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HS Code |
347921 |
| Chemicalname | 2-Fluoro-5-Formylbenzonitrile |
| Casnumber | 153587-44-7 |
| Molecularformula | C8H4FNO |
| Molecularweight | 149.12 |
| Appearance | Off-white to light yellow solid |
| Boilingpoint | 324.4 °C at 760 mmHg |
| Meltingpoint | 58-62 °C |
| Density | 1.28 g/cm3 |
| Solubility | Soluble in organic solvents (e.g., DMSO, DMF) |
| Purity | Typically >98% |
| Smiles | C1=CC(=C(C=C1C#N)F)C=O |
| Inchi | InChI=1S/C8H4FNO/c9-7-2-1-6(5-11)3-8(7)4-10 |
| Refractiveindex | 1.622 (estimate) |
| Storageconditions | Store in a cool, dry place, tightly closed |
As an accredited 2-Fluoro-5-Formylbenzonitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 5 grams of 2-Fluoro-5-Formylbenzonitrile, sealed, labeled with product details, safety, and hazard information. |
| Shipping | 2-Fluoro-5-Formylbenzonitrile is shipped in tightly sealed containers, protected from moisture, heat, and direct sunlight. Transport should comply with all applicable regulations for hazardous chemicals. Ensure appropriate labeling and documentation. Handle with care to avoid spills or leaks, and store in a cool, well-ventilated area away from incompatible substances. |
| Storage | 2-Fluoro-5-Formylbenzonitrile should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat and sources of ignition. Protect it from moisture and incompatible substances such as strong oxidizers and acids. Store at ambient temperature and avoid prolonged exposure to light. Proper labeling and secure storage are essential to prevent accidental contact or contamination. |
Applications of 2-Fluoro-5-Formylbenzonitrile in Industrial Manufacturing2-Fluoro-5-Formylbenzonitrile supports a range of advanced manufacturing processes as a precision intermediate for specialty chemicals. The following sections outline its established integration in high-value sectors, focusing on formulation parameters, compliance expectations, process entry points, and enabled end products. 1. Active Pharmaceutical Ingredient (API) Intermediate SynthesisThis compound serves as a key building block in the synthesis of complex heterocyclic and aromatic pharmaceutical intermediates, especially for kinase inhibitors and novel anti-tumor agents targeting niche molecular structures. Its selective reactivity supports multi-step chemical transformations under strict process controls, where it contributes both fluorinated and formyl functionalities to multi-ring scaffolds, enhancing target binding affinity in drug candidates. API manufacturers incorporate this material during late-stage intermediates production, where traceability and impurity control directly impact regulatory approval. Industry compliance standards
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2. Agrochemical Active Ingredient SynthesisCrop protection and seed treatment manufacturers integrate this compound as a fluorine-source intermediate in the development of systemic fungicides and herbicides, particularly within aromatic nitrile scaffolds. The material’s substitution pattern allows for regioselective alkylation or further halogenation, supporting the assembly of molecules with high bioactivity and targeted environmental persistence. In these syntheses, formulators maintain tight raw material specifications to comply with pesticide regulatory submissions. Industry compliance standards
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3. Fine Chemical Synthesis for OLED MaterialsProducers of organic light-emitting diode materials use this fluorinated aldehyde to synthesize high-purity charge-transporting and emissive small molecules. Its substitution enables fine-tuning of electronic properties—crucial for color purity, efficiency, and stability in display applications. Downstream integration occurs during advanced condensation and cyclization to form ladder-type polyaromatic compounds, with single-batch traceability necessary for achieving ISO-certified optoelectronic grade performance. Industry compliance standards
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4. Custom Synthesis for Advanced Liquid CrystalsLiquid crystal material developers rely on this intermediate to introduce both fluorine and formyl functional groups into nematic and smectic liquid crystal compounds, enhancing dielectric anisotropy and thermal stability of display fluids. The synthetic strategy employs this compound in producing non-symmetrical aromatic cores, often via selective step-growth reactions, with close attention to impurity carry-over to meet electronics industry batch consistency demands. Industry compliance standards
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As a chemical manufacturer with years of hands-on experience, we’ve worked closely with research labs and pharmaceutical developers to get molecules “just right.” The compound 2-Fluoro-5-Formylbenzonitrile, known by its model number FFBN-2519, stands out for its unique balance of stability, reactivity, and versatility. Through repeated trials and adjustments in our own facilities, we’ve refined processes to deliver this molecule with remarkably consistent purity and performance, serving projects that demand a specific set of characteristics in both scale and precision.
Unlike more generic benzonitriles, this product brings together the effects of fluorine substitution and an aldehyde group at defined positions. From a production perspective, adding a fluorine atom at the 2-position influences its electron distribution, which changes the molecule’s behavior in synthetic reactions. The 5-formyl group isn’t just there for ornamentation. That position enhances downstream derivatization, offering a reactive handle for coupling, condensation, and reductive transformations. Chemists choosing this compound appreciate the flexibility in their synthetic route options. More “ordinary” benzonitriles rarely provide the same options for functionalization—especially under milder conditions. The structural differences mean that researchers gain a wider platform for experimentation, particularly around heterocyclic construction and pharmaceutical intermediate synthesis.
