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Triallyl Phosphate

    • Product Name Triallyl Phosphate
    • Alias TAP
    • Einecs 203-056-9
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
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    Specifications

    HS Code

    484116

    Chemicalname Triallyl Phosphate
    Casnumber 3463-12-5
    Molecularformula C9H15O4P
    Molarmass 218.19 g/mol
    Appearance Colorless to pale yellow liquid
    Boilingpoint 215°C (419°F) at 760 mmHg
    Density 1.104 g/cm³ at 25°C
    Flashpoint 96°C (closed cup)
    Solubilityinwater Slightly soluble
    Refractiveindex 1.474 at 20°C

    As an accredited Triallyl Phosphate factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Triallyl Phosphate is securely packaged in a 200-liter steel drum, clearly labeled with hazard warnings and product details for safety.
    Shipping Triallyl Phosphate should be shipped in tightly sealed drums or containers, kept in a cool, well-ventilated area away from sources of ignition and incompatible substances. It is classified as hazardous; proper labeling and documentation are required. During transport, handle with care to prevent leaks, spills, or exposure.
    Storage Triallyl Phosphate should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances like strong oxidizers and acids. Keep the chemical in tightly closed containers, protected from direct sunlight and moisture. Properly label the storage area and ensure access is restricted to trained personnel. Store at temperatures below 25°C for optimal stability.
    Application of Triallyl Phosphate

    Applications of Triallyl Phosphate in Industrial Manufacturing

    Triallyl Phosphate is a specialty phosphorus compound known for its utility as a flame retardant, crosslinking agent, and plasticizer in various industrial processes. As a direct manufacturer, we supply this raw material in global B2B markets supporting demanding downstream segments that rely on precise formulation, adherence to compliance standards, and consistent performance in finished goods manufacturing.

    1. Specialty Flame Retardants for Engineering Plastics

    Downstream compounders in electrical, automotive, and electronic plastics rely on our material as a reactive flame retardant that integrates into the polymer matrix, improving fire resistance without sacrificing key mechanical properties. Triallyl Phosphate responds well to standard compounding, compatibilizes with a broad range of resins, and supports compliance with global fire safety regulations, particularly in polycarbonate and polyester systems.

    Industry compliance standards

    • UL 94 (Standard for Safety of Flammability of Plastic Materials, Underwriters Laboratories)
    • IEC 60695 (Fire hazard testing, International Electrotechnical Commission)
    • RoHS Directive 2011/65/EU (Restriction of Hazardous Substances, for electrical/electronic products in the EU)
    • EN 45545-2 (Railway applications – Fire protection on railway vehicles, Europe)

    Typical usage ratio

    • 2–7% by weight in thermoplastic formulations, adjusted according to resin type, fire resistance target (V-0 to V-2 ratings), and processing temperature constraints

    Downstream process integration

    • Added to resin melt during compounding in twin-screw extrusion lines; co-fed with stabilizers, colorants, and antistatic agents prior to pelletizing or direct molding

    Final product types

    • Insulation housings for consumer electronics and appliances
    • Automotive electrical connectors
    • Data communications terminal blocks
    • Railway interior fittings and cable conduits

    2. Crosslinking Agent in Epoxy and Polyester Resins

    Epoxy formulators and manufacturers of unsaturated polyester composites use our material as a tri-functional crosslinker, leveraging its three allyl groups to form robust three-dimensional polymer networks. It supports tunable curing profiles and allows for mechanical property modification without introducing halogens, resulting in cleaner formulations that meet demanding regulatory requirements.

    Industry compliance standards

    • REACH Regulation (EC) No 1907/2006 (EU chemical management and safe usage)
    • ASTM D638 (Tensile Properties of Plastics)
    • EN 16616 (Composites – Design and manufacture)
    • Chemical substances control law (CSCL, Japan)

    Typical usage ratio

    • 0.5–2.5 parts per hundred resin (phr) for epoxy systems; up to 5 phr in advanced polyester compounds; precise levels depend on the crosslink density and specific resin reactivity

    Downstream process integration

    • Blended into the resin solution before catalysis; participates in solution or bulk polymerization; process parameters adjusted based on initiator and accelerator selection to control pot life and final network structure

    Final product types

    • Printed circuit board prepregs and laminates
    • Glass fiber reinforced panels for building and transportation
    • Corrosion-resistant equipment linings
    • Adhesive formulations for industrial assembly

    3. High-Performance Plasticizer in Nitrocellulose Coatings

    Producers of nitrocellulose-based lacquers and coating systems adopt Triallyl Phosphate as a plasticizer to improve film flexibility, adhesive power, and impact resistance. Its compatibility supports fast drying and gloss development critical in the automotive, furniture, and specialty paper industries, enabling compliance with low-VOC and transport regulations while maintaining excellent finished appearance and durability.

