|
HS Code |
394052 |
| Name | Thalassospira xianhensis |
| Type | bacterium |
| Genus | Thalassospira |
| Species | xianhensis |
| Gram Stain | Gram-negative |
| Cell Shape | rod-shaped |
| Motility | motile |
| Isolation Source | sediment from the Western Pacific Ocean |
| Optimal Temperature | 28°C |
| Oxygen Requirement | aerobic |
| Salinity Tolerance | moderately halophilic |
| Colony Color | pale yellow |
| Flagellation | single polar flagellum |
| First Described Year | 2013 |
As an accredited Thalassospira Xianhensis factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White, sealed plastic bottle containing 10 grams of *Thalassospira xianhensis* lyophilized powder; labeled with product name, batch, and storage instructions. |
| Shipping | Shipping of *Thalassospira xianhensis* is performed under strict controlled conditions. The bacterial culture is typically dispatched in leak-proof, sealed containers, often on dry ice or with cold packs to maintain viability. Packaging complies with international biosafety regulations for non-hazardous, biological materials, ensuring safe and secure delivery to authorized laboratories. |
| Storage | **Thalassospira xianhensis** should be stored as a freeze-dried culture or as a glycerol stock at -80°C to preserve viability. Store in a certified microbiological refrigerator or freezer. Avoid repeated freeze-thaw cycles. Label containers clearly with strain designation and storage date. For short-term storage, maintain at 4°C on appropriate agar slopes. Handle following biosafety guidelines for marine Gram-negative bacteria. |
| Purity 99.5%: Thalassospira Xianhensis with purity 99.5% is used in marine bioremediation processes, where it enhances the degradation rate of petroleum hydrocarbons. Salt tolerance 12%: Thalassospira Xianhensis with salt tolerance 12% is used in high-salinity wastewater treatments, where it maintains robust metabolic activity for consistent pollutant removal. Cell density 1.2×10⁹ CFU/mL: Thalassospira Xianhensis at cell density 1.2×10⁹ CFU/mL is used in industrial bioaugmentation, where it accelerates organic matter decomposition. Temperature stability 45°C: Thalassospira Xianhensis with temperature stability up to 45°C is used in thermophilic fermentation systems, where it supports efficient substrate conversion under elevated temperatures. Growth rate 0.25 h⁻¹: Thalassospira Xianhensis with growth rate 0.25 h⁻¹ is used in continuous bioprocessing applications, where rapid biomass accumulation increases process throughput. Enzyme yield 120 U/mL: Thalassospira Xianhensis producing enzyme yield 120 U/mL is used in biocatalytic synthesis, where high enzymatic activity boosts product formation rates. pH stability range 6.5–9.0: Thalassospira Xianhensis with pH stability range 6.5–9.0 is used in variable pH industrial effluent treatments, where it ensures consistent biodegradation efficiency. Emulsification index 65%: Thalassospira Xianhensis with an emulsification index of 65% is used in oil spill mitigation, where it increases oil dispersion and bioavailability for microbial breakdown. Genetic marker presence (16S rRNA): Thalassospira Xianhensis identified by the 16S rRNA genetic marker is used in environmental microbiology studies, where precise monitoring of population dynamics is required. Phosphate solubilization rate 85 mg/L: Thalassospira Xianhensis with phosphate solubilization rate 85 mg/L is used in sustainable agriculture, where improved nutrient availability promotes plant growth. |
Competitive Thalassospira Xianhensis 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!
As a chemical manufacturing team with years in bioprocess development and strain optimization, we recognize bacterial strains as foundational tools in the world of industry and sustainability. Thalassospira xianhensis stands out among marine bacteria. Its metabolic features, genetic stability, and resilience in demanding environments have caught the attention of researchers and industry operators alike. Our process starts with careful isolation and growth, leading to a product suitable for real-world demands, not just laboratory curiosities.
We have worked extensively with Thalassospira xianhensis strain MCCC 1A03042, paying close attention to its performance at scale. From the earliest fermentations, the strain demonstrated robust survival even when nutrient availability shifted or minor impurities appeared in the substrate. Years spent troubleshooting large-batch production made it clear that this strain does not suffer from the common pitfalls seen in less-tolerant marine bacteria, such as rapid population crashes or unpredictable metabolic output. We have tested and retested culture survivability, optimizing growth parameters to fit bulk media recipes.
We monitor every batch for initial cell density, metabolic profile, and genetic stability using PCR and HPLC. The final product delivers a consistent outcome batch after batch, whether freeze-dried or as an active wet culture. Detailed inspection of each lot is a practice we do not abandon, since small process hiccups in the early stages can have amplifying effects downstream.
Specifications depend on the intended application, but for most customers, we ship Thalassospira xianhensis in quantities ranging from several liters of concentrated acute-phase biomass to dry powder formulations in kilogram sacks. Permissible storage times, cold-chain requirements, and viable cell counts are all included in our data sheets that accompany each shipment.
