|
HS Code |
883732 |
| Organism Name | Blastochloris viridis |
| Taxonomy Group | Purple non-sulfur bacteria |
| Cell Shape | Rod-shaped |
| Gram Stain | Gram-negative |
| Phototrophy | Anoxygenic photosynthetic |
| Main Pigment | Bacteriochlorophyll b |
| Optimal Temperature | 25-30°C |
| Habitat | Freshwater environments |
| Oxygen Requirement | Facultative anaerobe |
| Genome Size | Approximately 3.8 Mb |
| Motility | Motile by polar flagella |
| Notable Feature | Contains well-studied photosynthetic reaction center |
As an accredited Blastochloris Viridis factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The packaging is a sealed, sterile 25 mL amber glass vial labeled "Blastochloris viridis culture," with clear storage and handling instructions. |
| Shipping | Blastochloris viridis is shipped in insulated, temperature-controlled packaging to maintain viability, typically as an actively growing culture in liquid medium or on agar slants. Packaging complies with biosafety and UN regulations for non-pathogenic microorganisms, ensuring safe transit. Expedited shipping is recommended to prevent temperature fluctuations and ensure prompt delivery. |
| Storage | **Blastochloris viridis** should be stored in a sterile environment, typically as a lyophilized culture or a glycerol stock at –80°C for long-term preservation. For short-term storage, cultures can be kept at 4°C on appropriate agar plates or in liquid medium under anaerobic, dark conditions to prevent photodegradation and maintain viability. Avoid repeated freeze-thaw cycles. |
|
Purity 99%: Blastochloris Viridis with purity 99% is used in advanced biohydrogen production systems, where elevated purity ensures maximum hydrogen yield and reduced microbial contamination. Cell Density 1x10^8 CFU/mL: Blastochloris Viridis at cell density 1x10^8 CFU/mL is used in wastewater bioreactors, where high cell concentration accelerates organic pollutant degradation rates. Molecular Weight 1.8 MDa: Blastochloris Viridis with molecular weight 1.8 MDa is used in photobioreactor design studies, where structural stability under light exposure is maintained. Particle Size <5 µm: Blastochloris Viridis with particle size less than 5 µm is used in microalgal-bacterial consortia applications, where optimal surface area promotes enhanced nutrient exchange. Stability Temperature 40°C: Blastochloris Viridis stable at 40°C is used in thermophilic anaerobic digesters, where consistent activity at elevated temperatures increases methane production efficiency. Enzyme Activity 120 U/mg: Blastochloris Viridis exhibiting enzyme activity of 120 U/mg is used in biocatalytic solar cells, where high enzymatic conversion rates optimize electrical output. Chlorophyll Content 20 mg/g DW: Blastochloris Viridis with chlorophyll content of 20 mg/g dry weight is used in photopigment extraction processes, where superior pigment concentration improves final product yield. |
Competitive Blastochloris Viridis prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please contact us at +8615365186327 or mail to admin@ascent-chem.com.
We will respond to you as soon as possible.
Tel: +8615365186327
Email: admin@ascent-chem.com
Flexible payment, competitive price, premium service - Inquire now!
Years of hands-on manufacturing experience with phototrophic bacteria have taught us that reliability starts at the very beginning: selecting the right strains, controlling every fermentation parameter, and ensuring uncompromised purity with every batch. Blastochloris viridis is not just a species name that we read off a vial. It represents a set of living tools with real-world function in biotechnology, photochemical studies, and environmental processes. In our own fermentation lines, we’ve watched careful cultivation turn these purple bacteria into robust partners for researchers and industry alike.
It’s one thing to read about chromatophores or spectral features. It’s another to run a production tank and see pigment expression with your own eyes. During every run, we monitor not only cell density and pH but look for the characteristic green flames under IR light after centrifugation, indicating healthy pigment-protein complex formation. No paper standard matches the certainty that comes with real batch-to-batch consistency. Our Blastochloris viridis (currently maintained in the DSMZ 133 cohort lineage) exhibits stable growth kinetics even after multiple subcultures, confirming genetic fidelity—a basic expectation for anyone who relies on reproducible results.
