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HS Code |
899424 |
| Scientific Name | Saccharomyces cerevisiae |
| Common Names | Baker's yeast, Brewer's yeast |
| Type | Single-celled fungus |
| Appearance | Round to oval cells, 5–10 μm in diameter |
| Habitat | Commonly found on ripe fruits and plant exudates |
| Optimal Temperature | 30-35°C |
| Ph Range | 4.0-6.0 |
| Application | Bread making, brewing, wine fermentation, bioethanol production |
| Genome Size | About 12 million base pairs |
| Reproduction | Asexual (budding) and sexual (spore formation) |
| Nutritional Requirements | Carbon, nitrogen, vitamins, and minerals |
| Industrial Use | Production of enzymes, pharmaceuticals, and food additives |
As an accredited Saccharomyces Cerevisiae factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White plastic bottle with secure screw cap, labeled "Saccharomyces Cerevisiae, 100g" in blue text, stored in protective outer carton. |
| Shipping | **Saccharomyces cerevisiae** is typically shipped in sealed, airtight containers to prevent contamination and maintain viability. The product is stored at controlled temperatures—often refrigerated or at room temperature depending on its form (dry or liquid). Shipping includes labeling for biological material and relevant safety data, following regulatory guidelines. |
| Storage | Saccharomyces cerevisiae, commonly known as baker’s yeast, should be stored in a cool, dry place, ideally at 2–8°C (refrigerated) to maintain its viability. Keep it in a tightly sealed container to avoid moisture and contamination. For long-term storage, freezing at –80°C is recommended. Protect from direct sunlight, and use aseptic techniques when handling to ensure purity. |
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Purity 99%: Saccharomyces Cerevisiae with purity 99% is used in pharmaceutical fermentation processes, where it ensures high-yield active compound synthesis. Viability Rate ≥95%: Saccharomyces Cerevisiae with viability rate ≥95% is used in baking applications, where it delivers rapid dough leavening and consistent texture. Cell Count 1x10⁹ CFU/g: Saccharomyces Cerevisiae at cell count 1x10⁹ CFU/g is used in animal feed supplementation, where it improves gut microflora and nutrient absorption. Particle Size ≤50 µm: Saccharomyces Cerevisiae with particle size ≤50 µm is used in beverage fermentation, where it enables uniform mixing and enhanced flavor profile development. Stability Temperature up to 40°C: Saccharomyces Cerevisiae with stability temperature up to 40°C is used in bioethanol production, where it maintains fermentation efficiency in elevated temperature environments. Moisture Content ≤8%: Saccharomyces Cerevisiae with moisture content ≤8% is used in dry yeast formulations, where it supports extended shelf life and preservation of organism activity. Thermotolerance up to 45°C: Saccharomyces Cerevisiae with thermotolerance up to 45°C is used in high-temperature fermentation industries, where it sustains optimal metabolic rates without viability loss. Genetic Stability: Saccharomyces Cerevisiae with genetic stability is used in recombinant protein production, where it guarantees expression consistency across production batches. |
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In the fermentation community, Saccharomyces cerevisiae holds a respected spot. We have produced, cultivated, and standardized our yeast strains in-house for decades, investing each year in refining our approach. Drawing from our bioreactor facilities and process control improvements, every batch flows from science-backed steps and careful monitoring—not speculative practice. Many customers come to us asking about differences between strains, or why they see performance variations from various sources. We think it's important to lay out what contributes to these outcomes and how our focus touches every lot we ship.
For commercial fermentation, we center our work on models of Saccharomyces cerevisiae selected for their robust growth and tolerance in challenging conditions. The classical S.c. 1026, for example, powers most of our bread yeast and beverage lines. For industrial bioethanol, a strain tolerant to osmotic and alcohol stress, like our workhorse S.c. 3082, takes front stage. Some look to Saccharomyces cerevisiae for direct-fed purposes in animal feed, where cell wall integrity and nutrient profile become crucial for ruminant and monogastric applications.
Specification involves more than basic cell counts. We measure viable cell concentration, attenuation rates, contamination screens, and stress response limits for each product sku. For folks running continuous fermenters or batch dough processes, stability and rehydration speed change the difference between a workable shift and a troubleshooting nightmare. Our in-house labs certify aerobic and anaerobic performance before release.
