|
HS Code |
565796 |
| Scientific Name | Kirchneriella obesa |
| Common Name | Green microalga |
| Kingdom | Plantae |
| Phylum | Chlorophyta |
| Class | Chlorophyceae |
| Order | Sphaeropleales |
| Family | Selenastraceae |
| Cell Shape | Crescent or spindle-shaped |
| Typical Habitats | Freshwater ponds and lakes |
| Cell Size Micrometers | 10-40 |
| Chloroplasts | Single, parietal chloroplast per cell |
| Colony Formation | Often forms loose colonies of 2–16 cells |
| Reproduction Method | Asexual via autospores |
| Motility | Non-motile |
| Color | Bright green |
As an accredited Kirchneriella Obesa factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Kirchneriella Obesa culture supplied in a sterile 250 mL clear plastic bottle, labeled with scientific name, batch number, and handling instructions. |
| Shipping | Kirchneriella obesa is shipped in sealed, sterile containers to prevent contamination. Packages are temperature-controlled to maintain sample viability, and labeled according to all regulatory guidelines for biological materials. Shipping includes tracking and expedited delivery to ensure the algae arrives fresh and viable for research or cultivation. Safety data is included. |
| Storage | Kirchneriella obesa, a freshwater green microalga, should be stored in a cool, dry, and dark environment if kept as a dried sample. For live cultures, maintain at 18-22°C in sterile, nutrient-rich medium under moderate light with a 12:12 light-dark cycle. Seal containers tightly to prevent contamination, and label clearly with species name and date. |
| Purity 98%: Kirchneriella Obesa with a purity of 98% is used in bioremediation of wastewater, where high organic contaminant reduction is achieved.Dry Biomass Concentration 1500 mg/L: Kirchneriella Obesa at a dry biomass concentration of 1500 mg/L is used in biofertilizer production, where enhanced soil nutrient content results.Cell Viability >95%: Kirchneriella Obesa with cell viability above 95% is utilized in aquaculture feed formulations, where improved fish growth rates are observed.Lipid Content 22%: Kirchneriella Obesa with a lipid content of 22% is applied in biodiesel synthesis, where increased fuel yield is ensured.Chlorophyll Content 18 mg/g: Kirchneriella Obesa with a chlorophyll content of 18 mg/g is used in natural pigment extraction, where superior colorant stability is maintained.Stability Temperature 22°C: Kirchneriella Obesa stable at 22°C is employed in laboratory culture systems, where consistent biomass productivity is achieved.Particle Size 5 µm: Kirchneriella Obesa with a particle size of 5 µm is used in microalgae-based filters, where effective micro-particulate trapping occurs.Growth Rate 0.35/day: Kirchneriella Obesa with a growth rate of 0.35/day is applied in photobioreactor biomass generation, where high cell densities are reached efficiently.Protein Content 43%: Kirchneriella Obesa with a protein content of 43% is utilized in animal feed supplements, where enhanced nutritional value is delivered.pH Tolerance Range 6.5-8.5: Kirchneriella Obesa with a pH tolerance range of 6.5-8.5 is used in open pond cultivation, where robust culture maintenance is possible under variable conditions. |
Competitive Kirchneriella Obesa 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!
At our production site, the journey from research to commercial-scale supply demands more than compliance and optimization – it requires an ongoing commitment to reliability, consistency, and knowledge sharing. Kirchneriella Obesa stands as one of our mainstay microalgae strains in both R&D and bulk manufacturing, and its value keeps growing as new uses appear in biotechnology, wastewater management, and environmental restoration. Our experience over years of scaling up culture systems for microalgal biomass shapes every batch and supports every technical conversation we have with partners and clients worldwide.
Kirchneriella Obesa belongs to the Sphaeropleales order of green algae. The natural strain draws attention for its simple crescent-shaped cells, ability to thrive under a broad range of light intensities, and high tolerance for varying nutrient loads in liquid culture. Our production lines have been running Kirchneriella Obesa for long enough to see clear differences in biomass yield, growth curve stability, and ease of harvesting, compared to other algal options. Some strains respond well to careful atmospheric control; others tend to crash under shifts in pH or unexpected temperature changes. Kirchneriella Obesa consistently demonstrates superior resistance to environmental stress and unpredictable water sources, giving operators wider windows of process flexibility.
In bulk tanks, cultures of Kirchneriella Obesa build a lively green suspension that recovers quickly from low nitrogen or phosphorus runs. Manual inspection shows these crescent cells concentrate well with gravity separation. Downstream equipment like disc-stack centrifuges or membrane filters, which sometimes clog or shear fragile algae, handle Kirchneriella Obesa biomass with fewer incidents and smoother operation. We’ve seen reduced foam and less troublesome cell debris after harvesting, cutting the time spent on process adjustments and cleaning.
