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Phenyl Phosphine

    • Product Name Phenyl Phosphine
    • Alias Phosphanamine
    • Einecs 209-820-3
    • 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
    VTB
    Specifications

    HS Code

    449585

    Cas Number 638-21-1
    Chemical Formula C6H5PH2
    Molar Mass 110.10 g/mol
    Appearance Colorless to pale yellow liquid
    Density 1.004 g/mL at 20°C
    Melting Point -86°C
    Boiling Point 172°C
    Solubility In Water Insoluble
    Flash Point 57°C (closed cup)
    Vapor Pressure 0.34 mmHg at 20°C

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

    Packing & Storage
    Packing Phenyl Phosphine is packaged in a 100 mL amber glass bottle, sealed with a Teflon-lined cap, and clearly labeled for safety.
    Shipping Phenyl Phosphine should be shipped in tightly sealed containers, protected from moisture and air. It must be kept away from oxidizers and sources of ignition. Transport in accordance with local regulations for hazardous chemicals, using appropriate hazard labels (flammable, toxic). Handle with care to avoid leaks, spills, or exposure during transit.
    Storage Phenyl Phosphine should be stored in a tightly sealed container under an inert atmosphere, such as nitrogen or argon, in a cool, dry, and well-ventilated area away from moisture, air, oxidizers, and acids. Avoid light and sources of ignition. Proper chemical storage cabinets designed for flammable and air-sensitive materials are recommended to prevent hazardous reactions or degradation.
    Application of Phenyl Phosphine

    Applications of Phenyl Phosphine in Industrial Manufacturing

    Phenyl Phosphine serves as a key intermediate and functional additive in several high-value industrial manufacturing sectors. As the direct producer, we supply consistent high-purity material that meets the technical benchmarks for specialized applications. Below we highlight principal downstream sectors with distinct usage requirements, process integrations, and quality controls.

    1. Organophosphorus Ligand Synthesis for Catalysts

    Chemical manufacturers use our phenyl phosphine to synthesize phosphine ligands such as diphenylphosphine and other substituted arylphosphines, which coordinate with metals in homogeneous catalytic systems. These ligands support selective hydrogenation, carbonylation, and hydroformylation reactions in bulk and fine chemical production, with downstream requirements for high stereoselectivity and batch-to-batch reproducibility. Each derivative requires specific stoichiometry and controlled addition to guarantee ligand purity and catalyst activity, especially for pharmaceutical and specialty intermediate syntheses.

    Industry compliance standards

    • ISO 9001:2015 Quality Management System
    • REACH Regulation (EC) No 1907/2006 registration for manufacture/import
    • IUPAC nomenclature and purity standards for organophosphorus reagents
    • Customer-specific specifications for trace metal content and phosphine purity

    Typical usage ratio

    • 0.9–1.1 molar equivalents, adjusted per targeted ligand structure and metal complex desired
    • Usage depends on the selected synthesis route (direct arylation, Grignard addition, etc.)

    Downstream process integration

    • Charged to reaction vessel with aryl halides or metal halides in first or second step
    • Purified ligand isolated by distillation or crystallization for catalyst applications
    • Integrated within glove box or inert atmosphere processing to prevent oxidation

    Final product types

    • Rhodium, palladium, or platinum catalyst precursors for pharma synthesis
    • Custom mono- and bi-dentate phosphorus ligands
    • Specialty chemical intermediates for chiral catalysis
    • Supported metal-phosphine catalyst systems for industrial fine chemicals

    2. Flame Retardant Additives for Polymeric Materials

    Producers in engineering plastics and textile coatings incorporate phenyl phosphine derivatives in phosphorus-based flame retardant systems. These compounds function as flame-inhibiting agents, reducing flammability and smoke density in final polymer matrices. Each application demands strict adherence to downstream polymer compatibility and thermal stability thresholds. The dosage adjusts with fire safety certifications for electronics housings, cable insulation, and specialty films.

