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2-Fluorofluorene

    • Product Name 2-Fluorofluorene
    • Alias 2-Fluoro-9H-fluorene
    • Einecs 626-043-7
    • 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

    281431

    Name 2-Fluorofluorene
    Cas Number 1532-94-3
    Molecular Formula C13H9F
    Molecular Weight 184.21 g/mol
    Appearance White to off-white solid
    Melting Point 81-84°C
    Boiling Point 307-310°C
    Density 1.21 g/cm³
    Smiles FC1=CC2=C(C=CC=C2)C3=CC=CC=C13
    Inchi InChI=1S/C13H9F/c14-10-7-8-11-12(6-3-1-2-5-11)9-4-2-1-3-6-9/h1-8H

    As an accredited 2-Fluorofluorene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 2-Fluorofluorene is packaged in a sealed amber glass bottle containing 5 grams, labeled with hazard warnings and product information.
    Shipping 2-Fluorofluorene should be shipped in accordance with relevant chemical safety regulations. Use appropriate, tightly sealed containers, and ensure clear hazard labeling. Transport in a dry, cool, and well-ventilated area, away from incompatible substances. Consult the Safety Data Sheet (SDS) for additional handling, packaging, and environmental protection guidance during transit.
    Storage 2-Fluorofluorene should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from sources of ignition, heat, and direct sunlight. Keep it separate from oxidizing agents and strong acids. Use appropriate chemical-resistant containers and avoid storing near food or incompatible materials. Ensure proper labeling and access is limited to authorized personnel.
    Application of 2-Fluorofluorene

    Applications of 2-Fluorofluorene in Industrial Manufacturing

    As a direct manufacturer, we deliver 2-Fluorofluorene with consistently controlled purity for established industrial uses. The following sections outline real-world downstream application scenarios based on verified industry adoption, focusing on key compliance, optimized dosage, relevant processing, and final product specifics. Each segment demonstrates how our material integrates at scale for manufacturers operating in global regulated supply chains.

    1. Advanced Organic Semiconductor Fabrication

    2-Fluorofluorene serves as a precursor and building block in organic semiconductor manufacturing, particularly for fabricating active layers in organic light-emitting diodes (OLEDs) and organic field-effect transistors (OFETs). The unique electronic properties introduced by fluorination significantly influence charge mobility and stability in electronic devices. Manufacturers employ this raw material during small molecule or polymer synthesis stages, customizing molecular architecture to precise end-application requirements in high-performance display and sensor technologies.

    Industry compliance standards

    • IEC 62341 (OLED display devices)
    • JEITA ET-5100 (Organic Electronic Material Quality)
    • REACH Regulation (EC) No 1907/2006
    • RoHS Directive 2011/65/EU

    Typical usage ratio

    • 1.0%–8.0% by weight as a comonomer or dopant, adjusted based on targeted charge transport and film morphology in the device architecture

    Downstream process integration

    • Introduced during intermediate organic synthesis to form monomers or oligomers, followed by solution processing (spin-coating, vapor deposition) onto substrates within Class 1000 cleanroom environments

    Final product types

    • OLED panel electronics for consumer display
    • OFET backplanes for flexible sensors
    • Printable organic memory arrays
    • Organic photovoltaic test modules

    2. Specialty Polymer Additive in Engineering Plastics

    Downstream polymer manufacturers incorporate 2-Fluorofluorene as a functional monomer to enhance polymer backbone rigidity, chemical stability, and reduce surface energy in high-performance engineering plastics. This additive enables tailoring of flame-retardant, hydrophobic, and UV-resistant properties within custom polyimide, polyarylene ether, and related specialty polymer formulations. Final conversion processes require strict stoichiometric control and high-temperature polymerization, delivering unique traits demanded by aerospace, microelectronics, and automotive sectors.

    Industry compliance standards

    • UL 94 (Flammability of Plastic Materials)
    • ISO 1043 (Polymer Additives and Modifiers)
    • ASTM D256 (Polymer Impact Properties)
    • IEC 61249-2-21 (Halogen-free Requirements for Electronic Base Materials)

    Typical usage ratio

    • 0.5%–5.0% by weight, adjusted according to desired mechanical, electrical, and heat-resistance properties in the final polymer matrix

    Downstream process integration

    • Dosed into reaction vessels during initial monomer mixing, followed by melt or solution polymerization and extrusion, sometimes requiring vacuum drying or inert atmosphere handling to avoid defects

    Final product types

    • Fluorinated polyimide film for FPC substrates
    • Halogen-free printed circuit board laminates
    • High-durability automotive interior plastics
    • Custom polymer formulations for aerospace cable insulation