Factories and research departments alike have sometimes found themselves held up by inconsistent chemical quality. Within our production lines, we enforce continuous batch monitoring, using high-resolution analytical instruments like NMR and LC-MS. For 2-Fluoro-5-Formylbenzonitrile, we regularly deliver material at 98% purity or higher, since the slightest trace of unreacted starting materials or byproducts can throw off a downstream protocol. Those numbers are not theoretical—they reflect what our own instrument logs have confirmed over years of full-scale output. Our benchmarks for moisture and metal content add another layer of reliability, especially for customers synthesizing pharma-grade API precursors, or specialty chemicals that feed into sensitive electronic substrates.
By keeping tight controls on homogeneity and impurity profiles, we cut out variables that otherwise cause rework or project delays. The consistency of our batches is not just for marketing a product; it comes from years of troubleshooting failed syntheses in our own labs. That’s how we learned that even small deviations can wreck multi-step synthetic campaigns. For the customer, that means FFBN-2519 arrives with a specification sheet that actually aligns with what’s inside each drum or jar.
In the field, 2-Fluoro-5-Formylbenzonitrile moves quickly from the bench to real applications. The strong demand in the pharmaceutical sector comes from its use as a building block for complex molecules. Medicinal chemists highlight its dual functional groups: the nitrile allows for further transformation into a variety of amides or heterocycles, while the formyl spot opens the way to custom-tailored aldehyde chemistry. The fluorine atom, placed precisely, often enhances metabolic stability in final compounds—a coveted trait for designing new candidates in drug research.
Beyond pharma, specialty polymer and electronic material makers use FFBN-2519 as a sort of “reactive seed” for constructing advanced materials. Its combination of reactivity and backbone rigidity helps finetune thermal and electronic properties. Colleagues in OLED research and non-linear optical material development have given feedback that this molecule enables more robust and predictable performance compared to unsubstituted or differently substituted benzonitriles. Having supplied pilot to full-production quantities for those applications ourselves, we’ve seen how batch traceability and rapid shipping timelines can make or break a project pipeline.
The structure of 2-Fluoro-5-Formylbenzonitrile might look deceptively simple at a glance, but the synergy between the aldehyde and fluorine groups stands at the core of why it’s so sought-after. The 2-fluoro group subtly shifts electronic properties, favoring clean, high-yielding transformations. This isn’t just theoretical chemistry. In our hands, we’ve watched coupling reactions proceed with fewer side-products compared to related isomers. This translates to easier product isolation and purification, qualities that are valued from gram scales in R&D up through multi-kilogram production lines.
The placement of the formyl group at the 5-position is no accident. Our synthesis teams have found that this spatial configuration keeps the reactive aldehyde accessible for various condensation and addition chemistries. At the same time, steric effects from the adjacent fluorine atom help control unwanted reactions, giving more precise control to the synthetic route. The “set-up” of this molecule directly impacts efficiency, waste reduction, and cost savings over large volumes. We’re not just talking theory: those savings and process improvements form the backbone of how our operations remain competitive.
One lesson we’ve learned after supplying custom materials for years is that not every production run is smooth. The pathway for FFBN-2519 has its challenges. Maintaining the same high level of purity and crystalline morphology at different scales forced us to rethink batch protocols and invest in new reactor systems. Solvent choice, temperature profile, and even material handling steps changed as we moved from lab scale to pilot and then to full scale-up.
Some of the early hurdles included minimizing side-reactions during fluorination and aldehyde introduction. With trial and error, we locked in optimum catalyst loadings and scavenger selections. By sharing data directly between our R&D and manufacturing divisions, we reduced cycle times and batch-to-batch variation. Customers have picked up on the reliability in our product over time—this feedback loop has sharpened our entire production system for 2-Fluoro-5-Formylbenzonitrile, and raised the bar for our catalog in general.
It’s easy to lump all benzonitriles together, but subtle tweaks to substituents can spell the difference between success and project delays. As a supplier who has also run downstream reactions ourselves, we’ve found that standard benzonitriles, or even mono-substituted analogs, simply don’t offer the range of options available with the FFBN-2519 structure. These others can show sluggish reactivity, yield irreproducible outcomes, or require harsher conditions—creating waste and additional purification work.
Where researchers using standard benzonitrile or fluorobenzonitriles often hit bottlenecks—especially where selectivity is required for further modifications—FFBN-2519 shows a clean reaction profile. For example, during reductive amination or cross-coupling, our own teams have isolated products with fewer chromatographic steps, allowing a leaner manufacturing workflow. Choosing this product over less functionalized analogs has meant hitting demanding purity targets with less effort, a fact that experienced chemists and operation managers appreciate in tight development timelines.