Our yeast supports food and feed workers in three main areas—baking, fermentation, and livestock feed. Bakers rely on a reliable rise, consistent crumb, and stable storage. Our strains activate at a broad temperature range with short proofing times, keeping up with demands at plant scale.
In brewing and bioethanol, customers want speed, high final yields, and minimal stuck fermentations. We supply ale and ethanol strains that stand up to repeated cycles and resist phage and wild yeast pressures. For dairy and beverage industries, our isolation and quality control cut the risks of foreign yeast or bacteria sneaking in.
For direct-fed microbials in cattle, swine, and poultry, live yeast modulates gut flora. We observe higher weight gains and healthier gut scores on-farm when animals receive our fresh, viable product, not leftovers from outdated inventory. We manufacture feed grade yeast within forty-eight hours of packing, ensuring maximum viability for farm delivery.
Customers ask why our yeast saves downtime, saves money, or produces higher-quality end products. Real-world experience has shown us small details—down to hydration, storage, nutrient blending—shape big outcomes. In bread plants, consistency matters as much as gas production. A yeast that provides even lift avoids wasteful, collapsed loaves and off odors. For brewers, minus five percent residual sugar on a ten-thousand-liter tank equals significant cost savings and happier tasters.
We keep strain performance tight batch to batch. A deviation in budding rate or stress resistance can show up in massive scrap rates. That’s why, across thousands of fermentation batches per year, we keep tabs on genetic drift and maintain a locked master seed bank. From the first inoculum to the final pack, we rely on trained microbiologists, not automation alone. Our team runs Gram stains, stress tests, and growth rate assays every week.
Many yeast on the market gets resold through traders or private labels, running through hands that have never once handled active fermentation. We cultivate, monitor, and finish every lot, which gives us direct command over the full process. That authority cuts response times and supports troubleshooting requests from frontline bread and beverage operators.
Another dividing line is freshness. Old yeast loses gas production even if it looks fine under the microscope. We’ve found customers moving from warehouse stock to our direct supply gain extra shelf life and faster starts. For feed users, this means animals receive viable yeast, not inert, depleted cells. Shorter time from manufacture to loading proves key for large integrators and feed mealers.
Fermentation isn’t forgiving of inconsistencies. Rainfall, temperature, nutrient availability, or contamination can cause variation at nearly any step. Our fermentation techs monitor dissolved oxygen, pH, and cell density each hour, taking hands-on readings and logging anomalies. If a shift develops a spike in unwanted metabolites or an odd flocculation, we course-correct before packing the finished yeast. We reject any lot that does not meet our full panel of performance tests.
On the problem-solving side, customers have faced process interruptions and unexpected downtimes using stock from untraceable sources. Our approach means we track every batch from production tank to customer blend room. If a bakery or plant runs into a wall, we send someone with direct experience—usually a veteran who knows fermentation chemistry, not a marketing rep. Troubleshooting often finds root causes in hydration timing, water temperature, or nutrient ratios, and we provide guidance based on field experience rather than pamphlets.
Biotech has grown more transparent in recent years, with calls for traceability in ingredient sourcing. Every yeast cell we ship arises from a process using certified raw ingredients and monitored stepwise fermentation. We use renewable inputs where possible and follow strict quality protocols, documented from strain selection through propagation and down to packaging. We run full tracebacks on every supply lot, with digital archives stretching back decades. If a recall or quality issue arises, we track its origins within hours.
As food producers face regulations that demand documentation and traceability, we provide the paperwork and digital records necessary for compliance. Our policies line up with evolving standards not just because regulators ask for them, but because customers want to know what’s in their products.
Feedback loops matter in fermentation, not only in tanks but also on the business side. Each season, bakers, brewers, and feed buyers share on-the-ground experiences about process hurdles or shifts in their raw material quality. We use these direct reports to adjust strain selection, production timing, and support resources. In the last five years, increased demand for non-GMO and allergen-free lines pushed us to expand our product options and boost facility certifications.
Our R&D group acts on these trends by selecting new Saccharomyces cerevisiae strains—ones that tolerate lower sugar, new dough stabilizers, or different substrate mixes derived from evolving ingredient lists. For the ethanol industry, we chase higher yields and resistance to process inhibitors. Testing happens in real-world settings, with partner plants giving true feedback instead of pilot-scale guesses.