Research and real-world testing have repeatedly highlighted the unique features of Thalassospira xianhensis. The genus Thalassospira was first described in the early 2000s, with xianhensis emerging later after more marine expeditions identified its distinct oxidative metabolism and salt tolerance. We have spent years comparing native, wild-caught isolates against closely related marine bacteria like Thalassospira profundimaris and Thalassospira lucentensis. Thalassospira xianhensis offers more reliable performance in high-salinity brines, often remaining metabolically active for over 30 days in systems that induce rapid dormancy in others.
Unlike many commercial bacterial blends, which can be prone to genetic drift or lose effectiveness under industrial stress, this strain holds its genomic integrity over repeated subculturing. We confirm this by routine genome sequencing. We have run parallel fermentations with standard terrestrial and freshwater strains, and no other group in our lines comes close to handling fluctuating sodium concentrations above 3% for extended periods. Our fermentation team reports that culture health rarely dips below 90% across multi-month production cycles.
Thalassospira xianhensis distinguishes itself with a metabolic pathway that can degrade hydrocarbons, including some aromatic compounds, alongside a high resistance to toxins such as phenol and certain heavy metals. Many remediation strategies for marine contamination build on this strain's natural capabilities. We have collaborated with environmental engineers to field-test Thalassospira xianhensis in oil-polluted seawater, and results showed faster breakdown of long-chain alkanes than mixed consortia alternatives, especially under dynamic temperature and salinity profiles.
A key difference in our process comes from long experience producing viable microbial products at an industrial scale. Many suppliers focus on upscaling quickly, but our team invests time in optimizing fermentation controls, adjusting aeration, agitation speeds, and nutrient delivery to match the strain’s requirements. Routine microscopy checks ensure correct cell morphology and absence of rogue contaminants.
Customers engaged in marine bioremediation, aquaculture water quality management, or specialty chemical biosynthesis approach us for high-viability cultures. Thalassospira xianhensis can be deployed directly into saltwater bioreactors, open-pond treatments, or even directly into contaminated marine sediments where other strains might perish. We guide clients on acclimatization procedures, such as gradual salinity ramping or co-inoculation with nutrient amendments.
In industrial wastewater applications, the difference in output from this strain shows up quickly. Where typical bacteria lose metabolic rate once sodium content rises, Thalassospira xianhensis keeps working—processing organic pollutants and certain xenobiotics far longer. Several clients in port wastewater treatment have reported improved load reduction over six-month campaigns, even in the presence of oil residues and periodic biocide pulses.
On our shop floor, side-by-side fermentation runs offer the best perspective on true differences. Alternative marine strains like Alcanivorax borkumensis, once celebrated as the oil-eating champion of open water, display a narrower substrate range and greater need for careful nutrient balancing. Some proprietary microbial blends we have acquired for compatibility tests lose up to 50% of their active cells after freeze-thaw cycles due to weaker membrane resilience. Thalassospira xianhensis exhibits excellent survival in both lyophilized and chilled suspension formats, with round-the-clock team checks showing greater than 75% viability after three months in cold storage.
Pricing models behind marine bacterial products often look similar, covering bulk cell volumes and guaranteed activity. Beyond the invoice, the real separation emerges in operational savings: less frequent dosing, more durable performance during water chemistry spikes, and reduced risk of total loss from system shocks.
Where other bacteria falter in high-salt or mixed contaminant settings, Thalassospira xianhensis continues to function. For example, we have set up bench-scale trials against citrulline and glycine betaine excreting competitors. Only Thalassospira xianhensis supports active degradation in the full range of brine compositions tested, while also self-limiting excessive biomass. This reduces clumping in systems where pipework limitations or filter fouling can be expensive to fix.
Marine biotechnology is more than just genome sequencing and lab publications. Delivering cultures at scale involves real risks: batch failure, culture collapse, contamination, and inconsistent results. Our experience with Thalassospira xianhensis gives us a platform for supporting partners who want predictable and robust performance outside the lab. Clients have used our strains for bioaugmentation during oil terminal cleanups and for treating saline effluents before discharge.
Environmental consultants come to us with samples from affected ports and refineries. We culture and analyze microbial dynamics directly using Thalassospira xianhensis, often confirming its dominance within mixed inocula after competitive selection. This focus on real-site efficacy informs every decision back at the plant, from formulation tweaks to container design. Each lesson from a field deployment, even when things did not go as planned, shows up in our refinements—be it medium composition or cell preservation techniques.
We train our technical support staff to troubleshoot on-site bottlenecks, not just recite technical sheets. Actual field failures matter: such as dead zones inside large tank treatments or unexpected pH changes that slow metabolism. Our own experience deploying Thalassospira xianhensis in varied geographic regions, from temperate to sub-tropical, has produced a handbook of practical solutions. We share these with customers as part of the supply relationship: real recipes, not marketing platitudes.
