices that fit your budget—flexible terms and customized quotes for every order.
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Years of hands-on cultivation and daily observation have made it clear to us that Rhodobacter Sp. stands in a class of its own within phototrophic bacteria. This microorganism, belonging to the family of purple non-sulfur bacteria, delivers more than just textbook promise; its track record in real-life applications shines through. Engineers, wastewater plant operators, aquaculture managers, and agriculture professionals keep returning for Rhodobacter, citing its reliability and visible results in the field. As the team actually culturing these bacteria, we monitor every batch from mother culture to active product. Our bacterial model utilizes non-GMO, well-characterized strains, maintained in controlled, sterile fermenters to avoid contamination and ensure living cell viability.
Our Rhodobacter Sp. cultures grow on mineral medium designed to support robust growth and metabolic output. Once scaled, every lot is checked for live cell count and purity using selective plating methods and microbial microscopy. Typical cell density exceeds 1.5x109 CFU/mL, supporting stable and predictable results in every application. Unlike powder-form alternatives or dried bio-augmenting agents, our liquid suspension preserves the metabolic functions such as breakdown of organic carbon, ammonia removal, and vitamin B12 synthesis, which play a critical role in fast-acting processes.
Many clients share their frustration over inconsistent results with non-specific bacterial blends. Our experience backs their concerns. Mixed microbial products sourced from uncertain background or those pushed through distributors often show reduced cell viability, less enzymatic activity, and unwanted contaminants. Rhodobacter Sp., grown right in our facility, provides a single, well-studied microbe with a robust scientific record. Compared with green algae or other phototrophs promoted for nutrient cycling, our strain demonstrates higher resilience in shifting pH, salinity, and temperature. This makes it especially popular in coastal aquaculture systems and heavily loaded bioreactors. Operators tell us their ponds stay free from odor and their livestock gain measurable health benefits—faster growth rates and improved feed conversion—without the chemical aftertaste or fluctuating efficacy of generic supplements.
We also hear from wastewater treatment facilities, often working with limited budgets and strict regulation. Rhodobacter Sp. helps handle shock loads of organic matter and recalcitrant compounds like phenols and heavy metals. Our teams receive daily feedback from sites where discharge readings drop below legal thresholds in less time than with generic bio-enzymatic blends. The bacteria work by converting organic waste into harmless byproducts, aided by light if available, but they also continue respiring anaerobically when oxygen levels dip. Unlike many bio-augmentation cultures that decline in low-oxygen tanks, our liquid formula stays viable and metabolically active, reducing the need for emergency dosing or chemical fallback.
Direct feedback from the field often pinpoints subtle differences between products. Operators of aquaculture systems, for example, notice increased shrimp survival and improved water clarity only after switching to our Rhodobacter Sp. Freshwater and marine setups, brackish mixing zones—this bacterium adapts fast. Our manufacturing process uses a proprietary inoculum derived from decades of isolation, stored in sub-zero cryostats to maintain genetic stability. Every production batch gets tested against reference standards, not only for viable count but also for metabolic capabilities, such as degradation of hydrogen sulfide and reduction of biological oxygen demand (BOD).
We avoid carrier agents, non-specific fillers, and freeze-dried preservation steps that could limit microbial potential. Our experience shows that competing products blend a cocktail of bacteria that may fight for the same substrate or produce antagonistic effects on target environments. Rhodobacter Sp., in contrast, occupies a unique metabolic niche. Its photoheterotrophic lifestyle means it uses light when possible but does not require it to remain active, a trait that maintains performance across diverse installations. This cuts downtime and reduces the frequency of reapplication seen when using less robust blends. We have seen, in large-scale ponds and packaged treatment modules, that Rhodobacter outpaces competitive products, especially under fluctuating field conditions.
The main demand for Rhodobacter Sp. comes from aquaculture sector—particularly shrimp, tilapia, and ornamental fish producers who cannot take risks with disease dynamics. After introducing the product, farm technicians report stronger immune response in stock, most likely due to the bacterium’s ability to produce carotenoids, polyamines, and vitamins. No need to explain these benefits twice when the bottom line—increased yield, fewer mortalities—is so vivid. In hydroponic agriculture, the bacteria promote root health by suppressing plant pathogens such as Pythium and Fusarium. Greenhouse managers document more consistent root mass, less waterlogging, and denser shoot growth after regular dosing.
On the environmental front, the role of Rhodobacter Sp. has been gaining more recognition. In pilot studies, remediation teams use the bacteria to process landfill leachate and contaminated sediment. Here the bacteria convert harmful compounds into benign forms, such as nitrogen gas or acetic acid, by harnessing their versatile metabolic pathways. Teams favor our culture because they can directly measure drops in chemical oxygen demand (COD), sulfate concentration, and even heavy metal mobility in treated samples. Regulatory agencies conducting independent verification cite Rhodobacter’s contribution to reducing regulatory fines and local environmental impacts. While laboratory reports echo similar findings, we see the biggest changes come from real-world operation—less foul odor, clearer water, increased safe discharge.
