|
HS Code |
927814 |
| Scientific Name | Microbacterium oxydans |
| Strain Type | Bacteria |
| Taxonomy | Actinobacteria |
| Cell Shape | Rod-shaped |
| Gram Stain | Gram-positive |
| Oxygen Requirement | Aerobic |
| Motility | Non-motile |
| Spore Formation | Non-spore forming |
| Habitat | Soil, water, and decaying organic matter |
| Biosafety Level | BSL-1 |
| Industrial Use | Bioremediation and enzyme production |
| Optimal Growth Temperature | 25-30°C |
| Colony Appearance | Yellow-pigmented |
| Catalase Activity | Positive |
| Oxidase Activity | Variable |
As an accredited Microbacterium Oxydans factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, sealed plastic bottle labeled "Microbacterium Oxydans," with safety symbols, batch number, and net contents: 100 grams. |
| Shipping | Microbacterium oxydans is shipped in compliance with biosafety regulations, typically as a lyophilized culture or on agar slants, within temperature-controlled, leak-proof, and clearly labeled packaging. Shipment includes proper documentation and is handled as a non-pathogenic bacterial strain, suitable for laboratory use. Delivery is prompt to ensure culture viability. |
| Storage | **Microbacterium oxydans** should be stored as a lyophilized culture or on agar slants at 2–8°C for short-term preservation. For long-term storage, maintain the culture in glycerol stocks at –80°C or in liquid nitrogen. Ensure containers are tightly sealed and clearly labeled. Protect from light, desiccation, and contamination to maintain viability and purity. |
| Purity 99%: Microbacterium Oxydans with Purity 99% is used in industrial bioremediation processes, where it ensures efficient degradation of organic pollutants.Cell density 1x10^9 CFU/mL: Microbacterium Oxydans at Cell density 1x10^9 CFU/mL is utilized in wastewater treatment, where it achieves rapid reduction of chemical oxygen demand (COD).pH stability 6.0–8.0: Microbacterium Oxydans with pH stability 6.0–8.0 is applied in soil remediation projects, where it maintains consistent biodegradation activity across variable environments.Enzyme activity ≥500 U/mg: Microbacterium Oxydans with Enzyme activity ≥500 U/mg is incorporated into starch processing, where it enhances the conversion efficiency of carbohydrates.Temperature tolerance up to 45°C: Microbacterium Oxydans with Temperature tolerance up to 45°C is employed in composting operations, where it accelerates organic matter decomposition under elevated temperatures.Particle size <5 μm: Microbacterium Oxydans with Particle size <5 μm is introduced in bioaugmentation formulations, where it enables improved dispersion and microbial contact in contaminated soils.Growth rate 0.25 h⁻¹: Microbacterium Oxydans with Growth rate 0.25 h⁻¹ is deployed in fermentation systems, where it increases overall process yield and productivity.Shelf life 12 months: Microbacterium Oxydans with Shelf life 12 months is supplied for environmental inoculant kits, where it provides extended product usability and storage stability. |
Competitive Microbacterium Oxydans 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.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Every decision in microbial product development flows from what works in the field and on the production line. Our years of scaling up microbial solutions for industrial use have taught us the value of reliability, processing flexibility, and clarity in what a microorganism can deliver. Microbacterium oxydans ranks among the workhorses in our fermentation portfolio, especially where customers expect sustainable performance in biotransformations, organic acid production, or wastewater applications.
Fermentation success always depends on upstream consistency and downstream ease of use. Instead of chasing every novel strain, we focus on strains that can run long hours without yielding to production headaches. Microbacterium oxydans has earned its place after hundreds of batch runs, where genetic stability, clear substrate specificity, and resistance to common process upsets repeatedly deliver as expected.
We cultivate our Microbacterium oxydans on a platform designed for repeatable batch control. The reference model we supply is derived from our proprietary, authenticated wild-type isolate, preserved in a curated seed bank for decades. The model that leaves our fermentation plant traces a history of consistent colony morphology, robust cell mass accumulation, and uniform metabolic output. We avoid genetic drift by limiting the number of passages and run quality checks at key stages, from seed flask to harvest.
Specifications go beyond certificate-of-analysis basics. Cultures reach a minimum logarithmic growth stage for optimal viability without early lysis. Biomass concentrations reach at least 1 x 109 CFU/g (dry basis) at harvest, far above the minimum needed for most process applications. Lyophilization preserves cell activity, allowing end users flexibility whether resuspending for inoculation or direct application in liquid streams. We check for contaminants by plating serial dilutions, and we sequence marker genes for every 50th batch to verify strain retention.
Our powder and liquid concentrate formulations follow direct feedback from operators. Small particle sizing in powders prevents caking, mixes freely, and doesn’t settle out in feed tanks. The liquid form features a buffered stabilizer blend, allowing storage at 4°C for two months without loss of bacterial activity, though fresh batches are usually processed and shipped out in under ten days.
