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HS Code |
184988 |
| Product Name | 2-(2,4-Di-Tert-Pentylphenoxy)Butyric Acid |
| Cas Number | 65666-07-1 |
| Molecular Formula | C23H38O3 |
| Molecular Weight | 362.54 |
| Appearance | White to off-white crystalline powder |
| Melting Point | 81-84°C |
| Solubility | Insoluble in water, soluble in organic solvents |
| Purity | Typically ≥98% |
| Storage Conditions | Store in a cool, dry place; keep container tightly closed |
As an accredited 2-(2,4-Di-Tert-Pentylphenoxy)Butryic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 500g of 2-(2,4-Di-Tert-Pentylphenoxy)butyric acid is packaged in a sealed amber glass bottle with a secure screw cap. |
| Shipping | **Shipping Description:** 2-(2,4-Di-Tert-Pentylphenoxy)butyric Acid should be shipped in tightly sealed, appropriately labeled containers. Protect from moisture, direct sunlight, and extreme temperatures. Handle as a chemical substance; follow all national and international regulations for transport. Transport with chemical safety documentation and include necessary hazard labels if required by local regulations. |
| Storage | 2-(2,4-Di-Tert-Pentylphenoxy)butyric acid should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from direct sunlight, heat, and incompatible substances such as strong oxidizers. The storage area should be clearly labeled and protected from moisture. Personal protective equipment should be worn when handling to prevent contact with skin and eyes. |
Applications of 2-(2,4-Di-Tert-Pentylphenoxy)Butryic Acid in Industrial ManufacturingAs a specialized manufacturer of 2-(2,4-Di-Tert-Pentylphenoxy)Butryic Acid, we support downstream industries by providing consistent, quality-assured input materials designed to meet the practical needs of industrial-scale processes. Below, we detail specific application scenarios where this ingredient delivers measurable value to production operations along with compliance frameworks, dosing practices, integration points, and resulting product lines. 1. Phenoxyalkanoic Herbicide SynthesisIn commercial herbicide manufacturing, 2-(2,4-Di-Tert-Pentylphenoxy)Butryic Acid serves as a core building block for the creation of phenoxyalkanoic acid-type herbicides. Its alkylation pattern provides both chemical stability and targeted selectivity in active ingredient formulation, responding precisely to current regulatory demands for environmental safety and residue control, especially in grain and oilseed management. Industry compliance standards
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2. Selective Growth Regulator IntermediatesManufacturers specializing in plant growth regulators employ 2-(2,4-Di-Tert-Pentylphenoxy)Butryic Acid during the controlled synthesis of selective growth modification agents. Its molecular framework assists agrochemical developers in achieving precise chain elongation and oxidative stability necessary for plant-specific responses in grains, vegetables, and specialty horticultural crops. Industry compliance standards
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3. Non-Ionic Surfactant Precursor ManufacturingProducers of advanced surfactants utilize 2-(2,4-Di-Tert-Pentylphenoxy)Butryic Acid as a high-performance hydrophobic group donor during the synthesis of specialty non-ionic surfactants. Manufacturers benefit from the compound’s bulky, branched tertiary pentyl groups for creating stable micelles in formulations where control of foaming and emulsion is critical, such as oilfield chemicals or crop adjuvants. Industry compliance standards
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4. Polymerization Stabilizer in Specialty Elastomer ProductionThe compound functions as an efficient chain transfer agent and stabilizing additive in synthetic polymer manufacturing for specialty elastomers. Its phenoxy structure and bulky side groups support advanced polymerization processes, where precise molecular weight control and oxidative resistance are required for demanding industrial uses, particularly in automotive and industrial gasketing. Industry compliance standards
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5. Antioxidant Intermediate for Lubricant AdditivesLubricant additive formulators employ this raw material as a key intermediate for producing high-performance phenolic antioxidant blends. Its bulky structure improves oxidative stability in finished lubricant systems, directly supporting long-drain, high-temperature applications in industrial and automotive oils. Industry compliance standards
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Working in the chemical manufacturing field for years gives you a clear picture of which products matter most for challenging processes. 2-(2,4-Di-Tert-Pentylphenoxy)Butyric Acid – which our team usually abbreviates as DTPPBA – stands out in our shop for its distinctive balance of performance and stability in a growing range of industrial applications. We’ve seen both the opportunities and the growing pains in specialty manufacturing, and one thing always stands true: a well-crafted molecule, backed by quality-controlled batch production and deep hands-on learning, goes far beyond what a simple product brochure can explain.