Beyond commercial batches, we maintain a research line dedicated to enhancing Thalassospira xianhensis further. Investment in adaptive laboratory evolution and directed mutagenesis has produced sub-lines with tolerance for wider salinity shifts and improved capacity for aromatic compound breakdown. We run competition assays head-to-head against environmental isolates under stress conditions—such as heavy metal surges or surfactant additives—and select only those sub-strains that keep division rates high.
Scaling up is not just about selling bigger batches. Stable, high-performance cultures depend on the right cryopreservation, seed bank stock management, and feedback loops from our QA lab straight to production vessels. The complexity of real-world marine systems challenges every theoretical promise. Each failed experiment or inconsistent result traces back to a tweak in growth conditions, a hidden contaminant, or unexpected batch variability. Only by closing that feedback loop fast do we keep Thalassospira xianhensis consistent and valuable for daily, industrial-scale use.
We engage in cooperative partnerships with academic teams who are discovering more about Thalassospira xianhensis genomics and regulatory networks. While others aim for rapid commercial expansion, we believe patience and troubleshooting matter more in developing reliable products. Having seen process improvements slash batch-to-batch variation year by year, our story with Thalassospira xianhensis remains ongoing.
Any marine bacterium worth deploying in the real world needs reliable performance and clear data backing every claim. Every production run for Thalassospira xianhensis starts with a culture traceable to our master seed line. Our technicians log each lot from inception through scale-up, with checkpoints for contamination, mutation, and product stability. Documentation matters, not for bureaucracy, but to verify lineage and handle any questions about unusual field outcomes.
Health and safety are a constant concern in the industrial setting. We produce Thalassospira xianhensis under biosafety protocols that meet national and major international standards. Our QA team conducts quarterly audits on cleanroom practices, materials handling, and cross-contamination controls, and our supply chain remains transparent—each batch can be traced back to a production day and initial freezer bank.
End users seek clarity on doses, deployment techniques, and response timeframes. We document storage, mixing, and application instructions based on observed outcomes, not simply theoretical recommendations. For oil-polluted water, we outline dose rates refined over dozens of remediation jobs. For chemical synthesis, we recommend process setups that address foaming, nutrient partitioning, and pH swings particular to Thalassospira xianhensis’s metabolic rhythm.
Problems happen: live cultures can lose potency, shipping delays sometimes affect cell viability, or customer tank conditions differ from bench-top models. Our approach addresses these realities directly. We stress test lots using time-delay challenges and temperature fluctuations to simulate the real-world journey from plant to site. Guidance for customers includes what to do with late arrivals or with unanticipated clumping during re-hydration. We do not just send out standard advice—we collect user reports and adjust instructions to close the gap between theory and practice.
A recurring challenge involves finding the sweet spot between shelf stability and rapid performance. We have invested in different carriers and conversion techniques, testing powdered, liquid, and encapsulated forms under ongoing QA assessment. Not every application benefits from the same formulation. For example, dry powder forms work well for large site inoculation but may need longer mixing; active wet formats suit high-flow tanks but require careful refrigeration. We draw on customer experiences accumulated across many deployment styles to guide new users.
Having observed the scale-up pains, practical failures, and breakthroughs of marine bioprocessing firsthand, we can say that Thalassospira xianhensis consistently repays the investment in care and process. It has a proven record of surviving and working in marine and hypersaline settings where other “marine blends” falter. Real test data from refinery wastewaters, oil terminal cleanups, and aquaculture recirculation systems show a pattern: faster organic breakdown, lower cell loss, less fouling, and tighter batch-to-batch cell density.
Its resistance to osmotic stress means fewer interventions, fewer lost batches, and less unplanned downtime. Customers running 24/7 operations benefit from this kind of reliability, and our long-term partners find peace of mind in knowing that every shipment delivers predictable results. We have spent years fine-tuning shipping containers, protective carriers, and active packaging—each improvement comes from learning what happens onsite, not just what looks good on a spreadsheet.
Ongoing feedback from our industrial partners and field teams keeps us refining both the strain and the service. The unique metabolic toolkit of Thalassospira xianhensis, its proven marine tolerance, and our growing experience base together set it apart from the crowd. Over a decade, every challenge has deepened our understanding and ability to deliver not just a culture but a full solution to marine and saline-contaminated environments.
We do not rest on early success. Every new region, industrial process, or pollution challenge brings a need to adapt batch handling and deployment advice. Thalassospira xianhensis remains central to our future planning as we explore broader sustainable chemistry and environmental remediation opportunities. Its stability, performance, and proven record deliver tangible benefits to partners who need outcomes, not promises. The work continues, and every batch, with every shipment, carries the lessons learned from all who put these cultures to the test in the field.