Many bacteria-based solutions arrive with bold marketing but little evidence from operational settings. We appreciate that success depends not on paper promises but hard facts from repeated use. Over dozens of production cycles, our team works with academic partners to run control trials, measure bioactivity in every shipment, and track fielded product’s impact on customer KPIs. Water quality analyses from commercial clients reveal total ammonia nitrogen (TAN) reductions up to 70 percent post-inoculation. Independent farm audits show survival rates rising by 10 to 20 percent after seasonal deployments, with no trace of antibiotic or chemical residues in feed-out samples.
We have also consulted with municipal waterplants that compared our living cultures to imported powders and blends sourced from resellers. The difference lies not only in consistent live counts but in faster onset of activity and more reliable performance during low-temperature or low-oxygen periods. One case—publicly reported by a provincial treatment center—showed that Rhodobacter Sp. dropped BOD levels from 85 mg/L to under 15 mg/L within eight days, well under regulatory cutoff and with no need to adjust aeration. The operations chief, working with strained budgets, reported reduced chemical costs for months following Rhodobacter implementation.
Customers care less about long-winded promotional text and more about what works at the pump or pond. Every batch leaves our facility with real, verified live bacterial counts and full traceability to source. We present transparent test sheets—not just broad claims—listing measured metabolic traits: nitrate reduction, phosphate mineralization, and volatile solids breakdown. Standard practice in our lab involves monitoring for byproduct profiles to exclude any risk of toxin or off-flavor compound development.
The benefit of producing Rhodobacter Sp. in controlled, biosecure conditions means we avoid contamination with non-beneficial microbes that can compromise outcomes. Our product contains a single, well-studied strain in sterile suspension, no chemical preservatives, no antifungals. End-users tell us that this attention to detail reflects in lower rates of foam, off-color, or pathogen resurgence common when using blends from less scrupulous sources. We prioritize shelf stability by maintaining cell vitality, not resorting to freeze-drying or excessive additives. This approach also simplifies application—measure, pour, stir, and walk away—with most activity establishing within 48 hours under field conditions.
Feedback collected from end users has shaped every cycle of our manufacturing process. Where other companies combine slow-growing, oxygen-dependent bacteria, or sell blends sourced from high-throughput fermenters with little strain control, we cultivate a specific, phototrophic organism with a unique energy metabolism. Rhodobacter Sp. stands apart for its ability to operate in microaerophilic and even anaerobic environments, harnessing light or organics as needed. This means consistent breakdown of waste even when oxygen supply falters or pond lighting fluctuates.
Other products, particularly freeze-dried or powdered options, often leave end users frustrated—settling in tanks without effective mixing, losing viability after a few weeks on the shelf, or simply not delivering the expected waste reduction or nutrient cycling. By focusing on a single, scientifically characterized strain, we provide predictable results, batch to batch. Aquatic managers have observed less sudden bloom and crash cycle behavior, reduced pathogenic outbreaks, and more consistent fish growth than seen with cocktail blends. Wastewater managers replace fewer filters and dosing pumps because the bacteria maintain metabolic activity through seasonal shifts and tank upsets.
Customers increasingly want proof of sustainability, not just buzzwords. Rhodobacter Sp. offers a way to upcycle agricultural waste and reduce chemical dependency. The bacteria excel at reclaiming nutrients from waste streams and turning them into forms that plants, animals, or downstream microbes can use. In our experience, aquaculture operations have cut chemical flocculants or copper treatments entirely by maintaining Rhodobacter at stable dose rates. This not only streamlines water quality management but cuts input costs across the production cycle.
We keep close track of how our cultures perform under stress—from sudden pH swings to cold snaps or feed overloads. Rhodobacter Sp. tends to rebound quicker than competing strains, minimizing downtime and reducing emergency intervention costs. In municipal wastewater or landfill leachate scenarios, these properties translate to real savings and fewer compliance issues—a fact that gets attention from both field technicians and management.
Being the actual manufacturer, we are in a unique position to continuously improve based on daily feedback and in-house trial results. Our technical team oversees every aspect, from selecting the starter culture to the formulation used in large-scale production. No batch leaves the facility without passing quality checkpoints for contamination, activity, stability, and consistent characterization.
We work directly with end users—never through third-party resellers or anonymous supply chains—because every facility and pond comes with its own quirks and challenges. Open discussion with users has led us to adjust cell count targets, improve packaging, and even optimize the mineral composition for maximal output in different applications. Most importantly, every professional who chooses Rhodobacter Sp. knows they can call with a real-world problem and speak directly to a scientist who has grown, studied, and applied the bacteria themselves—rather than getting routed through sales scripts or generic support lines.
Rhodobacter Sp. remains the result of decades of continuous development, rigorous testing, and genuine field input—from factory staff and outside operators alike. Our ongoing cooperation with research institutes allows us to keep validating the metabolic benefits and working lifespan of each new lot. We believe this honest, evidence-first approach is the only way to build long-term, sustainable solutions in biological treatment, and customer success stories keep confirming that choice. The greatest validation comes not from marketing brochures but from seeing clean, healthy water, vigorous crops, and lower chemical use across client operations. For us, Rhodobacter Sp. represents a living legacy of manufacturing integrity and proven environmental performance.