    Industry compliance standards

    • EN 71-3 (Migration of certain elements in surface coatings, relevant for toys and articles in contact with skin)
    • EU Directive 2004/42/EC (Limitation of emissions of volatile organic compounds)
    • ISO 2834-1 (Printing inks and varnishes application procedures)
    • California PROP 65 (Safe Drinking Water and Toxic Enforcement Act, for chemical disclosure)

    Typical usage ratio

    • 10–20% by weight on dry nitrocellulose solids; levels tailored to desired flexibility, coating viscosity, and local environmental restrictions

    Downstream process integration

    • Mixed into nitrocellulose-solvent blends prior to pigment dispersion; participates in in-line blending or batch pre-mix stages; end-use drying rates and hardness can be adjusted with co-solvents and auxiliary plasticizers

    Final product types

    • Automotive refinish lacquers
    • Laminated paper and packaging protective coatings
    • Furniture and wood flooring topcoats
    • Decorative and security print finishes

    4. Modifier in Synthetic Rubber and Elastomer Compounds

    Rubber processors incorporate Triallyl Phosphate in controlled amounts to modify crosslink density and enhance flame retardancy in specialty elastomers. The chemical structure selectively reacts during vulcanization, improving elasticity, heat resistance, and life span of the compounded rubber. This functionality is critical in mass transit, cabling, and technical textiles where flammability and mechanical property compliance drive material selection.

    Industry compliance standards

    • FMVSS 302 (Federal Motor Vehicle Safety Standard – Flammability of Interior Materials, US DOT/NHTSA)
    • ISO 340 (Conveyor belts – Flame retardation characteristics)
    • IEC 60332-1 (Tests on electric cables under fire conditions)
    • EN 13795 (Surgical drapes and gowns – chemical and flame resistance, for technical textile uses)

    Typical usage ratio

    • 3–8 phr in polychloroprene (CR), styrene-butadiene (SBR), and chlorosulfonated polyethylene (CSM) compounding; tuned according to target oxygen index and mechanical property needs

    Downstream process integration

    • Added during pre-mastication or initial mixing with rubber, followed by fillers, accelerators, and sulfur; participates in subsequent batch or continuous vulcanization steps

    Final product types

    • Fire-retardant conveyor belting
    • Power and signal cable sheathing
    • Mass transit seat foams and covers
    • Technical textile backings

    5. Reactive Intermediate in Phosphorus-Based Additive Manufacturing

    Advanced additive producers utilize Triallyl Phosphate as a phosphorus donor and reactive intermediate in the synthesis of high-performance organophosphates and specialty crosslinkers. Its conversion pathways support manufacturing processes for custom flame retardant additives, plasticizer derivatives, and industrial specialty monomers with precise structural tailoring and purity control, all within the framework of regional chemical regulatory systems.

    Industry compliance standards

    • OECD Guideline for the Testing of Chemicals (Batch purity and impurity profiling)
    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients, relevant for industrial chemical intermediates used in APIs)
    • ISO 9001 (Quality management systems for custom manufacturing)
    • GHS (Globally Harmonized System of Classification and Labelling of Chemicals)

    Typical usage ratio

    • User-specific, determined by target conversion in each synthetic pathway; typically ranges from stoichiometric 1:1 to excess 1.2:1 relative to co-reactant, depending on downstream purification and recovery strategies

    Downstream process integration

    • Charged to reactor systems with phosphorus halides, alkylating agents, or acrylate monomers under batch or continuous synthesis conditions; purification via distillation or solvent extraction prior to downstream blending or formulation

