|
HS Code |
525892 |
| Product Name | The Total Diterpene Of Phenol |
| Type | Plant Extract |
| Main Component | Diterpene Phenols |
| Appearance | Yellow to brown powder |
| Solubility | Soluble in organic solvents |
| Source | Derived from plant materials |
| Assay Method | Spectrophotometry or HPLC |
| Purity | Typically above 90% |
| Storage Conditions | Cool, dry place, away from light |
| Common Uses | Pharmaceutical, cosmetic, and research applications |
As an accredited The Total Diterpene Of Phenol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The Total Diterpene Of Phenol is packaged in a sealed, amber glass bottle containing 100 grams, labeled with chemical and safety information. |
| Shipping | The Total Diterpene Of Phenol is shipped in tightly sealed, chemical-resistant containers to prevent leakage or contamination. Packages are labeled according to hazardous material regulations and handled with care. Shipping is typically via ground or air freight, depending on destination, with adherence to all safety, compliance, and temperature control requirements. |
| Storage | **Storage Description:** Store The Total Diterpene Of Phenol in a tightly sealed, chemically compatible container under cool, dry, and well-ventilated conditions. Protect from direct sunlight, moisture, and sources of ignition or heat. Keep separate from oxidizing agents and acids. Ensure proper labeling, restrict access to trained personnel, and follow all relevant safety and regulatory guidelines for safe storage. |
| Purity 98%: The Total Diterpene Of Phenol with 98% purity is used in pharmaceutical synthesis, where it ensures high reaction yield and product consistency. Melting Point 120°C: The Total Diterpene Of Phenol with a melting point of 120°C is used in resin formulation, where it provides enhanced thermal stability to the end product. Molecular Weight 340 g/mol: The Total Diterpene Of Phenol with molecular weight of 340 g/mol is used in polymer modification, where it improves molecular chain uniformity and tensile strength. Viscosity Grade 150 cP: The Total Diterpene Of Phenol with viscosity grade of 150 cP is used in coating applications, where it increases spreadability and uniform film formation. Particle Size 20 µm: The Total Diterpene Of Phenol with particle size of 20 µm is used in encapsulation processes, where it aids in improved dispersion and encapsulation efficiency. Stability Temperature 180°C: The Total Diterpene Of Phenol with stability temperature of 180°C is used in lubricant additives, where it maintains functional integrity under high thermal stress. Water Content ≤0.2%: The Total Diterpene Of Phenol with water content ≤0.2% is used in electronic materials manufacturing, where it reduces the risk of moisture-induced defects. Flash Point 160°C: The Total Diterpene Of Phenol with flash point of 160°C is used in industrial adhesives, where it ensures enhanced safety during processing. Solubility in Ethanol >95%: The Total Diterpene Of Phenol soluble in ethanol above 95% is used in analytical reagent preparation, where it enables precise concentration control. Acid Value <5 mg KOH/g: The Total Diterpene Of Phenol with acid value below 5 mg KOH/g is used in cosmetic formulations, where it minimizes skin irritation and improves product stability. |
Competitive The Total Diterpene Of Phenol 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.
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Visitors to our facility often notice the meticulous care given to every drum of The Total Diterpene Of Phenol. We don’t outsource this work, and that means complete control from initial extraction all the way to finished shipment. Our approach started years ago: observe what the downstream users actually need, then refine the product directly on-site. Building it up from high-grade raw pine feedstock, we extract, fractionate, and purify with the intention of getting consistent, high-activity diterpenes, with phenolic content that remains where it should be for specialty requirements.
This product comes in a standard model—let’s call it TDP-P98—to clarify the major fraction exceeds 98% content by weight, based on naturally-derived phenolic diterpenes. Each batch gets tested in our in-house QC lab using chromatography. What this means in practice: fewer unwanted oxidizers, fewer side fractions, and a specific profile focused around abietic acid derivatives and other closely related compounds. Working hands-on with extraction and distillation, our operators see how even small feedstock variances shift final melting points, how a change in solvent flow tweaks color, and how purity can alter downstream reactivity during resin or adhesive formulation.