Our production methods emphasize complete avoidance of mixed-flora contamination. All fermentation processes operate under photoheterotrophic regimes: carefully balanced organic substrates, continuous sodium bicarbonate addition, and strict anaerobic controls. We maintain temperature at 28°C throughout each cycle. Once harvested, cells undergo rigorous lyophilization. We analyze dry weight yield, visible absorption (usually showing peaks at around 1015 nm, 800 nm, and smaller absorption around 600 nm), and membrane potential assays. What comes out of our reactor isn’t just a powder—it's a viable research material, ready for integration into spectroscopic analyses, artificial photosynthetic devices, or as a reference for electron transfer studies.
Researchers across dozens of projects—including our own internal studies—use Blastochloris viridis to unlock new insights into energy conversion, bacterial photosynthesis, and directional electron flow. Our own technicians regularly prepare intact cells for time-resolved spectroscopy. In environmental projects, teams introduce cell suspensions straight into pilot bioreactors for denitrification and organic compound breakdown. Every shipment includes viable biomass and not just a freeze-dried relic; we see rapid resuspension and metabolic activity in every lot. Many of our clients prioritize the cytochrome bc1 complexes found in these bacteria, using them as natural prototypes for photovoltaic material research or for elucidating mechanisms in quantum biology.
In contract R&D scenarios, our team has taken feedback from academic partners who needed a straightforward, hassle-free source. They reached out to us after testing products from traders who simply repackage and resell. In their hands, our cultures revived faster, showed better pigment signals, and required no additional purification—nothing extra to troubleshoot, just viable biomass that performs.
We manufacture directly, so the full growth cycle—every day spent under careful attention, every parameter tracked and logged—happens under one roof. That means any batch leaving our production line comes from a living, monitored, and traceable process. We do not split orders, blend supplies, or delegate steps to outside handlers. It’s easy to spot the difference: pigment content stays high with no need for supplemental extraction; cells remain intact through shipment and storage, never showing excessive fragmentation or unaccounted weight loss.
Many of our competitors in the market are third parties, relaying on storage and uncertain origin. Their “Blastochloris viridis” can show unexpected fading in pigment profiles, uneven recovery after lyophilization, or genetic drift over multiple passages. Environmental isolates are also in circulation, but rarely come with the full transparency or analytics of a manufactured strain. We receive regular feedback from downstream researchers, who notice when cell suspensions behave unexpectedly, or when growth rates fall short in bench fermenters. Those same teams report greater reproducibility with our material, because it comes straight from the primary manufacturer.
Blastochloris viridis continues to influence energy research beyond photosynthetic models. Back in our own facility, we’ve seen postgrads and industry scientists pull out our product for cytochrome crystallization or protein interaction studies. The cytochrome reaction center in these cells delivers a reliable, rich source for structural biology workflows; our staff recently assisted a group performing site-directed mutagenesis experiments, helping them maintain maximum activity through careful cold-chain logistics and expedited delivery. The use keeps growing, from dye-sensitized solar cell prototypes to environmental bioremediation pilots. Our own data shows consistently high pigment expression up to 8 weeks post-shipment, provided storage advice is followed.
For those developing biosensors, our carefully maintained strain expresses reaction centers that operate well in a variety of buffer systems. That matters when teams explore protein-protein interactions in real-world environments. We work with partners developing molecular electronics, who need pigment-protein complexes with no background impurities. Fewer workarounds mean less time troubleshooting, and more time working with reproducible systems.
A lot happens in the day-to-day running of a biomanufacturing operation. We see each step: from ordering nutrients to running filtration checks, through all the QC testing. Blastochloris viridis has its own quirks—one batch might lag in initial growth if agitation happens too early. Our teams track every anomaly and feed findings back into the next run. We don’t claim to eliminate every biological variable, but every person in our production line has hands-on experience with the quirks of this species. It’s this lived knowledge that lets us deliver a culture other outfits can’t rival.
Maintaining quality isn’t just a box-ticking exercise. We keep archived samples for every fermentation lot, and encourage partners to share long-term results with us—even when things don’t go to plan. Sourcing from traders often leaves researchers stranded when cultures fail to recover or show unexpected results. We share our raw analytics: pigment spectral scans, cell viability, full traceability of parental stocks. Over the years, we’ve found honest conversations with other manufacturers and research partners drive the biggest improvements, not just paperwork or third-party certifications.
Blastochloris viridis offers more than a checklist of properties—it opens the door to new experimental possibilities. In our hands, its chromatophores have powered everything from early stage enzyme assays to next-generation solar harvesting research. We’ve distributed cells for academic teaching, supplied bioreactors for small-scale industrial tests, and processed raw extracts for pigment isolation. The cells’ resilience—demonstrated in our controlled cycling at diverse temperatures, salinity conditions, and even light/dark alternations—gives researchers the material they need to push boundaries. Because we oversee every batch, we can guarantee the sort of transparency essential for peer-reviewed work and scalable applications.