    Final product types

    • Organophosphate flame retardant additives
    • Allyl-based crosslinking monomers
    • Phosphate plasticizer intermediates for custom resins
    • Specialty chemicals for polymer modification
    Free Quote

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    Certification & Compliance
    More Introduction

    Triallyl Phosphate: An Inside Look

    Understanding Triallyl Phosphate from the Source

    Every day the chemical manufacturing business makes choices that ripple through many industries. At our facility, Triallyl Phosphate (TAP) stands out for its consistency, reliability, and ability to support applications where other materials start to show limits. It has a blend of technical qualities and versatility that has kept it in production runs across many years. As the group responsible for its real-life production—not just the paperwork or sale—we see its full story: where it succeeds, where it improves performance, and how it compares to options in the phosphate family.

    What Sets Triallyl Phosphate Apart

    Triallyl Phosphate brings a distinct structure that combines three allyl groups linked to a central phosphate. This construction turns it into more than just another plasticizer or flame retardant; it opens up avenues for extra chemical resistance and thermal stability that traditional materials can't always cover. In our plant, the liquid flows clear and colorless during production—consistency in the visual properties signals the right process controls have been met. Each batch gets checked for purity and moisture, with typical purity values landing well above 98%. We keep the residual moisture low. From years of experience, small traces of water can spell trouble in later polymerization steps, so process attention is never compromised.

    Tackling Polymerization and Crosslinking Needs

    Customers approach TAP for its distinct ability to react controllably with a wide range of compounds—often in manufacturing specialty resins and rubbers, where the search for high-performance crosslinkers never ends. Unlike other crosslinking agents, Triallyl Phosphate balances reactivity and processability. Once introduced into a reaction flask, it doesn't flash or volatilize like lighter esters might. We have found, especially in the synthesis of high-purity resins and thermoset polymers, that TAP offers not just crosslink density, but the ability to fine-tune toughness and thermal resistance without pushing the cost envelope beyond reason.

    Resin manufacturers will sometimes test other triallyl compounds such as triallyl cyanurate (TAC) and triallyl isocyanurate (TAIC). Their nitrogen-based backbones shift the heat resistance up at the expense of brittleness or changes in compatibility with common monomers. TAP's phosphate group, by contrast, gives it a flame-retardant profile, reduces smoke generation during thermal events, and offers hydrolytic stability in situations where exposure to water or humidity can't be avoided.

    Performance in Flame Retardant Systems

    Demand for halogen-free fire protection has gone up. Regulations worldwide push for less toxic combustion products and more eco-friendly materials in building, automotive, and electronics. TAP answers by working as both a flame retardant and plasticizer, particularly in PVC, polyurethane, and engineering thermoplastics.

    We have run numerous blending trials with TAP in flexible PVC wire coatings, cable insulation, and fabric backings. The plasticizer properties lower formulation viscosity and allow for easier processing, but what stands out is the self-extinguishing property when exposed to flame. The phosphate content in TAP is responsible for char formation—a protective residue that hinders oxygen from reaching the substrate and slows down the spread of fire. Other plasticizers provide flexibility, but only phosphate-based additives like TAP bring this balanced performance. That double benefit matters most in electrical applications, where both flexibility and fire barrier are non-negotiable.

    Compatibility and Blending with Industrial Polymers

    Working with many downstream users, we recognize that not all industrial polymers respond the same to liquid additives. TAP, by virtue of its molecular structure, blends smoothly with common monomers such as vinyl, acrylic, and unsaturated polyesters. It dissolves well without separating, provided the mixture is agitated and process temperatures are kept within reasonable bounds. Handling is key—TAP doesn’t form gels or precipitate under normal conditions, which minimizes downtime and cleaning headaches in both batch and continuous systems.

    Long-Term Stability in Harsh Conditions

    We get regular queries about long-term behavior, especially where weather, heat, and chemicals put strain on every molecule in a product. TAP retains its performance under repeated thermal cycling and exposure to harsh environments. Products based on TAP-enhanced resins have returned satisfactory results in electrical insulators, laminates, and outdoor coatings—even in environments with high humidity or acid exposure. The reason comes down to both the inherent hydrolytic stability of the phosphate ester bond and the manufacturing discipline that keeps foreign ions or water content out of the final drum. Small deviations in raw material quality or process conditions can shorten product lifetimes; our attention to process controls means TAP maintains the characteristics users have come to expect.