    Industry compliance standards

    • UL 94 – Flammability Test for Plastics Materials
    • IEC 60695 – Fire Hazard Testing for Electrical Equipment
    • RoHS Directive (2011/65/EU) – Restrictions on hazardous substances in electronics
    • EN 13501 – Reaction to fire classification for construction products

    Typical usage ratio

    • 2–8% by weight in polymer blend, adjusted according to flame retardant system composition
    • Lower ratios in synergistic blends with other phosphorus or nitrogen species

    Downstream process integration

    • Directly compounded into base resin during extrusion or injection molding
    • Added to polymer masterbatch for subsequent dilution in film or fiber production
    • Processed under controlled thermal profiles to avoid degradation of the additive

    Final product types

    • Halogen-free flame-retardant polycarbonate and ABS housings
    • Fire-resistant cable jackets and electrical components
    • Technical textile back-coatings for transit and aerospace
    • Construction foams with reduced ignition risk

    3. Synthesis of Agrochemical Intermediates

    Contract and specialty agrochemical companies deploy the product for the synthesis of phosphorus-containing structures in crop protection agents. It acts as a reactive phosphorus donor in the creation of selective herbicides, fungicides, and insecticide intermediates, maintaining high purity and reactivity to control side-product formation. The addition protocol depends on reaction exothermicity and target molecule substitution profile, with strict isolation protocols to meet regulatory residue limits in final use.

    Industry compliance standards

    • FAO/WHO Codex Alimentarius standards for pesticide active ingredient synthesis
    • ISO 9001:2015 for manufacturing quality management
    • REACH pre-registration and transport restrictions for toxic substances
    • National agrochemical registration purity thresholds (EPA, EFSA, etc.)

    Typical usage ratio

    • 0.95–1.05 stoichiometric ratio, tuned to maximize conversion and minimize excess phosphorus input
    • Adjusted based on specific coupling partners and desired yield

    Downstream process integration

    • Metered under inert gas as nucleophile in phosphorus-carbon bond formation
    • Used in high-throughput stirred reactors for batch or continuous synthesis
    • Integrated with phase separation and solvent extraction for downstream purification

    Final product types

    • S-phenyl phosphinothioate herbicide intermediates
    • Organophosphorus insecticide and miticide precursors
    • Phosphorus-modified bioactive compounds for seed treatments
    • Custom pesticide intermediates for contract manufacturing

    4. Silicon Wafer Surface Passivation in Microelectronics

    Fabricators in semiconductor and photovoltaic manufacturing utilize phenyl phosphine chemistry to prepare phosphorus-based passivation layers on silicon wafers. The material acts as a phosphorus source in thermal diffusion or solution-based deposition steps, controlling surface recombination and improving minority carrier lifetimes in device fabrication. Processing facilities require tight control of feedstock contaminants and reproducible phosphorus loading, ensuring device consistency and UL/IEC safety benchmarks in end-use electrics.

    Industry compliance standards

    • SEMATECH and International Technology Roadmap for Semiconductors (ITRS) guidelines
    • SEMI F57 – Specification for purity in process chemicals
    • ISO 14644 Cleanroom standards for wafer production environments
    • RoHS compliance for electronics components

    Typical usage ratio

    • 100–300 ppm phosphorus loading, adjusted to meet passivation thickness and sheet resistance targets
    • Fine-tuned per silicon wafer size and device architecture

    Downstream process integration

    • Applied via atmospheric or low-pressure chemical vapor deposition (CVD)
    • Dosed in precursor formulations for liquid phase surface treatments
    • Post-treatment annealing for phosphorus drive-in and profile formation

    Final product types

    • Monocrystalline and polycrystalline silicon solar cells
    • Integrated circuit wafer substrates with reduced leakage current
    • Microelectronic device passivation films
    • Chip-scale packaging with phosphorus-doped oxide layers

    5. Specialty Lubricant Additive Manufacturing

    Lubricant formulators introduce phenyl phosphine derivatives as phosphorus antiwear and antioxidant agents in specialty greases and industrial oils. These derivatives improve high-temperature stability and oxidative resistance in hydraulic fluids, gear oils, and greases, with precise dosing controlled by standardized bench testing and field trials. Blending requires full traceability and compatibility with synthetic base stocks and other additive components per national and customer requirements.