Fresh yeast keeps its value only with careful handling. Moisture, temperature, and shipping delays can sap power before product hits customer hands. We package under reduced oxygen and low-temperature systems, shipping direct from our closest plant. Warehouse delays are minimized so baked goods, beverages, or animal rations all benefit from peak yeast activity, not tired cells.
Years of field trials taught us the risks and results of subpar transport and storage. Yeast left in high humidity or at warm sites can deteriorate, with losses showing up as sluggish fermentation, lower gas production, or increased spoilage. We work with regional carriers who understand live product requirements, and provide customers with tracking and alerts for every load.
Manufacturing volume lets us balance supply to real-world demand rather than speculative overproduction. Small batch runs for specialty industries receive the same controls as bulk batches. We stand behind every delivery, with a multi-level support system responding to any question or complaint.
Our strain bank includes cultures optimized for different industries—each one maintained without shortcuts. For food and beverage work, we standardize on clean, antigen-free yeast lines with rapid CO2 production and minimal off-flavors. For bioprocessing or feed use, we select those that remain robust under wide pH and temperature swings.
Performance gets measured not only by yield but by consistency over time. A strain that works perfectly in May might falter by October with small changes in substrate or water. Our people run seasonal checks, tracking shifts in inputs and adjusting fermentation conditions before issues surface. We keep detailed notes so long-term customers see stable results year after year, even as agriculture and input sources change.
Saccharomyces cerevisiae, bred and cultivated through careful selection, outperforms wild or non-targeted yeasts in most controlled fermentation applications. Its quick start, aggressive gas production, and stability in various environments place it ahead of many non-Saccharomyces options. Other genera, such as Candida or Kluyveromyces, remain useful for specialty fermentations or unique flavor profiles, but rarely match the reliability in bread, beverage, or bulk ethanol runs.
One major distinction comes from fermentation profile. Saccharomyces cerevisiae consumes a wider array of sugars, maintains high output over more cycles, and shows better resistance to bacterial contaminants. Non-target yeasts and wild isolates often bring unpredictable gas production, pH drift, or off-odors, with more batch-to-batch uncertainty. For industrial users, that uncertainty multiplies risk and downstream complication.
Within Saccharomyces cerevisiae itself, differences in origin and propagation matter. A strain optimized for wine fermentation, for example, pulls out subtle aromatic compounds but may underperform in bread or bioethanol. Our catalog reflects these realities—with separate lines tested and bred for baking, brewing, or animal feed. Each receives tailored propagation and quality checks.
Purchasing from a company with direct experience in cultivation—rather than buying relabeled or repackaged yeast—removes many sources of surprise. We can answer not just how a batch formed, but why it works as intended, based on tangible data, not marketing copy.
Resource management and responsible effluent handling have changed the way we approach yeast manufacturing. Our process engineers work to reduce freshwater use with recirculated streams and water treatment. Surplus yeast liquid, once considered a byproduct, now feeds biogas systems or serves as a nutrient base for secondary agricultural applications.
We operate within increasingly rigorous environmental guidelines and see this as a path to more secure long-term production—not a constraint. Waste reduction, energy budgeting, and life-cycle analyses guide both daily practices and capital spending. We complete regular third-party audits to ensure we back up claims of improved energy use and resource recovery.
After years in the fermentation field, we see that being a true manufacturer involves responsibility—both for the visible results in customer hands and for how our actions ripple out through food and feed chains. Saccharomyces cerevisiae stands as a foundation for both new and traditional processes, and our commitment remains rooted in steady improvement through science, hands-on know-how, and openness to feedback.
Brewers, bakers, and agricultural partners keep us honest; their daily outcomes and challenges push our own standards higher. Having watched new trends rise—low-sugar, clean-label, alternative feedstocks—we adjust our catalog by experimenting, adapting, and listening, not simply repeating formulas from the past. That continuous contact with real-world users sets us apart from resellers or white-label importers.
Our best improvements, from revised strain libraries to more robust packaging and storage routines, all came about through real-world necessity. We believe only direct experience—from fermentation tanks to shipping rooms—builds the trust necessary to deliver Saccharomyces cerevisiae that works right out of the bag, year after year.