|
HS Code |
753725 |
| Name | Phytol |
| Chemical Formula | C20H40O |
| Molecular Weight | 296.53 g/mol |
| Appearance | Colorless oily liquid |
| Odor | Mild, floral, grassy odor |
| Boiling Point | 203 °C at 15 mmHg |
| Melting Point | -25 °C |
| Solubility In Water | Insoluble |
| Density | 0.858 g/cm3 at 25 °C |
| Refractive Index | 1.456 |
| Flash Point | 113 °C |
| Cas Number | 150-86-7 |
As an accredited Phytol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Phytol is packaged in a 100 mL amber glass bottle with a tightly sealed screw cap to protect from light and moisture. |
| Container Loading (20′ FCL) | Container Loading (20′ FCL) for Phytol: Typically, 12-14 metric tons packed in steel or plastic drums, secured for safe international shipment. |
| Shipping | Phytol is typically shipped in sealed, inert containers to prevent oxidation and degradation. The containers are clearly labeled and stored in cool, dry conditions, protected from light and moisture. Transportation complies with safety regulations, ensuring the chemical remains stable and uncontaminated during transit to the recipient’s facility. |
| Storage | Phytol should be stored in a tightly sealed container, protected from light and moisture, at a cool temperature (preferably 2–8°C). It should be kept in a well-ventilated area away from sources of ignition, oxidizing agents, and incompatible substances. Proper labeling and secure storage help prevent contamination and ensure safety during handling and use. |
| Shelf Life | Phytol typically has a shelf life of 24 months when stored in a cool, dry place, protected from light and air. |
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Purity 98%: Phytol 98% purity is used in the synthesis of tocopherols, where it ensures high yield and product consistency. Boiling Point 203°C: Phytol with a boiling point of 203°C is used in aroma chemical production, where thermal stability enhances processing efficiency. Molecular Weight 296.53 g/mol: Phytol 296.53 g/mol is used in formulation of cosmetic emulsions, where it provides excellent emollient properties. Density 0.860 g/cm³: Phytol 0.860 g/cm³ is used in fragrance manufacturing, where it enables optimal blending and diffusion rates. Refractive Index 1.456: Phytol with a refractive index of 1.456 is used in flavor compositions, where it improves optical clarity and solution homogeneity. Flash Point 134°C: Phytol with a flash point of 134°C is used in industrial solvent formulations, where it reduces flammability risks during processing. Stability Temperature 25°C: Phytol stable at 25°C is used in pharmaceutical excipients, where shelf life extension and chemical integrity are achieved. Color Value APHA ≤ 35: Phytol with an APHA color value of ≤ 35 is used in high-purity applications, where low color index ensures final product appearance. Solubility in Ethanol: Phytol soluble in ethanol is used in nutraceutical liquid preparations, where rapid dissolution accelerates bioavailability. |
Competitive Phytol prices that fit your budget—flexible terms and customized quotes for every order.
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Manufacturing phytol isn’t a simple process—anyone with hands-on experience in chemical synthesis knows this. At its core, phytol is a diterpene alcohol with the molecular formula C20H40O. Our production runs use carefully sourced plant-based material, primarily from chlorophyll breakdown in natural plant oils. Through years of refining processes here on site, we’ve landed on a high-purity grade that addresses the needs of clients looking for both consistency and performance.
A common question we get is, “What makes your phytol different from some bulk alternatives?” Part of the answer comes down to process control and relentless quality checks at each stage, but it starts long before a batch ends up in a drum. Our phytol appears as a colorless to pale yellow, slightly viscous liquid—an immediate visual cue to purity for those familiar with low-grade, off-color alternatives that often carry unwanted impurities.
We measure our phytol with a boiling point between 202°C and 204°C at 12 mm Hg. Distillation occurs twice—never once—across stainless-steel columns that have been upgraded over the years. GC purity consistently exceeds 98.5%. Customers who test it on arrival comment about how the aldehyde and acid content run below industry-normal thresholds; this keeps the characteristic green odor pleasant and true.
As for solubility, phytol dissolves readily in alcohols, chloroform, and ether, yet resists water—critical for those formulating in oil-based matrices. Density checks at 20°C come in under 0.86 g/cm3, and refractive index lands between 1.484 and 1.488, a small but telling metric for batch-to-batch monitoring. We continue to use glass-lined vessels and inert atmospheres for all handling, keeping oxidation and trace contamination at bay.