Commercial culture of Kirchneriella Obesa inevitably turns attention to both input parameters and final quality attributes. Years of observation at industrial scale clarified the batch-to-batch variation and process requirements. Our seed cultures originate from controlled laboratory selection, passing regular contamination checks and photometric verification at each stage. After upscaling across flat-panel photobioreactors and pond systems up to thousands of liters, cell counts often stabilize above ten million per milliliter within optimal temperature ranges (between 18–28°C) and neutral to slightly alkaline pH. Experienced staff keep a close watch for color changes or aggregation that hint at stress, drawing on tight in-process data and visual tracking.
Clients and partners often ask about the differences between Kirchneriella Obesa and more widely marketed algal strains, like Chlorella vulgaris or Scenedesmus obliquus. Direct head-to-head tests at our site reveal that Kirchneriella Obesa, while somewhat slower in absolute initial growth rate, can outpace competitors over the total cultivation cycle due to less frequent biomass crashes and lower sensitivity to low light. Cell morphology and buoyancy profiles also change handling: Kirchneriella Obesa settles efficiently, and cells withstand moderate disturbances, which results in easier decantation and more consistent pellet formation.
Kirchneriella Obesa finds increasing application in the treatment of municipal and industrial wastewaters, largely because real-world water streams present challenges that laboratory-coddled strains cannot handle. The compact crescent cells adapt rapidly to nutrient spikes and low-dilution conditions, which suits decentralized facilities or overloaded storage basins equally well. During collaborative pilots with utility operators, Kirchneriella Obesa cultures reached high nutrient removal rates, especially for ammonium and orthophosphate, without dramatic shifts in pH or sudden sedimentation events.
In biofertilizer production, the robust cell wall and mild taste profile of Kirchneriella Obesa offer both process and agronomic advantages. Whether dried into powder or used as a wet paste, the final product incorporates smoothly into complex soil blends. Farmers receiving samples frequently remark on how the algae granules disperse evenly, showing little clumping under storage or after field application. Crop cultivators searching for a controlled-release nitrogen source find value in the thicker cell envelope, which slows microbial degradation but lets controlled leaching take place, feeding plants over weeks instead of all at once.
As a living aquatic supplement in aquaculture, Kirchneriella Obesa displays strong resistance to grazing. Its crescent cell shapes fit the uptake preferences of small rotifers and filter-feeders, yet resist collapse and maintain nutritional quality under tank stresses. Operators in recirculating aquaculture systems report less filter fouling and lower dissolved organic load, since the harvested algal fraction comes cleaner and includes fewer weak or dying cells compared to rounder or more fragile species.
Experimental work in bioplastics is beginning to single out the rigid wall structure and dense internal energy stores of Kirchneriella Obesa for thermoplastic compositions. In technical trials, adding processed algal powder to biopolymer resin batches delivers better filler distribution and tensile strength than some of the older, more brittle candidates. This opens more possibility for upcycling nutrient recovery algae into materials for the construction or packaging sector, turning former waste treatment organisms into a feedstock for value-added products.
Laboratory propagation always looks simple compared to what happens once a process moves outdoors or into large photobioreactors. Over hundreds of runs, Kirchneriella Obesa has taught our teams about adaptation. Cultures stand up to periods of low sunlight and temperature swings that would kill high-value, but fragile, relatives. Field tanks – often subject to windblown debris and inconsistent monitoring – rarely suffer from the runaway blooms of contaminant species which have disrupted our Scenedesmus or Chlorella lines. This robustness lets us operate more confidently, with less downtime and lower reliance on chemical additives for cleaning or pest control.
We have also learned that fine-tuning nutrient inputs can stretch batch-lifetime and optimize the protein-to-carbohydrate ratio in final biomass. By keeping close records of nitrogen consumption rates and evaluating total lipid content per batch, operators dial in feed rates and harvest times. Batch yields of Kirchneriella Obesa can reach significant dry mass without the sharp tail-offs or degenerate growth that haunt more fragile green algae. This helps build predictable supply schedules for customers and gives our logistics teams more control over shipment planning.