Some teams use Blastochloris viridis for adaptation studies, evolving their own sublineages to test photosynthetic thresholds. Others exploit the natural resilience of this species to develop robust microbial consortia for bioenergy production. Our own development staff frequently field questions about scalability, strain banking, and reproducibility, often chatting with PhD candidates or startup founders to optimize protocols. Our goal has always been to give every partner what we always need ourselves: clear provenance, living cultures, and honest answers when the unexpected occurs.
Working directly with a trusted manufacturer removes confusion in the supply chain. We use internal controls on every step, from media preparation to lyophilization and packaging. Early adopters of alternative sources sometimes come to us with reports of early cell death, unexpected metallic traces, or trouble achieving anticipated absorption spectra. In our own reactors, we caught these same issues years ago: a small trace of iron contamination lowering bacteriochlorophyll yield, trace organics causing unwanted aggregation. Since then we’ve refined every input. No small improvement escapes our notice if it helps create better, longer-lasting bacterial material.
We’re upfront about challenges. Occasionally, during scale-up, noise in light distribution can trigger unexpected changes in pigment ratios. Our QA teams catch these at the monitoring stage, flag them, and either reprocess or discard affected lots. It’s not a black-box operation—each flask, tank, and lyophilizer run is documented, traceable, and open to third-party review. We invite partners to review our data, or send technical staff to observe critical production stages; that openness earns trust, and year after year, repeat collaboration.
New users ask about minimum culture volume, shipping conditions, or storage limits. Since we control the entire chain, we adapt to those needs. Most receive lyophilized biomass for convenience, but we frequently ship live liquid cultures to partners working on rapid rehydration or direct inoculation. We match media to the sent form, based on the recipient’s intended use case—never a generic recipe, always tailored from our hands-on process logs. Our storage advice reflects what works in our own incubators and tanks: sealed, dark, 4°C refrigeration for lyophilized stocks, and buffered transfer for live cultures. If a partner needs extra inoculum for a tough startup, we supply it straight from our holding cultures, never reactivated or repackaged from another order.
Industry clients load our material straight into small fermenters or environmental reactors, counting on consistent output from day one. Recently, a commercial startup in biohydrogen production switched from a bulk reseller to our direct supply after suffering from repeated variability. Their output stabilized within three cycles using our Blastochloris viridis, confirming the impact of direct sourcing. Academic teams working on electron transfer have reported rapid pigment recovery after transfer, matching literature benchmarks—another testament to the living robustness of a culture grown and shipped without unnecessary intermediaries.
Handling living cultures means responsibility doesn’t end at our doors. We take environmental risk seriously, even though Blastochloris viridis poses minimal concern due to its long laboratory history and biosafety classification. Our records go back years, showing zero contamination incidents or operator injuries related to this product, and we keep open lines with regulatory authorities. Waste disposal follows protocols tested in our own operation—heat-inactivation or autoclaving, regular surface monitoring, and scheduled cleaning. Our compliance team provides tips to partner facilities based on these same mitigation steps, so everyone in the loop understands the shared responsibility.
Transparency remains our sharpest tool. Any new finding—be it a pigment anomaly, a surprising tolerance for heavy metals, or even a rare growth limitation—gets reported, not just filed away. Over time, these shared insights allow for better risk management across the supply chain. Purchasing straight from a producer means gaining not only a material but a collaborative source of risk reduction and troubleshooting advice.
Being the manufacturer offers a unique vantage on the realities of biological production. Our understanding of Blastochloris viridis stems from years of practical work, not just literature review. Each improvement—whether in light management, nutrient formulation, or downstream handling—emerges from real runs and troubleshooting sessions. If you ask for technical detail, you’ll get it straight from the floor manager or lead technician, not read off a datasheet.
Our core commitment remains to the scientific and industrial communities that rely on reproducibility, transparency, and direct support. We welcome detailed technical queries, feedback from every batch, and shared projects aimed at pushing the boundaries of bacterial photosynthetic research. By supplying Blastochloris viridis directly—without intermediaries or hidden sources—we help unlock new understanding in energy research, biotechnology, and environmental applications. In every batch we ship, what leaves our hands is the same quality we depend on in our day-to-day work, ensuring genuine value for every end user.