|
HS Code |
264813 |
| Product Name | Glucosinolates |
| Chemical Class | Sulfur-containing glycosides |
| Molecular Formula | C6H11NOS2R (varies with side chain) |
| Appearance | White to pale yellow crystalline powder |
| Solubility | Soluble in water, insoluble in most organic solvents |
| Occurrence | Naturally found in Brassicaceae family plants (e.g., broccoli, cabbage, mustard) |
| Biological Role | Precursor to isothiocyanates and other bioactive compounds |
| Stability | Stable under neutral conditions, hydrolyzed by myrosinase enzyme |
| Storage Conditions | Store in a cool, dry place away from light and moisture |
| Applications | Used in food science, nutrition, and plant defense studies |
As an accredited Glucosinolates factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | White HDPE bottle containing 100 grams Glucosinolates powder; tamper-evident seal, labeled with product name, batch number, and storage requirements. |
| Shipping | Glucosinolates are typically shipped in tightly sealed, light-resistant containers to prevent degradation. They should be kept cool and dry, away from direct sunlight and sources of heat. During transit, the packaging must comply with chemical safety regulations, ensuring protection from moisture, contamination, and physical damage for safe delivery. |
| Storage | Glucosinolates should be stored in a cool, dry, and dark environment, typically at temperatures below 4°C to prevent degradation. They are sensitive to light, heat, and moisture, which can lead to hydrolysis or decomposition. Samples are best kept in airtight containers, preferably under inert gas such as nitrogen, and should be protected from repeated freeze-thaw cycles to maintain stability. |
| Purity 98%: Glucosinolates Purity 98% is used in nutraceutical formulations, where enhanced bioavailability and antioxidant capacity are achieved.Particle size 50 µm: Glucosinolates Particle size 50 µm is used in animal feed additives, where improved mixing uniformity and absorption are observed.Stability temperature 80°C: Glucosinolates Stability temperature 80°C is used in food preservation processes, where thermal degradation is minimized.Molecular weight 400-500 Da: Glucosinolates Molecular weight 400-500 Da is used in pharmaceutical research, where specific targeting of cellular pathways is facilitated.Aqueous solubility 10 mg/mL: Glucosinolates Aqueous solubility 10 mg/mL is used in beverage fortification, where rapid dissolution and homogeneous dispersion are delivered.Melting point 150°C: Glucosinolates Melting point 150°C is used in high-temperature food processing, where structural integrity and active component retention are maintained.Residual solvent <0.1%: Glucosinolates Residual solvent <0.1% is used in cosmetic formulations, where product safety and regulatory compliance are ensured.Sulfate content 7-10%: Glucosinolates Sulfate content 7-10% is used in metabolic studies, where modulation of enzymatic activity is consistently observed.Storage stability 12 months: Glucosinolates Storage stability 12 months is used in commercial ingredient supply, where prolonged shelf life and functional performance are guaranteed.pH stability range 4–8: Glucosinolates pH stability range 4–8 is used in liquid dietary supplements, where bioactivity and formulation consistency are preserved. |
Competitive Glucosinolates prices that fit your budget—flexible terms and customized quotes for every order.
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At our plant, we draw on decades of specialization to produce glucosinolates that meet the precise demands of our partners in the food, agriculture, and biomedical sectors. Glucosinolates, a group of naturally occurring sulfur-rich compounds found in cruciferous vegetables, have attracted the attention of scientists, nutritionists, and formulators for a simple reason: these molecules deliver remarkable biological effects, ranging from plant defense to human health benefits. Anyone who has followed research into broccoli, mustard, or wasabi knows that their health value comes in large part from these compounds and their hydrolysis products, such as isothiocyanates.
Processing glucosinolates presents challenges from start to finish. The inherent reactivity and diversity of their molecular backbone can complicate isolation and storage. From our manufacturing floor, managing purity, stability, and batch consistency becomes a daily focus. In practice, we have found that temperature swings during extraction or storage can alter both the structural integrity and the breakdown pattern of the product. Keeping glucosinolates chemically stable often defeats less rigorous suppliers, leaving behind degradation products that skew research results or lower potency in formulated foods and feed.
Our R&D teams have pursued multiple extraction and purification pathways for different model compounds (like sinigrin, glucoraphanin, and gluconasturtiin). No factory process or solvent extraction shortcut can replace hands-on attention and analytical testing at every step. For separation, we rely on chromatography methods paired with spectroscopic and chromatographic analytics including HPLC and LC-MS. This is not just about hitting a number on a spec sheet—it comes down to confidence that what enters a laboratory protocol or production blend is the intended glucosinolate in its active form, not a collection of partially degraded analogs.
