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Fluoranthene

    • Product Name Fluoranthene
    • Alias Benzo(jk)fluorene
    • Einecs 205-912-4
    • 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

    273011

    Name Fluoranthene
    Cas Number 206-44-0
    Molecular Formula C16H10
    Molar Mass 202.25 g/mol
    Appearance Colorless to pale yellow crystalline solid
    Melting Point 108-110 °C
    Boiling Point 375 °C
    Density 1.25 g/cm³
    Solubility In Water Insoluble
    Flash Point 156 °C
    Iupac Name Fluoranthene
    Pubchem Cid 9154
    Odor Slight aromatic odor

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

    Packing & Storage
    Packing Fluoranthene, 100g, is packaged in a sturdy amber glass bottle with a clear hazard label and secure screw cap for safe handling.
    Shipping Fluoranthene is shipped as a hazardous material, classified under UN3077 (Environmentally Hazardous Substance, Solid, N.O.S). It should be packed in tightly sealed containers, protected from physical damage, moisture, and ignition sources. Shipping requires proper labeling and documentation per international regulations, and handling should use appropriate PPE to avoid exposure.
    Storage Fluoranthene should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from incompatible substances such as strong oxidizers. Keep it away from heat and sources of ignition. Store in a chemical safety cabinet, preferably one for hazardous organic chemicals, and ensure appropriate labeling. Avoid exposure to light and moisture to maintain stability and prevent degradation.
    Application of Fluoranthene

    Applications of Fluoranthene in Industrial Manufacturing

    As a direct manufacturer specializing in polycyclic aromatic hydrocarbons, we supply fluoranthene to leading chemical sectors with traceable batch documentation and process control. This material primarily serves high-performance niche applications where its chemical structure brings distinct process advantages. Below we detail verified downstream scenarios, specifying compliance requirements, addition protocols, integration points, and finished industrial outcomes for procurement teams evaluating specialty aromatic inputs.

    1. Synthon for Agrochemical Intermediates

    Key agrochemical producers incorporate fluoranthene as a building block for certain specialty crop protection agents, where its fused aromatic rings provide a precursor structure for advanced synthesis. In this process, chemists introduce fluoranthene at the ring-extension or derivatization stages to construct unique heterocyclic cores with targeted bioactivity. Batch records must track impurity levels and full traceability, as required under the regulatory frameworks governing active ingredient preparation.

    Industry compliance standards

    • OECD Principles of Good Laboratory Practice (GLP)
    • EC Regulation No 1107/2009 for Plant Protection Products (Europe)
    • US EPA 40 CFR Part 158 (Pesticide Registration Data Requirements)
    • ChP (Chinese Pharmacopoeia) risk assessment for chemical raw materials

    Typical usage ratio

    • 3-7% in intermediate syntheses, with quantity set by the desired heterocycle yield, subject to periodic process optimization based on crop protection agent specifications and impurity profile management

    Downstream process integration

    • Direct addition to multi-step reaction vessels at the aromatic coupling or alkylation step; continuous monitoring via HPLC to ensure aromatic integrity before final condensation or cyclization reactions

    Final product types

    • Certain tricyclic insecticides and fungicides
    • Protected active ingredient intermediates for formulation into commercial crop protection solutions
    • Specialty agrochemical libraries for registration trials
    • Patent-pending heterocyclic ingredient seeds for downstream molecule scale-up

    2. PI (Polyimide) Monomer Synthesis for Advanced Electronics

    Electronics manufacturers rely on aromatic ring-containing monomers to impart high thermal stability and electronic performance to polyimide (PI) films and coatings. Fluoranthene enters the formulation as a rigid backbone precursor during the aromatic dianhydride or diamine phase of polyimide polymerization. This pathway targets applications such as flexible printed circuits, OLED display layers, and high-frequency insulation tapes, demanding trace impurity controls and repeatable molecular weights.