DTPPBA carries the sort of robust molecular backbone that industrial process engineers respect. Its two tert-pentyl groups branching off the phenoxy ring add more than just bulk; they shield the molecule from degradation and boost resistance to both oxidation and heat. Lab teams appreciate how the butyric acid tail creates a functional handle for further reactions. This lets us link the molecule into systems requiring controlled reactivity and chemical selectivity. We consistently monitor every parameter in every batch because even a minor impurity can cause headaches during downstream formulation.
Consistency often sets good products apart from great ones. Every day, line operators at our facility run GC, HPLC, and FTIR checks to lock in batch reproducibility. Over time, we've seen how close monitoring overcomes hidden problems. The stubborn stability that comes from the tert-pentyl groups means users get longer shelf life and less hassle with storage in humid or variable-temperature warehouses. During synthesis, we stay vigilant for trace isomers and side-products, since these affect both color and solubility in finished blends. Ultimately, it’s the fine-tuning in filtration, drying, and packaging that helps end-users see a clear, pale solid year after year, not just a one-off lucky batch.
Problems in scaling up from lab samples often emerge in places the literature just doesn’t mention. One bottleneck that comes up is achieving full conversion without leaving behind unreacted phenol or alkylation byproducts. We take a hands-on approach in every reactor load, adjusting temperature ramps and solvents to maintain reaction selectivity. Any blip in raw material quality shows up quickly, so we never skimp on incoming QC. We’ve built in redundant checks at critical points – not just at the finished product stage, but starting with every drum and tankload of precursor. We run retention samples for each production lot, which lets our technical team support customer troubleshooting rather than push it down the line.
Real feedback from downstream blenders and industrial formulators guides what we emphasize in the plant. Much of our material moves into specialty lubricant additive production, where thermal breakdown at operating temperatures shuts down entire lines if the chemistry falls short. DTPPBA offers a degree of oxidative stability that saves operators from unexpected downtime, so we track every complaint and improvement request coming from formulation chemists. Other customers rely on DTPPBA for manufacture of plasticizers, plastic antioxidants, and agricultural chemical intermediates. Because the molecule’s bulky groups resist volatilization and maintain structure under reactive blending conditions, risk of unwanted side reactions drops significantly.
No product moves to the top of any process engineer’s list if it fails when blended at scale, exposed to heat, or stored over months. We learned years ago that unless you flush every piece of equipment between runs and regularly recalibrate pH and water content monitoring, batch-to-batch differences show up in customer applications. Over many production years, we’ve tweaked vessel cleaning protocols and solvent drying steps, which brings purity up to the level industrial users need. We keep returns under 0.1% of annual tonnage, tracked and explained, rather than sweeping issues under the rug. As new markets push for higher regulatory and performance standards, our lab keeps an updated analytical library matching industry specs so clients get useful, real-world data with every lot.
Direct experience tells us not all phenoxybutyric acids play equally well across industries. Some competing models carry shorter, less-branched alkyl groups, which sounds fine on paper but often means less hydrolytic stability and faster color shift during processing and storage. We’ve tested side-by-side against linear and secondary-alkyl phenoxybutyric acids, and the extra shielding from double tert-pentyl additions makes a difference every time you stress the system with aggressive oxidation or when you store materials under sunlight. Manufacturers juggling multiple process lines appreciate that our DTPPBA profile means fewer process adjustments and lower maintenance on pumps clogged by off-spec gelling.
In years past, smaller phenoxy derivatives led to more frequent formulation headaches – higher volatility, more waste in distillation, more byproduct contamination to manage. With our DTPPBA, the low vapor pressure and thermal resilience show up in test runs and bulk storage, translating to steadier performance in final products. Plus, the higher molecular weight cuts down losses from fugitive emissions, which matters when local emission controls keep tightening year by year. These advantages would be hard-won without the persistent tweaks we have made to handling, drying, and bulk packaging.
Today, buyers don’t just ask about performance numbers or price by the ton. They want to know what goes into their chemicals and how we handle our own waste, emissions, and safety risks. We respond with transparency on everything from solvent recovery rates to energy-saving upgrades on our reaction vessels. Over the last five years, our waste minimization projects have cut hazardous loadouts by over 20%. Every decision we make on process changes starts from the shop floor – what operators and QC techs see every day, not what sounds good on a slide deck. We run open trainings to keep everyone from loaders to synthesis teams up to speed on best practices, because better knowledge on the ground reduces both error rates and near misses.
Our DTPPBA facility meets or exceeds local and international chemical safety standards – not just on paper or in quarterly audits but in the tough conversations had after a spill or an equipment failure. We run drills, maintain redundant emission controls, and keep detailed traceability records for every output stream. Most importantly, our philosophy holds production and EHS staff equally responsible for chemical stewardship, meaning every operator knows that process control and environmental safety walk hand-in-hand. No one benefits from short cuts when neighboring communities and the company’s long-term outlook are at stake.