    3. Intermediate for Agrochemical Synthesis

    Agrochemical formulators utilize 2-Fluorofluorene as a controlled intermediate in the multi-step synthesis of selected plant protection actives. The fluorinated aromatic scaffold offers increased metabolic stability and environmental persistence for targeted herbicidal and fungicidal molecules. The raw material enters key coupling, halogen-exchange, and cyclization reactions under cGMP or ISO-guided batch conditions, with downstream purity and trace contaminant control critical for compliance in regulated agricultural markets.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • ISO 9001:2015 (Quality Management for Agrochemical Manufacture)
    • European Crop Protection Association (ECPA) Guidelines
    • China GB 2763 Maximum Residue Limits (MRLs) for Pesticides

    Typical usage ratio

    • Entry at 0.5–3.2 molar equivalents based on downstream target molecule synthesis scale; exact ratio depends on the route yield and process efficiency requirements

    Downstream process integration

    • Functions as an intermediate in N-arylation or cross-coupling during the early to mid-stage pipeline for active ingredient synthesis, typically under inert, controlled temperature reactions with in-process QC monitoring

    Final product types

    • Systemic herbicidal actives with fluorinated moiety
    • Selective fungicides for high-value crops
    • Pre-cursor formulations for field-specific plant growth regulators
    • Protected active ingredient technical concentrates

    4. Fluorinated Ligand Production for Catalysis

    Specialty chemical manufacturers employ 2-Fluorofluorene in the synthesis of high-purity fluorinated ligands that serve as advanced catalysts or catalyst supports in pharmaceutical and petrochemical manufacturing. The molecular structure enables formation of tunable, electron-rich ligands for transition-metal catalysis, improving selectivity and turnover in key processes such as cross-coupling, C-H activation, and olefin polymerization. Manufacturers integrate this material at the initial ligand functionalization stage under anhydrous and rigorously controlled atmospheres to meet catalyst quality specifications and activity thresholds.

    Industry compliance standards

    • IUPAC Technical Report on Homogeneous Catalysis
    • ISO 17025 (Testing and Calibration for Chemical Synthesis)
    • Pharmaceutical cGMP for Catalytic Intermediate Production
    • REACH Registration and SVHC Monitoring (if exported to EU)

    Typical usage ratio

    • 0.7–2.5 molar equivalents in ligand-forming reactions; ratio fine-tuned as per catalyst loading requirements and downstream metal-ligand complex target

    Downstream process integration

    • Participates as a starting aryl substrate in cross-coupling or direct fluorination reactions; processed under inert gas within dedicated glass-lined kettles, followed by ligand purification steps for final catalyst assembly

    Final product types

    • Fluorinated phosphine or NHC ligands for pharmaceutical synthesis
    • Specialty organometallic catalysts for fine chemical manufacturing
    • Custom pre-catalyst complexes for R&D screening panels
    • Process catalysts for polyolefin industrialization
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    Competitive 2-Fluorofluorene prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Introducing 2-Fluorofluorene: Experience from the Source

    Bringing Precision to Advanced Organic Synthesis

    In our years of manufacturing specialty aromatic hydrocarbons, few molecules spur the interest and technical curiosity quite like 2-Fluorofluorene. Behind every batch, there is substantial work in purification, stringent attention to raw material quality, and a focus on minimizing trace impurities. The path from crude fluorene to a pure, well-characterized 2-fluorinated derivative never gets any easier, no matter how often we've taken it. Every step in our process faces the same strict analysis, because those making fine chemicals, OLED intermediates, or high-performance materials depend on consistency at every order.

    What Sets 2-Fluorofluorene Apart

    Not every fluorene derivative brings the subtle electronic and structural shifts found in 2-fluorofluorene. This molecule may seem simple on paper, but the addition of a single fluorine atom at the 2-position transforms its physical and chemical behavior. In the lab, you’ll notice how this substitution affects melting point, solubility, and reactivity compared with both pure fluorene and its other halogenated analogs. This isn’t just theoretical: researchers use these properties to tune charge-transport in organic electronics, to push new possibilities in pharmaceutical targets, and to expand the accessible range of functional nanomaterials.

    Practical Experience, Not Hype

    Over the years, clients have asked why pure, well-documented 2-fluorofluorene can cost more than other, seemingly similar, materials. The difference usually reveals itself as soon as you work out the reaction yields, impurity profiles, or isolation steps in your project. We’ve had multiple partners send in samples from other sources, hoping to resolve unexpected side reactions or gelled mixtures. Almost every time, the culprit is known: traces of unreacted fluorene, other fluorinated isomers, or residual halides trapped during synthesis. Whereas broader electronics or basic pigment applications can sometimes absorb these upsets, those working in OLED R&D or high-sensitivity polymer systems cannot. With 2-fluorofluorene, everything hinges on that careful separation and patient purification.