    Industry compliance standards

    • IEC 61249-2-7 (Materials for printed boards)
    • RoHS 2011/65/EU restricted substance controls
    • IPC-4101D/4103C (Base Materials for Rigid and Flexible Printed Boards)
    • ISO 9001:2015 (Quality Management) for electronic materials

    Typical usage ratio

    • 1.5-4% as a ring-structure monomer in specialty PI resins; adjusted to tune thermal expansion and dielectric constants according to application requirements and polymer backbone modification

    Downstream process integration

    • Controlled feeding into PI monomer reactors (polycondensation vessels) at early-stage monomerization, followed by imidization under inert gas and high temperature, with molecular analysis after polymer formation

    Final product types

    • Flexible polyimide circuit substrates
    • OLED display films
    • Thermal protection layers for microelectronics
    • Microporous tapes for high-frequency signal isolation

    3. Reference Standard and Marker in Analytical Laboratories

    Certified analytical labs and environmental monitoring organizations utilize pure fluoranthene as a calibration standard for routine PAH analysis—especially when verifying regulatory compliance in petrochemical, environmental, and pharmaceutical residue assays. Precise quantity addition is critical, as standards must provide reproducible detector response for HPLC, GC-MS, or synchronous fluorescence spectrometry, with full documentation for lab accreditation audits.

    Industry compliance standards

    • ISO 17025 (Testing and calibration laboratories)
    • US EPA Method 610/8270D (PAH analysis in water, soil, air)
    • EN 16619:2015 (Testing PAHs by GC/MS)
    • Japan Industrial Standards (JIS K0311) for polycyclic aromatic hydrocarbons

    Typical usage ratio

    • Stock solutions in the range of 1–10 mg/L for working standards; spiking levels precisely set by the analytical method performance requirements and limit-of-detection targets

    Downstream process integration

    • Preparation of matrix-matched calibration standards and internal markers; added directly to blank or sample extracts before chromatographic analysis for quantitation and method validation

    Final product types

    • ISO 17034-certified PAH analytical standards
    • CRMs (Certified Reference Materials) for laboratory proficiency testing
    • Internal reference spike solutions for regulatory environmental assays
    • Calibrant mixtures for high-precision chromatographic quantitation

    4. Fluorescent Tracer Component in Specialty Lubricant Conditioners

    Manufacturers producing industrial lubricants and condition monitoring solutions occasionally incorporate fluoranthene as a fluorescent tracer for non-destructive detection of product migration or leakage in high-value equipment. Its polyaromatic structure exhibits strong fluorescence under specific UV wavelengths, aiding maintenance engineers in pinpointing micro-leaks and verifying lubricant coverage during machinery operation, without the need to halt process lines for sampling.

    Industry compliance standards

    • ASTM D7042 (Standard Test Method for Condition Monitoring of Used Lubricants)
    • OECD Safety Data requirements for lubricants and tracer chemicals
    • REACH Regulation (EC) No 1907/2006 substance dossier
    • ISO 11138-7:2019 (Process indicators for industrial equipment maintenance)

    Typical usage ratio

    • 0.01–0.03% in finished lubricant formulation; calibrated per expected detection threshold and background fluorescence of the lubricant base stock

    Downstream process integration

    • Post-refining addition into synthetic or mineral lubricant blending tanks; full dissolution achieved prior to packaging, with QC fluorescence test implemented per batch

    Final product types

    • UV-detectable industrial lubricants
    • Fluorescent condition monitoring additives packaged as service aids
    • Leak detection fluids for plant and machinery inspections
    • Detectable greases for performance-critical conveyor and hydraulic systems

    5. Intermediate for Synthetic Dye and Pigment Manufacturing

    Advanced dye and colorant manufacturers use fluoranthene as an intermediate to create high-stability specialty dyes, particularly in sectors where weather-fastness and photostability are critical. Its fused aromatic structure enables efficient construction of deeply colored chromophores by sulfonation, nitration, or further ring expansion. Stringent pigment formulation control demands clear traceability and impurity management throughout the multistep synthesis.