    Industry compliance standards

    • ASTM D4951 – Standard Test Method for Phosphorus in Lubricating Oils
    • API Service Categories (e.g., GL-4, GL-5 for gear oils)
    • ISO 21469 – Safety of machinery and lubricants used in food-processing
    • REACH SVHC assessment for lubricant additives

    Typical usage ratio

    • 0.1–1.5% by weight based on total lubricant formulation volume
    • Adjusted according to oxidation stability and antiwear requirements specified by the OEM

    Downstream process integration

    • Pre-mixed with other additives during blending or added via single-stream dosing
    • Integrated during base oil batch preparation under nitrogen atmosphere
    • Followed by performance testing including wear, oxidation, and volatility control

    Final product types

    • Heavy-duty hydraulic fluids for industrial equipment
    • High-performance synthetic gear oils
    • Extreme-pressure industrial greases
    • Specialty metalworking fluids
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    Certification & Compliance
    More Introduction

    Introducing Phenyl Phosphine: Practical Strength for Real-World Chemistry

    Bringing Phenyl Phosphine from Our Lab to Your Line

    Crafting large-batch chemicals leaves little room for error. Over decades, our production lines have focused on the simple promise: supply the truest form of a molecule, batch after batch, year after year. Phenyl phosphine is no exception. This compound, with formula C6H5PH2, has shaped progress quietly across many sectors. We produce it straight from primary phosphorus chemistry, beginning from elemental raw materials, using established methods that help prevent contamination and residual by-products. Quality raw input and vigilant process control always tell the real story when someone needs to depend on a chemical’s performance.

    What stands apart in our practice is consistency. Our phenyl phosphine reacts as expected, with side products kept at bay through batch testing and routine process adjustments. Our chemists know how trace oxidation can trip up the work downstream. By refining our distillation and inert handling techniques, we aim for levels of compositional purity that remove the guesswork from critical transformations—like forming catalysts or tuning ligands for advanced applications.

    Specifications that Matter Where It Counts

    We focus on single-component output for our phenyl phosphine, available in clear liquid form. Typical packaging options include fluoropolymer-lined steel drums and glass containers, sealed under nitrogen pressure to avoid even incidental air exposure. Strict moisture control cuts risks common to phosphorus-based reagents, giving industrial and research chemists reliability in sensitive synthesis. Our product leaves the line with purity above 98% in most campaigns. Any time small drifts appear in GC-MS or NMR spot checks, the batch stays here rather than risking surprises at a customer’s bench.

    We maintain a detailed record of physical constants for each lot. Customers working on scaling up a process for pharmaceuticals or electronics can compare our supplied melting and boiling points with the literature and independent analysis. You don’t want to chase variances between suppliers or see chromatography signals you can’t explain. Our reporting framework has grown from feedback and problem-solving collaborations over the years, so anyone who runs into an unusual yield or stalling reaction has clear data to start troubleshooting.

    Day-to-Day Use: Making Things Happen for Chemists

    Phenyl phosphine isn’t a casual chemical. It lands on purchase requests for its unique profile. Its phosphorus-hydrogen bond delivers reactivity that organic chemists rely on for forming P–C bonds and reducing various functional groups. We’ve watched it become essential for making certain catalysts, for example, in cross-coupling reactions and various organometallic syntheses. As a building block, it shines when handling transition-metal chemistry.

