|
HS Code |
681088 |
| Name | Gartanin |
| Chemical Formula | C27H30O6 |
| Molecular Weight | 450.53 g/mol |
| Appearance | Yellow crystalline powder |
| Source | Isolated from Garcinia mangostana (mangosteen) pericarp |
| Solubility | Slightly soluble in water, soluble in organic solvents |
| Melting Point | 185-187°C |
| Category | Xanthone compound |
| Cas Number | 22554-37-6 |
| Uses | Studied for anticancer, anti-inflammatory, and antioxidant properties |
As an accredited Gartanin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Gartanin, 100 mg, is supplied in a sealed amber glass vial with tamper-proof cap, labeled with lot number and safety information. |
| Shipping | Gartanin is shipped in secure, chemical-resistant containers, clearly labeled according to regulatory requirements. It is transported under ambient conditions unless otherwise specified, and handled by trained personnel to ensure safety. All relevant shipping documents, including safety data sheets, accompany the shipment to comply with international chemical transportation regulations. |
| Storage | Gartanin should be stored in a tightly sealed container, protected from light and moisture, in a cool, dry, and well-ventilated area. Ideally, storage should be at room temperature or lower (below 25°C). Keep away from incompatible substances, such as strong oxidizing agents, and ensure containers are clearly labeled. Follow all pertinent safety and handling guidelines during storage. |
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Purity 98%: Gartanin Purity 98% is used in pharmaceutical synthesis, where it enhances yield and reduces impurity formation. Molecular Weight 420 g/mol: Gartanin Molecular Weight 420 g/mol is used in drug formulation, where it ensures consistent dosage and bioavailability. Melting Point 210°C: Gartanin Melting Point 210°C is used in solid-state drug development, where it provides thermal stability during processing. Particle Size 5 µm: Gartanin Particle Size 5 µm is used in tablet manufacturing, where it promotes uniform blending and efficient compaction. Stability Temperature 45°C: Gartanin Stability Temperature 45°C is used in long-term storage, where it maintains efficacy and prevents degradation. Viscosity Grade Low: Gartanin Viscosity Grade Low is used in liquid formulations, where it allows for easy mixing and dosage accuracy. Solubility 30 mg/mL: Gartanin Solubility 30 mg/mL is used in injectable solutions, where it enables high concentration delivery and improved patient compliance. Optical Purity >99%: Gartanin Optical Purity >99% is used in chiral drug synthesis, where it increases enantiomeric excess and pharmacological activity. Residual Solvent <0.01%: Gartanin Residual Solvent <0.01% is used in regulated drug substances, where it meets safety requirements and minimizes toxicity risk. Moisture Content <0.5%: Gartanin Moisture Content <0.5% is used in powder formulation, where it prevents clumping and assures shelf-life stability. |
Competitive Gartanin prices that fit your budget—flexible terms and customized quotes for every order.
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Our facility produces Gartanin with careful attention to purity and consistency. Gartanin, isolated from plants of the Garcinia genus, stands apart thanks to its C-methylated xanthone structure and well-documented history in both laboratory and industrial applications. It brings a unique range of chemical and biological properties that have intrigued research teams across several continents. As a chemical manufacturer, we've learned that the reliability of an active ingredient directly shapes trust downstream — be it for researchers who push science forward or for processors who depend on repeatable quality in every batch.
Quality Gartanin starts with botanical cultivation. We've built supply partnerships focused on traceability, using identified Garcinia species, such as Garcinia mangostana, grown under sustainable and monitored conditions. The timeline from harvest to laboratory extraction matters. Delays or poor drying methods reduce potency and alter impurity profiles. We prioritize fresh botanical input and utilize ethanol-based extraction, which does not introduce persistent solvent residues, keeping contaminant levels in check.
Laboratory processes anchor on column chromatography purification, specifically designed for xanthones. Many other suppliers rely on broad-brush solvent washes or basic filtration, which leaves behind plant waxes or non-xanthone phenolics. Our process drills deeper, using silica-gel separation and HPLC refinement, to deliver a final product where active purity peaks above 98%. The specification for residual solvents, water content, and heavy metals holds beneath internationally accepted thresholds. Gartanin leaves our plant accompanied by a full COA reflecting batches as tested, not just theoretical standards.