Long before retail products reach shelves or research teams publish findings, we hear about applications in flavor and fragrance, cosmetics, and vitamin synthesis. The most frequently cited use is as a precursor for artificial vitamin E (tocopherol) production. Several large customers turn phytol into tocopherol through a multi-step process, with robust yields and minimal byproducts—a win for both cost and downstream waste management.
In fragrance work, phytol’s grassy, fresh-smelling note often blends with other green aromatics. Perfume houses and candle-makers tend to specify fractionally distilled batches, where low impurities make a difference in final scent profile and storage stability. As regulations have tightened on both sides of the ocean, our in-house regulatory team spends much of its time keeping up with changing safety guidelines for both end-use and transit, ensuring that phytol always arrives compliant and ready to use.
In personal care and cosmetics, formulators go after phytol not just for olfactory reasons but for its skin-soothing properties, where it’s often included in emulsions, ointments, and specialty creams. We’ve worked with small start-ups and conglomerates alike on projects ranging from green-themed hand salves to high-end facial moisturizers. From our vantage, it’s clear that higher purity correlates with fewer issues during large-scale filling and shelf stability.
Building a reliable phytol supply chain means rethinking old paradigms about sourcing and manufacturing. Unlike bulk commodities, good phytol isn’t about scale alone. Seasonal fluctuations in plant material lead to swings in both cost and availability. Some years, supply tightens, and so-called “cheaper” sources flood the market with adulterated or low-purity material—something downstream customers often discover too late, after odor or reactivity problems crop up.
Our technical managers monitor changes in plant harvests and oil composition month to month, running fresh trial batches and adjusting process parameters as needed. We do not cut corners on solvent recovery or waste management, even when outside pressure mounts to lower costs. Years ago, we dealt with a batch contaminated by persistent solvents—no one on our team considers that just a learning experience but as a lasting reminder to keep process oversight relentless.
API-grade and food-grade requirements amplify the stakes. We’ve invested in automated logging systems for every tank transfer and distillation step. If a deviation occurs, personnel trace it back to exact valves and pumps, not just date codes on finished goods. Because phytol can serve as a building block for sensitive end-uses, these steps go beyond most standard operating procedures in the bulk chemical world.
Some customers ask us to compare phytol with other terpenoids or alcohols—questions about fit for purpose often follow. Farnesol and geranylgeraniol come up in those conversations; both also offer floral or green notes, but structure and reactivity set phytol apart. Farnesol’s shorter structure and lower boiling point limit its use in vitamin synthesis. Geranylgeraniol, although similar, often brings more instability, particularly in oxidative systems.
As for synthetic competitors, several firms worldwide attempt to produce phytol analogs through multi-step, petroleum-derived methods. Those products struggle to match the green scent and oxidative stability found in plant-derived phytol. We’ve run parallel performance and GC/MS studies on these analogs, finding that off-odors and trace isomer content almost always show up in downstream application tests.
Our phytol runs with a clear traceability trail from raw input to finished batch. Customers tell us—repeatedly—that synthetic blends fail long-term stability or present unexpected gumming in blends, where ours stays mobile and fresh across several years. End-users in flavoring, specialty fragrance, and vitamin manufacturing say that this robustness and purity save them expense and hassle, both on the line and in QA labs.
Years ago, sustainability amounted to little more than a talking point. Now, expectations run far deeper—down to tracing where and how every kilogram of source plant material grows. We switched to regions with robust land management policies and conduct on-site audits twice a year. Our process team catalogues everything from energy consumption per distillation run to water use and solvent recapture rates.
Some buyers request “natural” or “organic” certification for phytol, especially those supplying food or cosmetic brands focused on transparency. Achieving these standards means a slew of incremental improvements. We worked closely with plant oil suppliers and regulatory consultants to earn third-party validation—no easy feat given the complexities of plant matrices and risk of cross-contamination during transport. Field experience has taught that documentation is only as good as the weakest link; every barrel receives a unique lot code documented from field harvest to final drum.
A few years back, clients began asking about data for residual pesticides, polyaromatic hydrocarbons, and allergen profiles. We responded by expanding our in-house laboratory capacity, investing in new LC-MS and GC-FID equipment, and training staff in methods beyond standard monograph requirements. The analytics team spots lot-to-lot drift more quickly, catching issues before product ships offsite.