Careful temperature and pH control matter at every stage. No generic “off-the-shelf” assumption can replace daily side-by-side comparisons between different pine origins and storage conditions. We press for high clarity—a faint yellow to pale amber tone—so end users in specialty coatings, fluxes, or intermediates aren’t fighting haze. Moisture and insolubles content gets monitored every shift. Because we observe these details, blends that hit the TDP-P98 mark consistently perform with predictable acid numbers and color values, matching what our customers and their technical teams expect batch after batch.
There’s no one “best” diterpene fraction across the board—you make tradeoffs. We see some resin customers prefer a more neutral resin acid profile, but the phenolic fraction brings its own strengths. At a molecular level, that phenolic ring alters solubility and changes reactivity. It enables stronger cross-linking with certain curing agents, better durability, and more robust performance under thermal and oxidative stress. Over time, we’ve watched certain ink and adhesive companies swap commodity pine acid blends for our phenolic-centric cut, then report on increased shelf stability and higher bond strength. The evidence comes back, bit by bit, from the labs using our product.
We dig into the chemistry every time we’re approached with a new request. If a specialty client needs better electrical insulation, phenolic diterpenes offer a particular advantage by limiting migration and enhancing resin rigidity. For wire enamel or specialty varnish formulations, this can tilt the balance between pass and fail for some demanding specifications.
By manufacturing ourselves, we adapt each run to changes in raw feedstocks, never relying on the hope that “commodity grade” always works. Our team signs off on every lot because we see firsthand how final color, viscosity, and acid value shift with process tweaks. Compared to generic blends or third-party products—where separation and mixing steps happen offsite—our workflow narrows the range of side products and contaminants. Technical conversations with large resin producers revealed that competitors often overlook “invisible” impurities, particularly in the minor fractions, which can later cause gelling or unpredictable curing speed.
Consistency isn’t just a target; it’s an outcome of knowing the machinery and adjusting reactant flows and temperatures on the fly. Over the years, operators flagged that even a two-degree Celsius swing in the extractor altered downstream plant performance for a European ink company. That hands-on operation puts our material in a different league than repacked or brokered goods, which usually mix together untraceable lots from multiple origins. Each shift’s decisions determine whether a drum makes our grade.
Our highest purity models—like TDP-P98—find their way into high-spec polyesters, specialty adhesives, water-repellent surface treatments, and fluxes for soldering. End-users with strict green chemistry requirements select this grade because trace solvents and heavy metals consistently test below detection. Some polyurethane producers came to us after finding excess color or trace acetic acid in previous sources. Once they switched, downstream foaming behavior improved, and rejection rates on finished rolls dropped.
Adhesives make up a major application, particularly for high-end woodworking and construction panel lines. Our real-world knowledge—changing kettle agitation settings, adjusting dehydration steps, constant in-process tasting—feeds back directly to product quality. Phenolic diterpenes cure harder but retain a subtle flexibility that standard abietic-lean blends struggle to match. One woodworking partner credited our material for enabling a new line of formaldehyde-free glues, which rely on the natural reactivity of the phenolic group rather than extra synthetic cross-linkers.
Not every buyer needs this level of purity. Lower grades circulating in the market rely on mixed fractionation and can contain excess neutral or fatty acids, which may soften final products or cause slow curing. The differences show up in use. In one instance, a paper-sizing customer ran comparative tests on several sources. Pages treated with our TDP-P98 product resisted water and held shape, while competitor samples curled or lost surface integrity after a week of accelerated aging.
Every so often, a new application pushes us out of our comfort zone. Over the past few years, the rise in electronics production demanded tighter ionic specifications than traditional pine chemistry provided. In response, we invested in new purification steps—ion exchange resins, targeted crystallization, and multi-step distillation to strip out trace alkali metals and organic chlorides. Instead of waiting for a customer complaint, we work with their QA labs, sending micro-samples and running joint QC. That level of partnership prompted improvements not only in electronic-grade resins but also helped us spot upstream extraction inefficiencies, ultimately cutting energy use at the plant.
Other times, environmental standards shift, like the tightening of VOC limits for coatings. Our product development team runs test batches with modified vacuum distillation to lower any residual volatiles, checking for impact on key downstream reactions. By witnessing product behavior in customers’ final blends, we can keep pace with both regulatory and performance demands.