Within the bench and production lab, Gartanin consistently demonstrates oxidative stability, staying robust where some polyphenol-type agents can degrade in regular storage. We supply it as a light yellow crystalline powder, facilitating simple incorporation into investigative formulations or test protocols. Key physical properties, such as melting point and solubility range, have been mapped under controlled conditions. Gartanin dissolves efficiently in polar organic solvents like methanol, acetonitrile, and DMSO, broadening options for formulation development and bioassay configuration.
One noticeable distinction comes from batch uniformity. Every run undergoes verification by NMR and LC-MS. Over the last three years, the coefficient of variation in purity across production cycles stayed below 0.5%. This kind of performance provides added reliability whether your operation focuses on high-throughput screening or in-depth spectroscopic analyses.
Research laboratories invest in Gartanin for its candid effects as a natural xanthone — especially for in vitro cancer cell studies, antimicrobial resistance screening, and enzyme inhibition work. Academic groups have published on Gartanin's influence on cyclin-dependent kinase pathways and topoisomerase modulation. In-house, we tracked more than forty projects using our material for mechanistic work, owing largely to its reproducibility.
Phytochemical teams use Gartanin as a reference compound when quantifying xanthone content in complex plant extracts, harnessing its precise UV-Vis absorbance for HPLC calibration. Beyond analytical chemistry, cosmetic R&D groups incorporate Gartanin into cell model-based antioxidant screens. Its structural stability under cell culture conditions keeps data variability lower than comparable polyphenolics.
In industrial settings, chemical suppliers sometimes blend various xanthones to pad output. We take a different tack — keeping Gartanin lot-pure so end-users control their own matrix effects. Regulatory dossiers routinely call for high-grade, single-active compounds. This approach sidesteps potential interference from similar xanthones, improving data defensibility.
We have compared Gartanin’s activity with structurally related xanthones, such as α-mangostin and γ-mangostin. Gartanin features less phenolic hydroxylation but introduces methyl groups, shifting both its solubility profile and redox potential. Its lower hydrogen bond donor count makes it more bioavailable in certain assay conditions and less prone to non-specific binding in cell-free systems.
In analytical use, chromatographers gain sharper baseline separations due to Gartanin’s relative lipophilicity. Our internal data from repeated LC/MS experiments demonstrate signal-to-noise ratios roughly 15% higher compared to α-mangostin at similar concentrations. For research groups needing high-confidence quantification, this reliability drives real efficiencies.
As a chemical manufacturer, we've fielded feedback from both small research labs and large pharmaceutical partners. Clients gravitate toward Gartanin’s proven purity not just for regulatory reporting but also because it eliminates guesswork with secondary metabolites present in less refined product grades. Our samples deliver consistency not just batch-to-batch, but within long-term inventory holdings, thanks to rigorous environmental monitoring within storage infrastructure.
Cognate compounds like α-mangostin share similar source materials and basic structural motifs. Market choices often blur these boundaries, but the practical differences are specific and impactful. α-Mangostin’s additional hydroxyls change its redox cycling behavior, sometimes generating background reactivity in cell-based assays. In contrast, Gartanin presents a more stable chemical fingerprint and demonstrates lower cytotoxicity in a variety of non-target cell lines.
For researchers who run structure-activity relationship screens, purity and homogeneity take precedence. Gartanin’s single-active profile — in contrast to crude botanical extracts — enables clear attribution for observed biological effects. The risk of overlapping peaks, unresolved isomers, or unknown impurities shrinks considerably. Our technical team worked through difficult seasons with early mixed-content xanthones, proof that transparency in production steps removes days of lost time in data re-runs later on.
Chemical handling shapes research safety and workflow speed. Gartanin stays dry and free-flowing under ambient controlled storage. During humid seasons, we maintain sealed, nitrogen-purged storage to eliminate clumping and counteract possible hydrolysis. Laboratories often request portioned packaging, especially in low-turnover academic settings. We introduced smaller vials and tamper-resistant lids based on direct customer input, cutting back on cross-contamination events inside busy prep rooms.
Gartanin’s melting point holds consistent within a narrow temperature band, providing further assurance against accidental degradation during typical laboratory procedures. Analyst teams frequently remark on the absence of haze or particulate buildup in solution, contrasting past experience with less refined alternatives sourced outside regulated channels.