The commercial algae space continues to fill up with species targeted at specialty chemicals, high-protein feeds, or environmental services. Many operators gravitate toward fast-growing genera but face issues with contamination, culture crash, and high energy inputs. Kirchneriella Obesa makes a strong case through practical demonstration instead of only headline nutrient values or growth rates. In our own production facility, comparison batches run on matched feedstocks show lower fouling on equipment, denser pellet recovery, and friendlier operator handling. By contrast, strains like Chlorella or Nannochloropsis force engineers to spend more effort tuning aeration profiles, pH adjustments, and anti-foam protocols.
On the analytical side, the composition of Kirchneriella Obesa presents balanced protein levels and a steadier lipid fraction than most Scenedesmus products from open pond systems. Fatty acid evaluation shows higher omega-3 content than some terrestrial fodder plants, giving it a distinct edge for users prioritizing animal health. The milder, less bitter flavor profile leads to easy acceptance in aquaculture and even limited animal feed trials. These practical findings continue to build confidence in its suitability for closed-loop or specialty nutrition environments.
Operating on a shoestring budget or implementing a remote site brings unique risks. Many promising algal strains falter the first time contaminated water or nutrient fluctuations disrupt a tank. Kirchneriella Obesa has survived dry spells, equipment shutdowns, and rain-diluted conditions that have set back other lines. Operators rely on visual inspections for daily assessment, since the culture quickly signals health through color and flocculation. There is less risk of silent die-offs, so lab staff can catch the early signs of trouble and steer recovery before permanent losses mount.
On the processing floor, centrifuge operators see real gains in throughput and product cleanliness. Centrate flows clearer, with less sporadic foaming and less clogging at downstream dewatering stages. We find that filtration cycles last longer, and maintenance downtime drops over repeated campaign runs. Efforts poured into process optimization for fragile algae like Haematococcus pluvialis rarely carry over, but Kirchneriella Obesa permits a degree of process forgiveness, which lowers rookie error costs and improves new-staff onboarding.
Inventory managers and logistics teams check batch homogeneity every cycle. Kirchneriella Obesa delivers consistent color, moisture, and granule size after drying and sieving in our plant. End-customers benefit from stable packaging conditions and easier blending in their manufacturing workflows. By reducing batch-to-batch QA issues, the product lets downstream users plan without left-curve surprises. This degree of predictability pulls Kirchneriella Obesa ahead where practical operational stability matters as much as textbook yield numbers.
Producers, regulators, and customers all care deeply about traceability and lifecycle impact of new biotech materials. Throughout our experience, Kirchneriella Obesa aligns neatly with the current movement toward circular economy practice. Our site runs side-by-side pilots that recover nutrients from treated water and re-channel them straight back into algae growth tanks. Recent LCA models score Kirchneriella Obesa in the upper percentiles for net carbon drawdown per gram dry weight, particularly when operated as a side-stream cleaning process for wastewater or digester effluent. By integrating spent water recapture, we push the boundary on input efficiency, slashing both input costs and total environmental footprint.
Looking toward market trends, regulatory sandboxes are opening for high-protein alternative feedstocks, with Kirchneriella Obesa well-positioned for acceptance due to its robust safety profile and low allergenicity. Already, industrial trials in several sectors use this algae as a bridge between traditional inputs and emerging circular products, from improved organic fertilizers to bioplastics with better moisture resistance. Workers and QA teams report fewer odor complaints or handling incidents compared to volatile or fermentation-derived materials, which widens acceptance.
Actual industrial experience demonstrates clearly how upstream control of culture conditions, combined with resilient strains, delivers smoother downstream processing and strengthens the entire supply chain. Kirchneriella Obesa steps up not only as a strong performer today, but as a focal point for what’s coming next in clean, reliable, and regenerative materials production.
No new material, however promising in textbooks, establishes a reputation without passing through industrial-scale treatment and demanding customer feedback. Our close work with Kirchneriella Obesa has revealed a microalga that can stand up to the real-world tests: unpredictable weather, inconsistent quality feedstocks, hands-on operator oversight, and fickle supply chain demands. Its strengths repeat at every touch point – robust culture, predictable recovery, straightforward logistics, and reliable downstream performance.
This algae works for operators who value consistency and resilience alongside green chemistry metrics. As a manufacturer that has run the gamut from small-batch research lineups to full-scale, multi-client campaigns, we trust our firsthand observations more than any abstract product chart. Kirchneriella Obesa keeps showing that practical output, ease of processing, and flexibility to meet shifting market needs matter as much as purity or headline yield. It has already built a reputation inside water reclamation, aquaculture, and specialty feed sectors, and its real-world proof points are only growing. For anyone seeking bio-based solutions that need fewer interventions but deliver more consistent returns, Kirchneriella Obesa stands ready for the next challenge.