We keep records open for customer review—never just summaries. Manufacturers who value traceability want to see sample histories, not just assurance statements. Over the last three years, we have seen this level of transparency become a deciding factor for buyers under pressure from their own QA and regulatory teams.
A European nutraceutical producer once called in after an imported batch of phytol exhibited unstable tocopherol conversion yields. Their in-house tests hinted at unknown isomer content. We invited their chemists to our site for comparative GC analysis. Both teams ran the same vitamin E synthesis using our phytol, and the improvement in conversion and byproduct profile was immediate and measurable.
On another front, a South American flavor house purchased low-cost phytol from an alternate supplier. They called after finding repeated fragrance inconsistencies and off-notes in final product. On inspection, we identified oxidation byproducts previously undetected in their in-house labs. Our team shipped them a fresh sample and provided method support for analyzing spoilage—by next quarter, their rejected batch rate shrank and shelf-life complaints dropped nearly to zero.
Cosmetic brands commonly call out ease of formulation and long-term color and scent stability when using our phytol. No batch ever matches the last exactly—something formulators know to expect when ingredients are produced from living systems—but our team’s decade of experience helps keep drifts within tight bounds.
The phytol market no longer looks like it did a decade ago. Pressures come from both supply and demand. More end-users are shifting away from synthetic flavor and vitamin platforms, especially in markets aiming for clean-label status. That puts strain on natural phytol sources—something we discuss openly with long-standing clients before supply disruptions occur, not after shipments are missed.
To buffer against shortages, we maintain strategic reserves of both raw oils and intermediates. We have also built collaborative programs with botanical cooperatives, offering technical support around harvesting, drying, and crude oil extraction. These relationships take time and resource investment, but they have helped ensure more predictable feedstock.
Increasingly, regulatory standards around solvent residues, pesticide loads, and trace contaminants mean tighter controls at every stage—not only on finished phytol but also on the upstream vegetable oils. We have responded by implementing near-real-time analytics on incoming plant oils, rejecting out-of-spec shipments before they reach process tanks. This upfront rigor pays off most during volatile years, avoiding crisis management down the line.
Our R&D group has begun exploring enzyme-assisted extraction and mild decolorizing steps that preserve full-spectrum characteristics of phytol while reducing unwanted plant pigments. These technical advances come from direct customer asks and feedback loops with academic partners conducting applied research. We remain open to pilot projects and data-sharing agreements, recognizing that many market drivers arise outside our four walls.
Buyers in the phytol space rank reliability as highly as they do price or purity. We respond to this by measuring quality not simply at the point of shipment but across the entire life cycle of an order—from order-entry to delivery and after-sales technical support. If a batch generates questions during a formulation trial, staff chemists remain available for troubleshooting—not outsourced and not hidden behind an email queue.
Certain long-term customers have invited us to sit in on their internal quality reviews, sharing outcome data, complaint logs, and long-term storage notes. These arrangements help both sides close the feedback loop, compress troubleshooting timelines, and refine production targets on the fly.
In our experience, the phytol world combines the demands of commodity markets with the volatility and sensitivity of fine chemicals. Margins for error shrink as applications become more sophisticated and regulatory scrutiny grows. From our ground-level perspective, keeping the process honest, transparent, and responsive—rather than “optimized” simply for speed or yield—remains our key to competing in what is becoming a very crowded marketplace.
Biotechnology and synthetic biology promise to shake up the plant-derived ingredients field. For phytol, new gene-edited crops and biofermentation methods could reshape cost structures and purity benchmarks. While these advances excite some downstream players, field experience tells us that quality still comes down to day-in, day-out management of supply, process, and distribution networks.
As regulatory frameworks around the globe bring phytol into sharper focus—whether for food, fragrance, cosmetic, or pharmaceutical use—our industry faces new pressures to document, validate, and innovate. Meeting these demands means sharing our technical data, opening our plant to third-party reviewers, and welcoming partnerships that may have felt risky or premature in the past.
While phytol’s applications will only expand over the coming years, staying competitive depends on remaining deeply engaged with every step of its lifecycle, from field to final drum. We believe buyers see the value of this approach not in promotional claims, but in the steady, measurable improvements it yields year after year.