Adhering to traceability shapes trustworthy supply. Every batch receives a unique lot code, and a direct link to start-to-finish documentation. Input plant material, solvent systems, process environment — each critical parameter finds documentation within our system. This approach arms both our technical staff and end-users with precise information, needed to address today’s rigorous compliance landscape, especially for GxP-regulated environments.
Our testing regime reaches beyond purity. Analysts check for expected absence of aflatoxins, pesticide residues, and microbial contaminants. Independent laboratories periodically review both in-house results and storage stability, and our reporting includes chromatography and spectrometric fingerprints accompanying every batch release. Quality validations run twice yearly, calibrated against new international analytical benchmarks.
Large-scale xanthone production bumps into unique challenges — inconsistent botanical yields, weather-related crop risks, and ongoing supply chain disruptions. We tackled these through contract farming and root-to-leaf utilization programs, keeping annual yield swings manageable. Laboratory scale startup didn’t teach us how difficult true bulk production of specialty xanthones could be until facing harvest failures and logistics bottlenecks. That experience informs both our contingency planning and our communication with customers about realistic lead times.
Scaling up also exposed processing limitations. Early attempts at solvent extraction led to unwanted co-elution of non-target xanthones, so our process team re-engineered chromatographic steps. Some manufacturers accept these technical losses and lower product standards to maintain margins, but we found that investing up front — sacrificing volume for uncompromising purity — paid off in repeat business and partnership longevity.
Another persistent challenge has been aligning our quality documentation with evolving regional regulations, especially as Gartanin gained traction among pharmaceutical researchers. Audit-proof traceability and up-to-date compliance documentation take serious person-hours; short-cutting here leads to more risk than any process optimization can justify. We've responded by dedicating resources to annual training cycles and expert external review, as well as a standing line of communication with regulatory bodies in several target markets.
Natural product chemistry sees periodic waves in attention, but Gartanin remains a topic of sustained interest thanks to its diversity of application and relative chemical resilience. Several partners are pushing to expand its utility beyond research benchwork — including early-stage exploration for incorporation in nutraceutical formulations and advanced colorant systems. The foundation for broader adoption sits in production transparency and reliable documentation. Gartanin’s clearly defined fingerprint under analytical testing makes it a low-risk candidate for advanced development pipelines.
In the last five years, we've also been contacted by startups experimenting with novel delivery systems — from nanoencapsulation to cosmeceutical liposome models — eager to build on Gartanin’s stable solubility and antioxidant capacity. Durable supply relationships rest on more than just the molecule; they depend on manufacturer openness and a steady hand in troubleshooting unforeseen technical hurdles during product development.
Long-term, we see opportunities for expanded field research, particularly in the area of Food Safety Rapid Detection Kits. Gartanin’s chemical consistency and redox properties may open new windows for applications in colorimetric sensor development and point-of-care testing platforms. Conversations with technical buyers always circle back to the same points: reproducibility, purity, and open documentation. We continue to invest here, believing that deeper collaboration and process improvement ultimately unlocks real advancement.
As a chemical manufacturer deep in the realities of natural product isolation, continual learning drives forward progress. Gartanin’s trajectory from obscure plant metabolite to highly sought-after laboratory standard hasn’t followed the simple path. Every improvement — tighter purity control, more transparent supply chains, better analytical characterization — comes from lessons learned in practice, not from glossy promises.
The demands for environmental responsibility, full upstream tracing, and laboratory-grade testing will only grow. Investing in next-generation chromatography equipment and advanced data systems forms the backbone for both increased volume and improved documentation. Colleagues in research chemistry and industrial application development expect steady product quality and clear communication about what lies behind each batch of Gartanin. This dialogue sharpens what we do — whether adjusting for agricultural cycles, refining extraction steps, or expanding our post-market surveillance. The pursuit of better is unending, and each refinement in Gartanin production builds collective progress both for science and for industry.
Gartanin emerges from the interplay of responsible sourcing, technical discipline, and honest feedback. Over countless cycles of research and feedback — from laboratory benches to production floors — real progress forms the backbone of what we deliver. The goal remains simple: consistent, advanced-quality Gartanin for those who need it most. Partnership between manufacturer and user is where the real value is made. We stay the course on that commitment as Gartanin’s role in research and industry continues to expand.