Customers who rely on us for 2-Fluoro-5-Formylbenzonitrile routinely feed back full reports of both successes and challenges. We keep open communication with pilot plant and R&D groups in various regions, listening for pain points around supply chain, consistency, and traceability. One recurring point: batch documentation and COAs must be accurate and arrive on time. In response, we aligned our QA team and logistics so that analytical results stay linked to each container shipped. Whether orders go by air or truck, our chain-of-custody system tracks containers from reactor to client loading dock. This approach comes from lessons learned the hard way—missed delivery windows or mismatched COA data can disrupt entire production schedules. Our regular customer engagement means production practices keep evolving, always tuned to real-world feedback.
Manufacturing specialty aromatics like FFBN-2519 isn’t just about hitting the right chemical formula. On our production floor, we put safety and compliance on equal footing with efficiency. Strict handling protocols back up the work done in wet chemistry labs—operators wear full PPE, material transfers happen in vented environments, and we document waste disposal down to each mL. Our environmental management system qualifies under widely recognized standards, so material traceability and regulatory reporting stay up to date. In a changing regulatory landscape, especially for pharmaceutical ingredients and fine chemicals, these details move from “nice-to-have” into basic operating requirements.
Internally, our teams invest time in education, regular audit cycles, and process incident reviews. Incidents in chemical manufacturing don’t just delay schedules; they put people and investments at risk. Our view is straightforward—take short-cuts, and all the advantages gained from a well-designed molecule disappear in an instant. Transparent, documented systems support trust up and down our supply chain.
The world of specialty aromatic chemicals is always evolving. As a direct producer, we stay tuned into emerging trends from our most engaged clients. The growing push for greener chemistry hasn’t skipped over benzonitriles like FFBN-2519. Our laboratory teams continuously run bench-scale pilots using new catalysts, greener solvents, and improved energy management. In recent years, we’ve cut waste and solvent emissions by double-digit percentages. Each of these changes gets adopted into mainline production once proven, closing the gap between sustainable practices and reliable output.
On the demand side, expansion into new drug discovery methods, advanced materials, and custom catalysts keeps pushing our process chemists to adapt. The ongoing partnership with customers functions as an open channel—if a roadblock appears, we bring the challenge back to our production floor and develop real solutions. This direct feedback shapes how we schedule maintenance, design new reactors, and invest in improved raw materials.
For researchers, formulators, and scale-up chemists, using 2-Fluoro-5-Formylbenzonitrile isn’t just about accessing another reagent. Robust supply, clear documentation, and transparent sourcing give users confidence in both the short and long term. Our plant managers talk directly with buyers to coordinate on difficult deadlines, seasonal fluctuations in demand, and custom packaging requirements. Instead of relying on broad claims, we rely on shipment tracking, real-time production updates, and direct problem-solving. The value of that predictability reaches all the way from the synthetic bench to finished formulations—critical for keeping projects on track and within budget.
Many large-scale buyers arrive with requests for specific grades, particle size ranges, or bespoke impurity profiles. We treat these as opportunities to collaborate, not barriers. Our process engineers work side-by-side with purchasing and technical teams to adjust production runs or post-processing steps. Sometimes it’s as simple as a different packaging size; sometimes it means extra fractionation or fine-tuning the drying protocol. These requests shape how we invest in new equipment and training, keeping the operation nimble and ready for changes in demand. From a manufacturer’s standpoint, real customization is about flexible thinking supported by in-house expertise.
Trust comes from consistent performance and honesty. We never oversell what 2-Fluoro-5-Formylbenzonitrile can do, but we do stand behind every shipment. Problems are rare but not impossible—delivery hiccups or unexpected analytical blips occasionally happen. In those moments, early and clear communication keeps projects moving, and sometimes uncovers improvements for future batches. Our guarantee is built on old-fashioned accountability from people who’ve run the synthesis lines themselves. Many long-term clients began with a trial run and now specify our FFBN-2519 for their most demanding applications.
While overall demand keeps rising, the needs and use cases for 2-Fluoro-5-Formylbenzonitrile are pulling our teams into new technology spaces every year. Increased regulatory scrutiny, tighter environmental limits, and tougher contractual requirements from major pharmaceutical clients aren’t just theoretical—they are daily realities. In this climate, the edge comes from remaining hands-on: chemists, engineers, and managers working in unison, iterating on processes, and keeping the doors open to constructive criticism from every link of the supply chain.
Every new challenge, whether it’s scaling up or incorporating greener synthesis, becomes an avenue for differentiation. Experience in tailoring production processes, troubleshooting batches, and investing in plant improvements allows us to keep delivering reliable, high-quality FFBN-2519 that supports breakthrough research and manufacturing programs worldwide. For those who ask what sets our material apart, the answer centers on years of direct involvement, adaptation to real-world problems, and an old-school commitment to doing the job right the first time.