End users range from industrial enzyme producers and bio-catalysis operators to municipal wastewater plants and researchers exploring gentle yet efficient oxidation routes. In our own biotransformation lines, Microbacterium oxydans has steadily enabled production of gluconic acid from glucose feedstocks, cutting down process time and chemical input. The oxidative capabilities of this microbe suit applications where mild conditions are preferred to aggressive pH or heavy metal catalysis. Our technical support team frequently consults bioreactor operators on adjusting oxygen supply and agitation to exploit the bacterium’s aerobic metabolism, making sure yields keep up without foaming or oxygen starvation.
Comparing strain performance reveals why we favor this particular bacterium for production rather than more common Bacillus or Pseudomonas strains. Bacillus options handle certain bioremediation tasks but release spores that clog lines or disrupt sterile environments. Pseudomonads have broader metabolic ranges, which sometimes produces unwanted byproducts and regulatory noise. Microbacterium oxydans targets oxygen-dependent oxidation of glucose more cleanly, sticking mostly to gluconic or keto-acid intermediates, making chromatographic separation cleaner downstream.
Feedback from on-site operators reinforces our approach. Field engineers highlight the culture’s resilience to fluctuating feedstock purity and moderate salinity levels, which often cause stress in more specialized strains. In large fermentors with incompletely mixed substrates, Microbacterium oxydans reliably finds a steady production rate, rather than the stalled growth sometimes seen in fragile, engineered strains.
From inoculation to harvest, our staff maintain rigid hygiene and PPE protocols. Microbacterium oxydans doesn’t produce hazardous spores or significant exotoxins under industrial conditions, giving a safer work environment compared to some Actinobacteria. Still, we lock down our workflows with regular surface swabbing and culture monitoring—lessons learned in deployments where minor contamination has downstream effects.
Shipping and warehousing considerations matter for our logistics team. Preserved lyophilized cultures survive ambient shipping for short durations, but we ship most orders cold-packed by default, guaranteeing that each vial or bag performs at full cell count upon delivery. We remain committed to minimizing spoilage, so we monitor internal transit temperatures and contact receivers before final dispatch.
Disposal advice for customers reflects our actual experience, not generic waste handling scripts. Our strains break down organic substrates without leaving high concentrations of recalcitrant residues, making standard effluent treatment sufficient. For researchers scaling up for the first time, we offer advice on sterilizing vessels and neutralizing cultures, drawn from our own batch shutdown protocols.
We don’t layer in technologies for novelty’s sake. Over many production cycles, our team tested alternative media and oxygenation strategies. The microbe performs best with balanced carbon and nitrogen, so we draw on a mix of cane sugar, yeast extract, and locally sourced minerals. Air supply management also plays a large role—aeration rates above 1 vvm increase yield up to 18% based on our five-year production log. For those running smaller fermentors, we suggest baffle upgrades or impeller adjustments, knowledge rooted in fixes that kept our own pilot lines productive.
Our continuous improvement program depends on real-time production data. Each production campaign outputs not just cell mass but also volumetric product yields, pH flux, and residual carbon balances. We flag batches showing deviation early, pulling them from outbound packing. This keeps product releases tied to in-use outcomes, not just theoretical specifications. Whenever customers report new challenges, we loop feedback directly into our next process review.
Raw material traceability also sets our product apart. Each input—from sugars to micronutrients—is certified non-GMO and tracked lot by lot. Our supply chain staff run third-party contaminant screens for heavy metals and pesticides, steps that originated from years of food ingredient fermentation, not just microbial prep work.
Users often ask why we continue with Microbacterium oxydans instead of switching over to newer, genetically tweaked strains widely seen in synthetic biology portfolios. Practicality outweighs novelty. Newer strains promise higher yields on paper but lack the decade-long run record in commercial tanks. Operators dealing with regulatory audits and large-scale outputs need predictability over theoretical boosts.
Our own head-to-head comparisons with other high-oxidative strains underline the stability advantage of Microbacterium oxydans. Never once has our core strain produced off-flavor taints or unexpected byproducts under certified operation conditions. Users in flavor and fragrance precursor production value this, since even small off-notes spoil batch outcomes.
We engage weekly with customers who prototype other species and cross-reference their yields against Microbacterium oxydans. Most highlight strong performance even at variable temperatures (18°C to 32°C), noting no performance drop until extreme conditions set in. Our process logbooks confirm these findings—a comfort when end-users can’t control every parameter perfectly.
Supply chain reliability also shapes why we continue with this organism. Instead of chasing patents or licensing issues, our base strain is clear of ownership entanglement. This means customers aren’t forced into long-term exclusivity contracts or surprise price hikes for derivatives. Complete transparency in strain source reflects our focus on practical manufacturing relationships over short-term IP advantage.