Over years of producing for specialty end-users, we’ve picked up one lesson time and again: off-the-shelf doesn’t always cut it. Plastics compounders, lube blenders, and polymer manufacturers each need subtle tweaks in purity, particle size, or moisture content so DTPPBA drops straight into their line without additional treatment. Early on, we recognized the value of direct feedback from our largest users, so we set aside lab time expressly for small-batch pilot trials. This experience has led to a set of in-house specs—and the ability to fine-tune drying, filtration, and post-treatment for specific needs—that other suppliers often lack. Where others see a finished lot, we see a starting point until users validate every parameter on their own equipment.
Across regional and global markets, compliance teams face a moving target. New regulations for residual solvents, allowable heavy metals, and trace organics appear almost yearly. Our technical service teams work both sides – maintaining up-to-date compliance records but also flagging upstream shifts in solvent sourcing or catalyst composition that might affect final product clearance. We believe in direct engagement with auditors, regulators, and end-users, giving them lab data and plant floor context so everyone can see what goes into making DTPPBA meet not just the letter of the law but the spirit of real chemical safety. Tracking every change, no matter how small, prevents surprises six months – or six years – down the road.
Every day in shipping means a fresh challenge: heat waves, humidity, or unexpected plant slowdowns. We adapted our DTPPBA handling protocols through trial and error – testing new liner types, working with temperature data loggers, and refusing to compromise by cutting corners on packaging material or shipping instructions. In our experience, small failures in shipping lead to big issues downstream—off-odors, moisture pick-up, or caking result from careless handling, so we invest in robust containers and direct communication with haulers up and down the chain.
We keep a dedicated logistics coordinator in each shipping cycle, walking loads from documentation through to customer delivery and troubleshooting every hiccup as soon as it shows up. Our own warehouse teams, trained specifically on this product’s quirks, understand the subtle signs of an issue – from humidity exposure to minor mechanical damage – and flag any risk before shipment. Clients see this preventive culture in fewer claims and less wasted time, which matters just as much as any technical advantage.
Years at the reactor line teach a simple lesson: theory provides a starting point, but experience closes the loop when it counts. The real proof of DTPPBA’s value appears not in sales materials, but in conversations with process engineers who’ve pushed it to the limit. Time after time, repeat customers call out not only technical performance, but the peace of mind from consistent, well-documented production runs. Our team’s commitment shows up even for low-volume users, who often feel ignored by distant, bulk-focused suppliers. We built our business on long-term trust with plant managers and formulators who appreciate straight answers instead of glossed-over answers or vague promises.
Not every batch comes out perfect. We see value not in masking occasional issues, but in transparent documentation, quick root-cause analysis, and honest corrective steps. Manufacturing DTPPBA teaches a hard lesson: easy shortcuts cost more in the end. Well-planned preventative maintenance on pumps and chillers, tracked calibration on lab equipment, and old-fashioned pride in a clean work area add up to stable, worry-free supply. That reliability lets partners focus on process innovation and new product launches, not backtracking through dud batches or off-color product.
Markets change fast. Five, ten years ago we mainly shipped DTPPBA to lube and polymer shops. Now, new uses for advanced coatings, specialty adhesives, and even battery separator membranes are starting to pick up. Our R&D team supports customers with fresh applications by running collaborative test batches, tweaking process variables to uncover new value for DTPPBA-based products. Several recent projects focused on environmental resilience—higher temperature endurance, better UV resistance, and wider compatibility with evolving materials. These projects generate not just incremental improvements, but new possibilities for the industries our end-users support.
By investing in both classic wet chemistry and advanced tools (NMR, mass spectrometry, and surface characterization), we share production insights that help forward-thinking partners choose and validate additives faster. Rather than hiding behind technical jargon, our approach invites lab heads and plant staff alike to ask tough questions, challenge old assumptions, and push for solutions that break legacy constraints. Regular roundtables and factory visits seal the feedback loop so DTPPBA keeps evolving to meet real-world needs—not just today, but as the next round of manufacturing opportunities hits the market.
After years on production lines, you learn to separate textbook solutions from working reality. DTPPBA remains popular because its chemical backbone holds up where less robust molecules falter. Our batch-to-batch consistency, readiness to admit mistakes and fix them, and investment in clean, responsible production matter as much as any technical feature. We see end-users not just as invoice numbers, but as ongoing partners whose feedback guides every improvement. In a world that tends to rush, cut corners, or smooth over problems, our plant continues to bet on rigor, collaboration, and old-fashioned getting-the-details-right. Real chemistry never leaves room for guesswork – and our team keeps bringing that reality into every ton of DTPPBA we ship.