Every batch leaves our facility meeting strict benchmarks for identity and purity. For example, our standard sinigrin monohydrate model consistently measures above 98% by HPLC, a level that ensures precise dosing in nutritional trials or reference applications. The same holds for our glucoraphanin lots—frequent and redundant verification cuts down on the chances of contamination with related, less active glucosinolates. Consistency proves most critical for research institutions running comparative trials, or for food producers pursuing functional ingredient claims. Our team does not view specification sheets as checkboxes. Experiences with end-users prompt us to focus on the full impurity profile, the pattern of thermal decomposition, water content, and even subtle variations in crystallinity. These factors can spell the difference between a stable bioactive ingredient and a rapidly degrading one in storage or application.
Customers sometimes ask if cheaper botanical extracts from resellers, often promising higher yields or broad-spectrum actives, can substitute for pure glucosinolate isolates. Our internal data and repeated QC analysis suggest otherwise. Mixed-extract products rarely carry a consistent profile of known actives or a reliable breakdown on storage. This can lead development teams into repeated trial-and-error cycles, spending more on validation and quality rejections.
Agricultural operators have come to us in search of efficient biofumigation agents. Brassica-derived glucosinolates, especially as feedstock for releasing isothiocyanates in soil, perform double duty—improving soil health while suppressing nematodes and pathogens. Not all glucosinolate types target these threats equally. Sinigrin, for example, reliably transforms into allyl isothiocyanate with strong biocidal properties, while glucoraphanin yields sulforaphane, favored for its milder yet potent bioactivity beneficial to crop resilience. The purity at which we deliver these compounds affects soil dosing rates, residue management, and, importantly, the confidence that the delivered compound drives the intended agronomic result every time.
On the food science side, precision in ingredient specification matters for both regulatory compliance and for the clean labeling movement. Food customers tell us that batch variability in active levels, taste, or color from third-party extracts can compromise a finished product’s quality, shelf life, and regulatory standing. Glucosinolates can be powerful tools in functional foods, fortified beverages, and even culinary preparations where controlled release of spicy flavors or health actives is required.
Biomedical and pharmaceutical teams rely on our products for both baseline research and early-stage formulation work on chemoprotective agents and enzyme inducers. In collaborative projects, scientists routinely stress-test our glucosinolates against reference standards from pharmacopoeias. Any deviation in potency or impurity profile throws off bioassay results, so we rely on feedback from early users to tighten our QC process. With consistent purity and correct stereochemistry, scientists gain the confidence to publish definitive work or to anchor downstream development pipelines.
Decades of work in this field have taught us lessons that no single lab experiment or literature review can replace. For example, there are striking differences in the handling of various glucosinolates based on their aglycone side chains. Some molecules resist oxidation and breakdown longer than others; others, like progoitrin, demand especially careful control due to their lability. Batch-to-batch color, crystallization, and even handling losses all shape how an order performs after delivery.
Developers attempting to introduce glucosinolates at scale quickly learn that generic supply sources, especially those outside specialized chemical manufacturing, cannot guarantee quality or sustainability in the long run. We have seen customers switch to our products after encountering project delays due to inconsistent results from bulk extracts or impure isolates. Their feedback has steered us to refine not only our technical process but also how we communicate the nuances of these products to end-users.
It also becomes crucial to assess the influence of storage, packaging, and shelf life on the end result. Factors such as humidity, exposure to light, and blending with incompatible carriers alter the glucosinolate’s reactivity during storage or application. We use stabilized packaging and offer guidance informed by both our own compound stability studies and the lessons shared by industrial partners.
To those new to functional food and bioactive ingredient development, glucosinolates sometimes get lumped together with alkaloids, polyphenols, or terpenes. Our team’s experience on the manufacturing floor makes clear that these are entirely different beasts. Glucosinolates don’t just differ in their biochemistry; their extraction, purification, and downstream uses all require unique handling protocols and expertise.
Unlike many alkaloid or flavonoid suppliers who can streamline production with common solvents and filtration routines, each glucosinolate group needs a tailored approach. Water solubility, modular side chains, and sulfur chemistry demand process flexibility and specialized analytical follow-up. For example, polyphenols might be robust in large-scale blending, but our glucosinolate lines benefit from low-temperature processing techniques, inert-atmosphere drying, and real-time validation of thioglucoside bonds.