    Ease of Handling and Integration

    In the plant, TAP pours easily from drums or tanks, giving operators immediate feedback on viscosity and clarity. Our team prefers additives that avoid complicated safety protocols, and TAP’s moderate toxicity profile makes plant life easier compared to strong acid chlorinated compounds of the past. Gloves, goggles, and local ventilation do the job—no need for full hazmat routines. We always stress good housekeeping and follow-up on spills promptly due to TAP's ability to mildly irritate the skin in pure form. Industrial users usually appreciate its low vapor pressure, since that keeps airborne exposure to a minimum and makes for friendlier working conditions on the production floor.

    Clear Specifications Backed by Onsite Testing

    Most buyers request a full range of documentation before the first shipment leaves our site. We run in-house GC, viscosity checks, color tests, and acid value titrations on every lot. Pure TAP grades typically present as colorless, watery liquids; our color checks target below 20 APHA so finished goods show no trace of discoloration. We report acid value in mg KOH/g and keep it low to avoid unwanted side reactions. By controlling the allyl content, we ensure predictable polymerization; a stable minimum percentage means users avoid headaches with slow cures or unpredictable tack.

    Contrast with Other Phosphate Plasticizers and Crosslinkers

    Over the years, customers have compared TAP to triphenyl phosphate (TPP), tributyl phosphate (TBP), and related compounds. TPP, loaded with three phenyl groups, gives excellent thermal stability but can't crosslink with reactive sites in the way TAP does. TBP ends up lighter, more volatile, and sometimes escapes from finished plastics over time, causing fogging or loss of flexibility. TAP, by contrast, locks into resins during cure. The result: performance stays stable with less migration, which matters for consumer products or anything meant for long life and safety compliance.

    For applications requiring flame retardance but not polymer crosslinking, TPP may get the nod, but TAP comes into its own for laminate production, composites, and specialty elastomers. We supply both—yet the users that demand rigorous answers to regulatory flame resistance or need to meet unique crosslinking targets gravitate to TAP for its more multidimensional benefits.

    Meeting Regulatory and Environmental Requirements

    Concerns over chemical additives and their environmental profiles have never been higher. TAP’s composition gives it an advantage: as a non-halogenated option, it aligns easily with new regulatory paths that squeeze out halogen-bearing additives. We track global regulations, and TAP slots comfortably under many RoHS and REACH guidelines for use in electronic and building products. We test for impurities like heavy metals or aromatic byproducts, so users can be confident their own products aren't at risk for recalls or non-compliance.

    Working directly with end users and regulatory consultants, we supply detailed product disclosure information and can run third-party testing if uncommon regional limits apply. Our internal checks for composition consistency make it easier for downstream users to submit their own samples and pass, whether validation comes from Europe, North America, or Asia. Industry trusts process discipline—the baseline for ECHA or EPA approval comes from consistent, verifiable chemistry, and this is baked into every batch.

    Supporting Advanced Materials Innovation

    Technology rarely stands still. Modern applications demand chemicals that do more than meet spec—they need to push performance in new ways, whether through higher endurance in electronics potting compounds or specialized adhesives in clean energy generation. Triallyl Phosphate’s value as a crosslinker translates into actual advances on the ground: faster cure rates, better high-temperature resistance, and fewer maintenance cycles for premium composite products.

    Our research associates have worked alongside resin formulators looking to break ceilings on dielectric strength and mechanical flexibility. In specialty engineering plastics for high-frequency insulators, the introduction of TAP can raise material performance by several percent compared to legacy products. This comes back to the unique way its structure contributes not just to chain lengthening, but to the compact, robust matrix formed during curing.

    Supply Chain Reliability and Batch-to-Batch Consistency

    Running a chemical operation means more than just chemistry. Reliability means factories can keep to schedule and avoid expensive downtime. During raw material market swings, we secure our allyl alcohol and phosphorus feedstocks months in advance. This strategic habit means our TAP customers rarely see back-orders. We run multiple shifts and maintain transparent communication pipelines with partners right down to trucking and warehousing. Each delivery comes from tracked batches, which makes recalls unlikely and lets users easily match lab results to purchase orders for new product development or regulatory interviews.