    Our customers often approach us looking for phenyl phosphine as a starting point for custom ligand synthesis. They tell us about the efficiency gains when they don’t have to second-guess a supplier’s inconsistency. The compound serves as a nucleophile in specific Grignard-type procedures, plugs straight into arylation strategies, and supports downstream derivatization—provided no hidden sulfur or oxidized phosphorus slips in. Direct feedback from production chemists inspires our batch-level controls; no one wants an unplanned quench or dangerous exotherm during scale-up because of unseen contaminants.

    Standing Out from Other Phosphines

    Many options crowd the world of organic phosphorus chemistry, but phenyl phosphine carves a recognizable niche. Triphenyl phosphine may grab more headlines due to volume alone—but its bulk and steric profile limit its flexibility. Phenyl phosphine differs in reactivity, with a single phenyl ring on phosphorus, leaving the remaining hydrogen atoms available to participate in further chemistry. This molecular structure gives it a unique balance: more reactive than most tertiary phosphines, less volatile and easier to handle than simple phosphine gas.

    Dialkyl phosphines and trialkyl phosphines find favor in different sectors—especially where electron donation or steric tuning matters most. Phenyl phosphine, by contrast, strikes middle ground for those seeking diversity in ligand frameworks without excessive handling risk. It allows catalyst designers to access new realms of selectivity through ligand tuning, all stemming from that monovalent, monoaryl phosphorus center.

    Storage demands also set phenyl phosphine apart. While tertiary variants tolerate the atmosphere somewhat better, monophenyl types call for real vigilance regarding air and moisture. Our technicians go to extra lengths to fill, purge, and seal every vessel. Years in the warehouse don’t shift the compound’s profile—so long as the container seal remains intact, and storage avoids extremes of light and heat.

    From Production to Practice: What Experience Teaches

    Manufacturing phenyl phosphine poses serious challenges few see outside plant walls. The phosphorus raw feed, the danger of inadvertent oxidation, and the risk of airborne exposure mean every step draws on the know-how of operators who have learned through trial and error. We learned the hard way that even mild air leaks produce odors that linger and contaminate, leading us to comprehensive monitoring and redundant gas scrubbing systems.

    Scale-up isn’t just about bigger reactors; it means tighter controls. Small impurities shoot up at high throughput. We invested early in closed-system handling—no shortcuts with cheap valves or off-brand gaskets. Our analytics team tracks trace oxygen ingress and seasonal variability in feedstocks, letting us redirect problematic lots long before they turn into headaches for our customers. These investments often stay invisible to the end user but add up to genuine value by the time the chemical reaches its destination.

    Solving Problems in Chemistry with Phenyl Phosphine

    Customers routinely share stories of how our phenyl phosphine helped bridge the gap between bench-scale ideas and production-scale results. Its fast reactivity helps reduce time needed for certain metal-catalyzed processes, and its compatibility with a broad range of metals lets formulators test new ideas without a closet full of different reagents. In the electronics industry, it finds use in specialized surface treatments or for tailoring the electronic properties of functional polymers.

    In research settings, its reliable purity lets academic researchers publish reproducible results, standing up to peer review. Few things stall promising research faster than inexplicable batch-to-batch variations. Over the years, we've fielded calls from chemists confronting odd analysis blips mid-project; knowing the precise provenance and control parameters for the phenyl phosphine they used can often unravel the issue on a timescale that keeps their program on track.

    Pharmaceutical chemists work under pressure. Any contaminant in a phosphorus-based intermediate can create regulatory trouble, loss of yield, and unplanned overtime. We take a proactive approach to sharing our batch records and test results, supporting their documentation and troubleshooting needs. For these clients, confidence often comes down to the small print—clear, consistent analytics, and fast responses when details matter.