Now, in an era where sustainability dominates the conversation, we face pressure to disclose sourcing, energy use, and product lifecycle. We trace our pine supply chain to managed plantations, maintaining a restricted harvest area and working with local foresters. Our staff know the people tapping trees, and we’ve implemented batch-by-batch origin tracking for over a decade. With tighter waste control, we recycle process water, salvage byproducts, and audit each piece of equipment for energy loss. Actual efficiency isn’t a PR slogan—it’s what lets us keep product quality up while minimizing the environmental load.
We never assume that after shipping a product the job ends. Feedback loops—phone calls, sample requests, joint testing—often reveal new requirements or areas for tweak. On-site engineers from our customers have visited to see the plant, sometimes bringing their own testing gear. These partnerships lead to pragmatic process changes. Sometimes it means adjusting filtration pressures, changing drum liners to avoid trace metal leachate, or making production runs on weekends to serve a last-minute order. Even after a container ships, we provide batch-specific QA data and run post-delivery follow-ups. These relationships—built over years—mean faster troubleshooting and a more forgiving production pipeline for all involved.
Expertise isn’t just knowing terpenes on paper. Our team comes from a mix of old-school chemical plant operators and younger process engineers. They’ve seen every possible production upset—feed pumps freezing in winter, a leaky condenser, tricky purification during spring pollen season. This practical know-how translates directly into material reliability. We encourage users not to take specs on faith, but to run side-by-side plant trials and to check resin, flux, or ink performance across a full range of conditions. More than once, a direct phone call between our process manager and a customer’s plant chemist solved a nagging formulation riddle.
Many new customers ask how our product differs from what’s offered by global commodity suppliers. Broader fractionation—where producers try to maximize yield by including side streams—often leaves end users wondering why some drums perform as expected, while the next may foam or crystallize under heat. By focusing extraction and purification squarely on phenolic diterpenes, and pulling out unrelated fractions early, we cut out those variables. Granular tracking, batch paperwork, and operator notes on every run means even subtle shifts in raw material or process—for example, a cold snap changing sap viscosity—get caught and corrected.
Some bulk traders claim identical performance, yet those batches often mix products from rotating plant sources. One season it’s northern hemisphere pine, the next it’s a blend from disparate regions, sometimes even mixed with unrelated conifer acids. This inconsistency shows up on QC tests and, more importantly, in actual product performance. Our clients—both multinationals and smaller specialty players—have shown us actual defect records: gelation, color shifts, failed shelf-life tests. Our controlled process and direct manufacturer model virtually eliminates that guesswork. Every customer-specific requirement, whether for low-ash solder flux or specialty adhesive bases, gets logged directly at our plant.
Knowing exactly what flows into the kettle or reactor matters because process hiccups at our plant can trigger months of downstream issues at the user. For this reason, we maintain an open invitation—customers may visit, review QC histories, participate in audit programs, and conduct their own on-site sampling. We regularly host audits for partners who need rigorous documentation, letting them inspect everything from pine logs entering the yard to finished product warehousing. These sessions usually spark process improvements on both sides.
We pride ourselves on standing by what we ship, but real trust comes from openness and consistency. When specs change, regulatory rules tighten, or unforeseen reactions crop up in application, we work side-by-side with technical teams to troubleshoot and adapt. Sometimes that means remanufacturing a batch, sometimes running iterative lab trials on cyclone streams or different neutralizers until results improve. This collaborative style has saved more than one new product launch at a customer’s site.
It’s easy to talk about “quality” in marketing copy, much harder to deliver it every day at the factory scale. The Total Diterpene Of Phenol, as made in our plant today, stands as a product forged through hands-on effort, responsive process adjustment, and years of active dialogue with those who actually use it. Whether a user needs a phenolic-rich resin for coatings, a high-purity batch for adhesives, or something unique for research, the material that leaves our site reflects thousands of hours of hard-won experience.
The goal is simple: every barrel, drum, or tote must meet not only a written specification, but also earn trust and repeat use in the field. By keeping control of every step—raw pine, process line, testing, packaging—we guarantee both compliance with stringent modern requirements and the kind of reliability that only comes from direct manufacturing know-how. That’s the standard we work toward, every shift, every batch, every day.