    Industry compliance standards

    • EN 71-3 (Migration of certain elements, for toys and colorants)
    • ISO 9001 (Quality systems – pigment production)
    • US FDA 21 CFR §74 Subpart C (Color Additives for polymers and plastics)
    • REACH Annex XVII (Restrictions on PAH content in consumer pigments)

    Typical usage ratio

    • Usage varies from 2-6% as a core aromatic feedstock in pigment intermediate synthesis, adjusted according to target color depth and molecular mass requirements for application-specific dyes

    Downstream process integration

    • Introduction as the fundamental ring structure in sulfonation or nitration reactors; integrated into pigment core during early-stage batch synthesis, with all PAH derivatives separated prior to final formulation and purity analysis

    Final product types

    • High-photostability synthetic dyes for polymers and plastics (e.g., automotive interiors)
    • Sunlight-resistant paints for marine or industrial coatings
    • Specialty pigments for printed circuit inks
    • Colorants for exterior construction materials subject to harsh weather exposure
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    Certification & Compliance
    More Introduction

    Fluoranthene: Our Experience as a Direct Producer

    Understanding Fluoranthene

    At our site, fluoranthene comes off the production line with a signature blue fluorescence that experienced chemists instantly recognize. This polycyclic aromatic hydrocarbon, showing up in pale yellow-green crystals, earned its respect in both research and industry. Our models, including both multi-kilogram and tonnage-scale batches, match what rigorous analytical groups expect: high-purity grades suitable for advanced syntheses, and mid-range fractions serving sectors that value performance over analytical purity.

    Our technicians have spent decades working with PAHs in real reactors—pressure, temperature, solvents—so separating fluoranthene from a tar matrix or crude oil distillate isn’t a textbook operation to us. We understand the molecular nuances because we see the challenges batch by batch. Our ICP and HPLC data reflect that, so the assay never drops below our internal cutoff. Each lot carries the spectral fingerprints our instrument chemists verify before it leaves our gates.

    Where Fluoranthene Makes a Difference

    Chemists rely on fluoranthene's planar, conjugated structure in many mechanistic investigations. Our customers pull from pharmaceuticals, coatings, and environmental labs. In pigment and dye formulations, it delivers the vivid color saturation that’s hard to achieve with simpler analogues. University labs reference our documentation, matching retention times and spectra. At production sites, feedstock reliability comes out in long syntheses—our consistent lot-to-lot performance prevents operational headaches. Some clients prefer our highest-purity model for photochemical and electronic material research, where side impurities change device function. Others order our baseline grades for bulk intermediates or as combustion markers in environmental monitoring.

    From our work in pilot plants, we’ve witnessed how crucial the physical properties can be. Fluoranthene’s crystalline texture behaves differently than smoother PAHs like anthracene or volatile counterparts like naphthalene. Handling properties matter when labs move from bench to production; dusting profiles, melting behavior, and solvent compatibility all vary. Downstream users have told us how fluoranthene enables screening of environmental PAH fingerprints, especially alongside phenanthrene, pyrene, and benzo[a]pyrene. We adjust crystal size for labs that need seamless analysis via GC-MS and LC systems—our staff test solubility and dissolution time with solvents as basic as acetone and as niche as DMSO.

    Not Just Another PAH: Distinct Chemistry in Practice

    Colleagues sometimes lump fluoranthene with pyrene due to the four-ring core, but there are concrete differences. Our process chemists, who have run side-by-side separations with both, insist the molecules part ways in oxidation behavior and photostability. Fluoranthene resists degradation longer under UV than phenanthrene—a fact that shapes its attractiveness in certain thin-film applications. For us, the “fluorescence tail” distinguishes it from colorless competitors. Indicator work, especially in fluorescence-based biosensors, benefits from those trace emissions.