    Quality From Every Batch

    Some compounds allow a little margin for error — this one does not. Every time we synthesize this product at commercial scale, routine quality checks run longer and require more precision than for our benzylic ethers or polyaromatics. Ours is a team that has learned, sometimes the hard way, how temperature gradients and solvent selection make all the difference. Every drum or bottle that leaves our site carries a batch-specific record of analytical runs — including NMR, GC-MS, melting point, moisture determination, and elemental analysis — because we understand the stakes are high for the chemist on the receiving end. Almost every organization we supply, from startup labs to established research institutes, keeps us on our toes with probing questions and requests for data. We welcome it, because long experience teaches us that the strongest supplier-user relationships grow from open, evidence-based communication.

    Where 2-Fluorofluorene Finds Its Value

    Many approaches in synthetic organic chemistry now focus on the inclusion of fluorinated building blocks. With 2-fluorofluorene, the electronic effect introduced by the fluorine atom enhances its significance for Suzuki cross-coupling and functionalization studies. Those working in the organic electronics field, especially for blue or white OLED devices, find that C-H activation and subsequent conversions benefit from its clear, reproducible profile. The strength of the ring system, preserved by careful monofluorination, leads to unique rigidity and stability in polymers — something you quickly notice in rheological tests and device operation cycles. The same features lend themselves to the design of new dyes and fluorescent markers, where a shift in emission profile offers a distinct advantage.

    It’s not rare to talk with chemists who have a new angle on this molecule every year. Some reach for it hoping to modulate biological activity in pharmaceutical intermediates; others cite the growing field of advanced functional materials as their focus. The core lesson seems to echo back with every discussion: only pure, carefully handled 2-fluorofluorene unlocks the expected selectivity and performance. There are shortcuts to making basic aromatic hydrocarbons; there are none to making ones meant for today’s highest standard science.

    The Challenge of Consistency

    Every synthetic chemist sees both promise and frustration in fluorinated aromatics. Small deviations in production — whether from insufficiently dried solvents or aging glassware — produce measurable side products. Each gram of our product tells a story of monitoring reaction kinetics and scaling up under constant environmental review. You cannot camouflage poor crystallization or incomplete conversions in an industry this precise. The stakes for electronics or life sciences work make shortcuts a losing equation. Lab results from external partners reflect this: materials made with our 2-fluorofluorene show tighter molecular weight distributions, higher device performance reproducibility, and more manageable post-synthesis purification.

    Scaling up is a science of its own. Bench-scale synthesis of 2-fluorofluorene is often described in academic literature — the truth is, scaling up from milligrams to kilograms introduces inefficiencies that only become clear through disciplined process development. Our teams have shaped solvent exchange, temperature control, and batch-wise purification to keep color, odor, and crystallinity reproducible. We document each change so clients can feel confident with the next drum as with the previous sample. With every investment in raw material traceability and analytical equipment, we watch the downstream benefits during customer trials and product launches.

    Applications: Practical Scenarios From Our Partners

    We've seen 2-fluorofluorene put to work in applications few envisioned just a decade ago. One group used it as a core motif for new blue-light emitting diodes, where the fine-tuning of electron density helped solve the nagging issue of instability under cyclic operation. Another research team provided feedback on steric effects in constructing new heterocyclic libraries for pharmaceutical screening; their results traced adverse byproducts not to their own synthetic steps, but to minute impurities finally resolved in batches from higher-purity suppliers. Over time, we have contributed samples to efforts in the development of organic photovoltaic prototypes and in studies exploring the doping of advanced plastics for radiation shielding.

    Some of our longest-running clients work in areas where patents and intellectual property drive progress. For them, tracking batch-to-batch uniformity guards against complications during regulatory filings or long-term stability tests. Academic customers share with us dozens of new routes for C-H activation or site-selective arylations — their frequent requirement is a molecule that reacts “as expected” every time, rather than one that performs well in one reaction and unpredictably in another.

    Comparing With Other Aromatic Fluorines

    We often receive questions about the distinct qualities of 2-fluorofluorene compared with isomers or other related compounds. Chemists working on material properties notice the difference between 2-fluoro- and 9-fluorofluorene as soon as they measure melting points or solubilities. In crossover reactions, switching to the 2-positioned substitution usually brings changes to polymer end-group functionality, altering everything from stability to dispersion characteristics in final blends. Chemists focused on medicinal chemistry observe that regioselectivity of functionalization often hinges on this positional specificity, impacting molecular shape and electronic interactions in the end-use molecule.

    Simple fluorene lacks fluorine’s subtle but crucial inductive and mesomeric effects, leading to marked differences in NMR spectra and downstream reactivity. Other fluorinated aromatics provide their own advantages, but none offer quite the same balance of manageable reactivity, substrate flexibility, and end-group compatibility as 2-fluorofluorene — especially once you step outside the confines of academic demonstration and into real-world pilot and production lines.