    Feedback cycles close the loop. If a batch needs tweaking for a tighter color limit or lower odor, our technical staff jump in. Open doors and direct engineering contacts make it easier for users to fine-tune TAP performance in actual plant conditions. We never ship untested product, and rapid response to requests keeps customer process teams in sync even during scale-ups or recipe changes.

    Guidance for Safe, Sustainable Use

    Chemicals shape products used every day, but safety never leaves the conversation. We train shippers, warehouse teams, and blending staff on safe transfer and storage, making sure TAP doesn't pick up water or foreign contaminants. Our packaging team inspects each drum, uses lined containers, and adds tamper-proof seals. Instructions are clear: TAP handles best in dry, cool storage away from direct sunlight and strong oxidizers.

    Long-term environmental care means planning for spillage, leaks, and end-of-life disposal with the same rigor used in supply. We partner with approved waste handlers for used drums, and provide detailed material recovery guides based on customer location and local rules. We also strive to reduce process waste in-house, recovering byproducts and minimizing off-spec batches by investing in advanced monitoring systems at critical process steps.

    Partnering for Better Products

    Delivering TAP isn’t just about ounces and specs; it’s about enabling better, safer materials in homes, vehicles, and consumer tech. Over the years, we've watched as new industries—renewable energy, high-speed transit, smart electronics—build on the backbone of modified resins, high-grade insulation, and durable composites. TAP empowers this progress, allowing engineers and chemists to overcome mechanical, thermal, and regulatory barriers.

    Early-stage product designers want feedback on compatibility, curing profiles, and side effects. Our laboratory teams have taken part in collaborative trials where TAP’s crosslinking capacity delivered game-changing durability or resistance to fire—often tipping the balance in competitive consumer product bids. Direct support during scale-up and field application helps avoid costly surprises.

    Continuous Improvement in Our Production Process

    Year by year, the bar moves higher. Our technical group initiates regular process audits, seeking ways to cut energy use, improve yield, and minimize process variability. Innovations in reaction monitoring, catalyst handling, and purification drive stepwise improvements in both cost and environmental footprint. Waste heat recovery and solvent recycling are now in daily practice.

    Every gain in efficiency reflects downstream, keeping TAP supply both secure and affordable across industries. Our reputation flows from the real-world results of those depending on our product—and from decades of learning what matters most at the bench, in production, and in finished goods. We’re driven by problem solving, transparent reporting, and ongoing dialogue with formulators, regulators, and production teams.

    Field Experience: Where TAP Turns the Tide

    Field feedback from users shows some of the best proof points. In insulation materials for heavy industry, products based on TAP-modified resins have delivered longer times between service intervals thanks to their resistance to hydrolysis and slow flame spread. In composite production for wind turbine blades, TAP has expanded options by improving cure rates without introducing unwanted brittleness.

    We share user experiences, bring in real customer site data, and listen to pain points—whether in batch scale-up, product failure troubleshooting, or new compliance checks. Those insights directly inform process tweaks and help new customers start faster and avoid legacy mistakes.

    Looking Ahead

    TAP stands strong on its own, but also as a signpost toward the future of high-performance, safe, and responsible chemical manufacturing. We don’t stake our name on annual slogans or punchlines; instead, the everyday work and direct engagement with users shape what comes next. We take pride in our role, from lab bench to loading dock, ensuring every delivery of Triallyl Phosphate lifts the bar higher for quality, performance, and safety.

    Summary Table: Key Properties and Usage at a Glance

    Attribute Details
    Appearance Clear, colorless liquid
    Purity (typical) >98%
    Viscosity (20°C) Low, flows easily
    Acid value Low; routinely verified per production lot
    Uses Resin crosslinker, flame retardant, specialty plasticizer in various industrial polymers
    Compatibility Vinyl, acrylic, polyester, polyurethane, and more
    Primary difference vs. other phosphates Functions as both a plasticizer and an active crosslinker; superior hydrolytic and thermal stability
    Compliance Supports RoHS, REACH, and major non-halogenated requirements
    Flame Retardant Activity Forms protective char, enhances self-extinguishing properties in plastics