    Our environmental monitoring section relies on fluoranthene’s moderate volatility and specific environmental mobility. Compared to more volatile PAHs, it sticks tighter to particles and persists in soil longer—a risk if ignored, an advantage for tracing contamination. Analytical chemists ask us about background levels of co-extracted PAHs because, on some columns, fluoranthene and pyrene twin closely. We provide technical notes from our in-house separations so customers avoid misattribution in their own runs.

    Handling fluoranthene alongside more hazardous PAHs, we appreciate its workable safety profile. Our containment and ventilation protocols reflect regulatory requirements, but our frontline operators appreciate the routine: disposable gloves, sealed hoods, clear label tracking. End-users in application labs have reported lower vapor pressure complaints—a benefit for those with open-vessel setups.

    Fluoranthene in the Larger Context of Industry

    Markets like pigment manufacturing sometimes favor cheap and dirty fractions from resellers, but that’s not the game our plant plays. Our focus remains on traceability and authentication. Each drum we ship is mapped back to its fraction and purification date. Compliance auditors request this trace data, especially as global regulatory controls tighten. Technically, many industrial customers care more about repeat chromatography patterns than a shiny purity certificate—and that’s where our lot tracking logs shine.

    Researchers, particularly in academic settings, emphasize reproducibility and background interference. Our fluoranthene samples resolve with distinct, narrow peaks in mass spectra and UV absorption runs. These physically verifiable attributes matter in high-stakes applications; small impurities shift results in environmental fate studies or in standard-setting laboratories.

    We face requests for “designer” fractions, as end-users sometimes need narrow-range boiling points or specific trace impurity profiles for comparative toxicological studies. Our plant maintains a flexible process: we use multiple purification routes, from distillation to column chromatography and recrystallization, ramped in batch reactors. In each, our target remains the same—to deliver the intended structure with the supporting purity, without overpromising what’s not technically supported. If a researcher needs a record of spectral shifts, IR and UV-Vis data from our archives are available upon request, drawn from our own running logbooks.

    Environmental and Health Responsibility

    Manufacturing fluoranthene responsibly takes more than fine-tuned columns. Our team invests considerable energy controlling effluent, capturing air emissions, and keeping potential PAH cross-contamination under strict watch. We ship to several countries, all with different restrictions, and our regulatory staff keep up with international chemical lists. Our own residue controls meet or outpace local rules. Each shipment gets a batch-specific statement on PAH composition and handling properties based on direct analytical runs.

    We maintain a zero-tolerance stance for “mystery” PAH levels in our final product. Waste streams from synthesis and purification are isolated, monitored, and treated. Our plant doesn’t pass cost savings onto the environment—our community reputation matters. For product users, a transparent batch history and regular purity confirmation offer confidence. Certified toxicological and ecological data are built on years of in-house experience and peer-reviewed references. Our staff undergo regular safety and environmental training, with stringent oversight on accident prevention, exposure monitoring, and documentation. We openly share how many liters of effluent are treated per batch, as part of our routine communications with both staff and external partners.

    Practical Problems and Real Solutions

    Supply interruptions happen in this field. Part of operating a direct production facility means dealing with feedstock variability and operational downtime. Price spikes can hit when distillation yields drop, and raw material quality shifts. To buffer our customers, stockpiles and forward-planned production blocks save the day. During seasonally driven shutdowns, we communicate openly about lead times. Repeat buyers can contract for guaranteed allocations straight from our warehouse inventory. This direct relationship beats the uncertainty that distributors sometimes bring.

    A big pain point for industrial formulators is off-color or inconsistent batch appearance. We’ve heard the stories where small shifts in crystal color or particle size have thrown synthesis yields off or triggered time-consuming troubleshooting. Our QA team runs side-by-side lot checks, ensuring color and texture don’t shift outside a narrow operational window. Our shifts keep daily logs for plant historians to spot minor run-to-run deviations, years before they spark customer complaints.

    Some labs refining methods for trace detection of environmental PAHs require fluoranthene with ultra-low residual levels of related compounds. We built custom protocols for those needs, including supplementary activated carbon filtration and an extra stage of recrystallization with specialty solvents. These small adjustments don’t show up in generic data sheets but come straight from requests by technical users.