    Supporting Evidence, Not Just Claims

    In this line of work, we know every assertion needs backup. We constantly measure purity levels with state-of-the-art analytical instruments, and we adjust our production processes the moment client-side data shows a drift. Regular proficiency testing against certified reference materials keeps our lab teams sharp and honest. Our decision to support long-term archive retention of samples reflects the simple truth: even a minor batch deviation can mean weeks of lost R&D effort on the client side. Direct, ongoing communication between our technical team and client labs means unexpected reactivity or performance changes get addressed immediately, not left to speculation.

    From a manufacturer’s perspective, openness about process updates, possible contamination risks, and shipping circumstances builds trust. Over time, we have developed custom packaging and rapid-delivery protocols in response to requests for moisture and contamination protection, particularly for international shipments heading to climates with high humidity or temperature swings. Feedback on how the product handles in day-to-day workflows — filtration behavior, ease of weighing, static charge, solvent compatibility — always feeds back into how we improve our own internal standards.

    Why Companies Rely On the Manufacturer

    Experience, not just access, distinguishes a chemical partner. Many resellers offer a product, but only those who work the upstream synthesis and purification steps truly understand the critical points that can make or break a synthesis downstream. In recent years, we have walked with clients through regulatory registrations, helped resolve complex impurity questions, and provided technical data that made the difference for patent filings. Where others hesitate, lacking details on lot-specific variability or analytical standards, we supply the missing data because it grows out of the everyday lab reality here.

    Clients needing tight batch-to-batch consistency don’t accept excuses, nor should they. Each process run poses new questions about yield optimization, energy consumption, and safety practices. When unexpected performance issues develop — chromatographic artifacts, altered color or odor, off-spec NMR readings — we work through the lot history with clients to pinpoint and solve the root causes. Several times a year, new users approach us for technical troubleshooting — sometimes because of regulatory changes, sometimes due to a failed synthesis with stock from another supplier. No client interaction is treated as “just another order” here. Each one brings feedback that changes how we work, and the loop of continuous improvement runs directly through end-user experience and results.

    Building for the Future: Sustainability and Scale

    Pressure grows each year on specialty chemical producers to improve the sustainability of complex syntheses. Our investments in solvent recycling systems, energy-efficient distillation, and safer waste management parallel the efforts seen across the pharmaceutical and material science sectors. Several improvements to our 2-fluorofluorene manufacturing line reduced waste solvent by over 20 percent and improved overall energy efficiency — small numbers in a line item, big impact over hundreds of batches per year. We monitor environmental and safety standards closely, as every ton of hazardous solvent displaced or recycled means softer regulatory pressure and a better reputation among clients and the local community.

    As market demand for functional fluorinated materials continues to grow, especially for smart devices and advanced materials, scale-up remains both a challenge and an opportunity. We have built on our experience through pilot programs with industry partners, using their data and feedback to shape our processes and react quickly to changes in demand. Rather than chase every potential customer and lose focus, deep relationships with research and development organizations let us fine-tune quality and packaging as scale increases. Future investments will focus on improving yield and further lowering the energy and environmental footprint of our operations.

    Chemists at Every Step

    The people working hands-on with 2-fluorofluorene every week shape our understanding of how the molecule performs and where it can go next. In our QC and synthesis labs, chemists with decades of experience still debate tweaks to column chromatography, solvent regimes, and temperature profiles. On the production floor, small refinements to batch flow or filtration save hours, lower exposure risk, and reduce costs. With clients, the most useful discussions arise from direct engagement — learning how the product behaves under new synthetic routes, what issues crop up in scale-up, and what bench-side techniques give the strongest yields and cleanest intermediates.

    Our journey with this compound isn’t always smooth. Equipment failures, supply disruption, and changing regulatory landscapes continue to challenge the specialty chemical industry. But with each setback, we refine the process, add new instrumentation, and dig deeper into the details. From first charge to final test, every gram counts — not for abstract marketing claims, but for the real-world reliability demanded by science-driven partners.

    Direct from Us: Confidence Backed by Experience

    As an established manufacturer supporting global R&D teams, academic groups, and product innovators, we know what it takes to deliver reliability batch after batch. 2-fluorofluorene is more than a chemical reagent on a catalog page; it represents a commitment to chemical precision, customer dialogue, and transparent quality control. We have watched new applications emerge and existing markets demand ever-tighter tolerances. It’s this partnership between chemist and manufacturer, the dialogue between everyday lab experiences and the realities of full-scale production, that keeps us constantly improving and expanding what’s possible with specialty aromatics. Every container, every certificate, every conversation pushes us — and our partners — closer to the next innovation.