End uses for these molecules often diverge from other botanicals, too. Glucosinolates transform into distinct isothiocyanates on enzymatic or heat-driven breakdown, a property not shared by terpenes or standard polyphenols. This reactive conversion is the basis for their functions as flavor agents, crop biofumigants, and potential pharma actives. Our production engineers routinely help partners design process steps that maximize the yield of these beneficial breakdown products—ensuring that neither under-processed nor over-degraded material ends up in the final application.
Years of collaborating with both research consortia and specialty food brands have allowed us to refine both core manufacturing and niche applications. Several customers have adapted our sinigrin and glucoraphanin grades for proprietary formulations, ranging from dietary supplements to seed treatments. Experience with project-based supply chains has proven that successful outcomes stem from customizable packaging, prompt technical feedback, and transparent, data-driven communication.
For each new project, our technical teams walk end users through expected performance, stability under processing conditions, and integration with existing regulatory dossiers. While synthetic reference materials and semi-synthetic routes have expanded in some industries, the reliability of our cultivated plant material and refined extraction routines give downstream users peace of mind that their supply chain remains robust and traceable.
Recently, in joint projects with agrotech firms, we outlined best practices for field application of mustard-based glucosinolates as biological crop protectants. Field trials showed clear yield improvements and lower disease pressure only when consistent, high-purity input was used. Test plots with off-spec or degraded input failed to deliver the same benefits, reinforcing the need for a trusted manufacturing partner that understands the unique chemistry and field behavior of every glucosinolate.
The growing global demand for functional ingredients creates both opportunities and pitfalls. In our sector, unscrupulous traders sometimes flood the market with mislabeled or adulterated materials. Claims of “high purity” or “100% natural” do not always hold up to HPLC or NMR scrutiny—a fact that end-users in regulated spaces learn by painful experience. Because we maintain full traceability and internal analytics, our partners rely on us for not just product, but problem-solving in the face of shifting regulation and industry standards.
The regulatory landscape itself continues to change. From our vantage, we see food safety authorities looking far more closely at supply chains, batch records, and contaminant profiles. In recent years, we’ve built dedicated compliance teams to keep every step of our production process in line with evolving health and safety law in multiple jurisdictions. Rather than treating compliance as a box-ticking exercise, we integrate it as one more quality checkpoint—ensuring our glucosinolate output stands up to scrutiny whether destined for consumables, agricultural supply, or research settings.
The world’s appetite for plant-derived actives won’t disappear, but neither will the environmental and resource constraints of modern manufacturing. Sourcing glucosinolates at scale from non-GMO, well-tracked cultivation partners has proven to be less disruptive for both the land and the surrounding ecosystem. Sustainable harvesting, solvent recycling, and biowaste management now shape our facility’s day-to-day operations. Every change in extraction solvent or crystallization step gets evaluated for energy efficiency, reduced waste, and occupational safety.
Technological advances have given us better tools for safeguarding both quality and the environment. For example, closed-loop supercritical fluid extraction systems lower solvent residues and improve recovery rates. Automated in-line analytics support rapid batch release, keeping materials fresh, stable, and on-spec from factory to end user without the lag of old-style manual sampling routines. Our willingness to invest in both hardware and employee training has paid off in lower defect rates, better customer retention, and a reputation built on reliability rather than marketing slogans.
Whether a partner is developing a clinical trial, a biofumigant treatment, or a functional food, our technical support extends beyond the loading dock. We consult on dosage forms, recommend stability-enhancing excipients, and help troubleshoot issues ranging from caking to unexpected organoleptic changes under field or shelf conditions.
Collaborative troubleshooting has sometimes revealed unexpected interactions in multi-component blends or unexplored reactivity with flavorings and active carriers. By gathering detailed field data and in-house stability results, we refine both our process and our guidance, aiming for predictable, scalable results on the customer’s production line every time.
Our journey with glucosinolates has taught us that mastery involves more than manufacturing repeatability—it takes thoughtful partnerships, openness to negative feedback, and relentless technical curiosity. As research opens new possibilities—whether for disease prevention in humans or pest resistance in crops—our production philosophy stays rooted in hands-on science and transparent communication. We invite customers, partners, and innovation leaders to challenge us with new applications and higher standards, confident that our foundation in glucosinolate production allows us to adapt, problem-solve, and deliver real-world results far beyond generic supply claims.
Anyone seeking more than just a commodity ingredient—those who care about downstream application, regulatory clarity, and scientific support—should expect their supplier to speak from experience, not sales scripts. Glucosinolates present unique opportunities and equally unique challenges; our work stands as proof that attention to the small details, the daily feedback from the field or the lab, and the pursuit of genuine improvement makes all the difference for customers who depend on their quality and performance.