    Why Direct Manufacturing Improves Your Process

    Direct relationships make a massive difference in chemical supply. Working as hands-on producers, we see both the raw material intake and outgoing purity. When customers report an anomaly, we can trace it back to specific process dates, reactor logs, or even operator notes. This accountability allows better root-cause analysis. As a manufacturer, not a middleman, we feel obligated to keep both quality and documentation at the highest possible level. There’s no benefit in hiding process details—what matters is building mutual trust between production and users. Technicians, analysts, and buyers at our partner facilities regularly share their use cases and technical roadblocks, in both research and scale-up settings. Our staff learns directly from these accounts, adjusting operations to better address real-world needs.

    Unlike third-party traders, we control both provenance and analytical documentation. Our regular QA runs are cross-checked with instruments new and old, so inconsistencies get caught before shipping. With every batch, historical trend reports are kept in digital archives. If a customer switches a solvent or detection method, we compare legacy batches to current runs, supporting data-driven troubleshooting in moments—not weeks of email chains.

    Shifting market needs sometimes call for adaptation in grade, granulation, or physical form. We invested in modular reactors and isolation equipment, not only to flex production volume but to customize crystal size, drying method, and containerization as real-world formulations require. End-users who need custom solutions—like low-dust fluoranthene for inhalation risk mitigation—can negotiate directly with our plant experts. Both R&D and production staff factor in feedback, closing the loop on problem solving.

    Continuous Improvement from the Ground Up

    Years of feedback from both industrial plants and university labs continue shaping our operations. We track customer requests—like unusual impurity cutoffs, special solubility requirements, or unique documentation standards—in notes passed directly to operators and QA. Refined processes serve not just big corporate buyers but one-time experimental runs. Technicians record operational tweaks and their impact on subsequent lots in real time, so improvements are never lost in translation. Cross-training across production, QA, and regulatory compliance builds a broad operational expertise that benefits end users.

    Every year, new analytical technologies and regulatory guidelines prompt revisions to our approaches. External audits, certifications, and documented benchmarks keep us sharp. Our teams attend international workshops and technical conferences, incorporating both feedback and cutting-edge best practices. The result—an evolving, practical expertise that’s embedded in every batch.

    Fluoranthene: Meeting Today’s Demands

    Today’s applications—ranging from semiconductors to emission tracking—demand more from materials than ever. Fluoranthene, as produced on our line, brings the real-world reliability, traceability, and performance that seasoned chemists demand. From high-purity research fractions to robust industrial grades, each specification reflects decades of hands-on work, unscripted problem-solving, and a commitment to both product quality and environmental integrity.

    Standing behind every shipment, our direct production and technical transparency support partnerships that last. Advanced instrumentation provides measurable assurance, but it’s our everyday operational discipline and willingness to learn alongside customers that set us apart. Our operations crew takes pride in every lot, knowing what arrives in your lab or manufacturing plant has passed the same high bar we demand for our own processes. Trust, built batch by batch, forms the cornerstone of every successful collaboration.

    Looking to the Future

    The landscape for polycyclic aromatic hydrocarbons is changing fast, with regulatory scrutiny and technical standards rising. We invest in both compliance and innovation to keep ahead of shifting expectations. Our view is simple: honest dialogue and direct process control protect both customers and the environment. As producers, our job only begins with synthesis—it continues through every stage of quality control, shipping, customer support, and post-market responsibility.

    With fluoranthene, as with every product line, feedback drives progress. Direct conversations with users, realistic assessments of process risks, and an ingrained commitment to safety lock in the reliability our industry needs. Partnerships built on open books and shared technical language remain our approach through market cycles, technological shifts, and evolving applications. We invite those using fluoranthene to reach out, challenge us, and push for both product and process improvements. Our team stands ready, grounded by years of experience and a pact with those who work with us for real results.