    What Makes Reliable Phenyl Phosphine Supply Possible

    No one wants to stop the line waiting for a specialty reagent. Our scheduling teams work with real-world usage data to forecast demand and maintain buffer stock. Disruption—either at the raw material stage or in transportation—can throw an entire month’s workflow into chaos. Over time, we developed contingency plans for critical reagents including phenyl phosphine, holding stock in separate facilities and using redundant transport partners. This approach helps shield our partners from market or logistical surprises that can derail a project or trigger costly delays.

    Working across continents, we have seen how different regulations, customs bottlenecks, and seasonal conditions affect sensitive phosphorus shipments, especially for air-reactive products. Close coordination between our shipping specialists and regulatory advisors keeps us on top of changing import rules and hazard labeling. Each region has its own requirements, and keeping shipments compliant and timely demands daily vigilance.

    Field-Proven Advice for Safe and Efficient Use

    Our technical support staff often walk new users through practical points—like working under an inert atmosphere, grounding glassware, and double-checking purging steps. Our own teams spend years training in controlled environments before handling phenyl phosphine production, and the lessons translate directly to safer bench practice. We encourage both novice and seasoned chemists to maintain strict exclusion of oxygen and moisture, and to consider remote transfer setups for larger volumes.

    The most common hazard in handling phosphorus compounds is unexpected oxidation or air exposure—an error that often starts small but can escalate fast. We supply supporting materials on safe transfer techniques, disposal protocols for waste, and instructions for emergency handling because the risks are very real, and lessons learned one shift at a time are far more valuable than abstract warnings that miss practical realities.

    Roots in Daily Practice: Continuous Feedback and Improvement

    While advances in chemical manufacture often draw from academic insight and new technologies, nothing matches the regular feedback cycles from production floors and customer laboratories. Phenyl phosphine may look simple on a supply line drawing, but the small error margins in its preparation and the downstream impact of every decision set it apart. Our continual improvement efforts lean heavily on insights from chemists in the field—every report of a stuck reaction, every anomalous batch analysis, every packaging concern becomes a catalyst for further refinement.

    We see real benefits every time a project leader takes the time to describe how their needs are evolving, whether it’s a new reaction pathway in fine chemicals or a shift in pharmaceutical regulation. Greater transparency in reporting and a willingness to act on feedback drive incremental improvements that compound over time. Many long-term clients now count on us for application support—an experience that has shaped our training programs and led us to invest in more robust tracking for every batch.

    Environmental Responsibility and Regulatory Perspective

    The burden of responsible chemistry looms larger now than ever. We address this reality by adhering to strict emission standards, recycling by-products, and investing in improved waste treatment systems. With each passing year, phosphorus supply chains confront higher scrutiny concerning both occupational safety and environmental impact. Our commitment extends to transparent record-keeping and independent audits on both product and operations.

    Shipping and storage of phenyl phosphine take on additional complexity due to local and international regulations. From vessel labeling to inventory logging, accuracy ensures legal compliance and prevents mistakes that might expose personnel, environment, or end users to unintended hazards. We share our compliance documentation readily with enterprises that use our phenyl phosphine in regulated workflows.

    Looking Forward: Innovation and Customer Collaboration

    Modern industry always demands more—higher purity, tighter tolerances, better performance under changing environmental standards. Our R&D teams have begun exploring routes toward greener synthesis, alternative precursors, and improved packaging solutions to reduce waste while maintaining safety. We remain committed to evolving our phenyl phosphine range in lockstep with advances in catalyst design, pharmaceutical intermediates, and specialty polymers. Input from loyal customers and first-time users drives much of this work. Suggestions for practical improvements—from new container types to easier documentation for regulatory review—inspire our teams to deliver enhanced value.

    The future of phenyl phosphine supply and application will center on even stronger partnerships between chemical manufacturers and the industries they serve. Those partnerships grow out of reliability, openness, and a careful balance of tradition and innovation. Our pledge remains simple: continual delivery of phenyl phosphine that forms the backbone of cutting-edge chemistry, backed by a depth of real-world knowledge drawn from our hands-on production experience.