Beyond bulk supply, we invest time in helping clients tune their process settings. Bioreactor design tweaks, nutrient rationing, oxygen-injection schedules, and keeping agitation energy costs down—every suggestion draws from our own run notes. We share process curves and historical data so customers know what’s possible, not just what’s theoretical. Site visits often spark further collaboration as we help troubleshoot scale-up issues or optimize inoculum propagation.
Through workshops and client audits, we verify that our Microbacterium oxydans maintains its genetic profile, metabolic performance, and safety record. Customers can review our batch history, gene sequencing logs, and storage conditions. This open book approach isn’t just for regulatory compliance—it’s our way of building technical trust brick by brick.
Some operators use our cultures for pilot runs before scaling up, while others transition directly into commercial-scale bioprocessing. In each case, we stand by with process troubleshooting, documentation, and specialist guidance from our own fermentor managers—staff who’ve run batch after batch under real-world production stress.
We believe improvement hinges on what happens beyond our factory gate. Each quarter, we collect outcome reports from client bioreactors to see how Microbacterium oxydans performs under different setups. Process outliers are analyzed by our technical team alongside customer personnel, and any lesson learned shapes the next run back at our plant.
Shipment timelines, cold chain efficacy, user handling mistakes, and even minor formulation tweaks—all get logged and reviewed. Staff from our quality, production, and tech support groups meet regularly to analyze the input, adjust SOPs, and publish updated handling advice. We prioritize action on signals that come straight from production lines, rather than relying solely on supplier doctrine or trade show promises.
Waste treatment sites report that Microbacterium oxydans maintains organic removal across input water pH ranges, so we now advise pH neutrality for new operators. Process industries using the strain for sugar oxidations note the gap between lab predictions and industrial-scale performance, leading us to run long-term bioreactor stability trials. These steps came not from generic instructions but from active listening and adapting based on lived use cases.
Plenty of other microbial product suppliers pitch strains based solely on literature results, missing that plant-to-plant variability and practical handling challenges often change the story. Our commitment keeps us grounded: each batch of Microbacterium oxydans is grown, tested, and delivered by hands-on teams who report directly on what works and what needs to be fixed.
Markets move quickly, and customer demands shift with regulatory climates or input cost swings. Our operation stays ready by maintaining diversified input suppliers, running dual-path production batches, and holding reserve stocks from validated lots. Such redundancy, built into our process by necessity and not as a selling point, gives customers confidence that their source won’t dry up from a single supply chain hitch.
We set ourselves apart by refusing to oversell the organism’s capacity. We’re clear about the actual yield ranges possible with real-world substrates. Some promoters oversell “magic bullet” microbe solutions that don’t survive uncontrolled pH, variable feed purity, or oxygen slumps. Our ongoing pilot partnerships demonstrate how Microbacterium oxydans manages these everyday shifts—no need for silver bullet claims, just consistent delivery proven by batch returns.
Producing live microbial cultures carries a responsibility to workers, end-users, and the environment. While Microbacterium oxydans doesn’t emit toxins or spread by spores, our production processes follow rigorous containment and handling plans. Facility cleaning, staff training, and controlled product release matter just as much as what happens in the fermentor.
We treat each order as a partnership, investing in site-specific guidance for product mixing, application timing, and end-of-life disposal. Environmental goals shape process development, such as sourcing renewable feed materials and minimizing process water waste. Our wastewater co-treatment lines use the same bacterial strain, showing that our manufacturing practices reflect what we recommend to buyers.
Regulatory teams audit our plant annually, but internal review cycles run every month. This regular oversight has steadily reduced batch loss to contamination and improved cell viability, giving downstream users better product and less unpredictability. Our environmental audits, shared with interested customers, detail our steps on energy use, waste minimization, and feedstock origin, offering transparency to partners who demand sustainability as well as technical reliability.
In a culture of frequent product switches and short-term trends, we anchor our work to demonstrated results and real feedback. Microbacterium oxydans delivers in fields ranging from industrial fermentation to wastewater polishing, not by being the flashiest microbe but through steady, reliable output. Our investment in robust, monitored production and hands-on customer support matches the needs of operators who can’t afford trial runs on untested strains.
Each production lot, from spore-free starter through to finished concentrate, receives attention from fermentation experts who’ve seen the ups and downs of commercial scale. Our plans for future development focus on improving production efficiency, expanding substrate tolerance, and continuing to document performance at every point where customers interact with the product. We collaborate with academic and industrial researchers to unlock new applications only where real value meets practical feasibility.
Those already using Microbacterium oxydans in existing workflows know what consistent product delivery feels like: fewer surprises, better downstream outcomes, and transparency throughout the supply chain. We dedicate ourselves to backing up these outcomes—not only with certificates and analysis but through rapid, informed technical support and honest communication about every batch. Our goal stretches beyond the next order to building long-standing trust, earned by making sure each vial or drum serves the customer’s needs the way it serves our own.