|
HS Code |
359882 |
| Chemical Name | 3-Fluorobenzamide |
| Molecular Formula | C7H6FNO |
| Molecular Weight | 139.13 g/mol |
| Cas Number | 456-67-7 |
| Appearance | White to off-white solid |
| Melting Point | 136-140 °C |
| Boiling Point | Unknown |
| Density | Unknown |
| Solubility | Slightly soluble in water |
| Smiles | C1=CC(=CC(=C1)F)C(=O)N |
| Inchi | InChI=1S/C7H6FNO/c8-6-3-1-2-5(4-6)7(9)10/h1-4H,(H2,9,10) |
| Pubchem Cid | 132500 |
| Refractive Index | Unknown |
As an accredited 3-Fluorobenzamide factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 25g amber glass bottle, tightly sealed, labeled "3-Fluorobenzamide." Includes hazard information, batch number, and manufacturer details. |
| Shipping | 3-Fluorobenzamide is shipped in tightly sealed containers, protected from moisture and light. Packaging meets regulatory standards for chemical transport, with secure labeling and documentation. Handle with care; avoid rough handling to prevent container breakage. Shipping complies with all applicable local, national, and international regulations for hazardous materials. |
| Storage | 3-Fluorobenzamide should be stored in a tightly closed container in a cool, dry, well-ventilated area, away from incompatible substances such as strong oxidizers and acids. Protect from moisture and direct sunlight. Store at room temperature and ensure proper labeling. Use secondary containment if possible to prevent spills or leaks. Always follow safety guidelines and institutional protocols for storage of chemicals. |
Applications of 3-Fluorobenzamide in Industrial Manufacturing3-Fluorobenzamide serves as a key intermediate in advanced industrial synthesis. Our manufacturing customers use this raw material in several specialized chemical processes, particularly where precise functional group manipulation is essential. The following sections highlight established downstream usage sectors, specifying compliance parameters, usage ratios, process locations, and terminal product profiles for each application field. 1. Pharmaceutical Intermediates for Active Pharmaceutical Ingredient (API) SynthesisWithin the pharmaceutical sector, 3-Fluorobenzamide is primarily utilized as a synthetic intermediate for the development of fluorinated heterocyclic compounds. Medicinal chemistry teams often employ it in derivative coupling reactions, where its unique substitution pattern enables rapid access to new molecular frameworks during drug design and clinical candidate optimization. In particular, it enters the supply chain for benzamide-derived kinase inhibitors under strict GMP protocols. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Agrochemical Synthesis for Crop Protection IngredientsLeading agrochemical producers adopt 3-Fluorobenzamide during the assembly of selective herbicide and fungicide formulations. Fluorinated amide motifs increase metabolic stability and biological activity in field trials. The raw material usually joins the process after initial ring-functionalization steps, contributing to enhanced abiotic resistance in the final crop protection compounds. Production lines maintain strict separation to prevent cross-contamination with food chain substances. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Advanced Material Science Research: Specialty Polymers and CoatingsIn material science laboratories and specialty polymer manufacturing, chemists use 3-Fluorobenzamide as a functional monomer to tailor polymer architecture, incorporating fluorine atoms for improved chemical resistance and hydrophobicity. Its incorporation occurs in the oligomerization and polycondensation phases to develop advanced coatings for electronics and protective layers where high dielectric strength is specified. Formulation researchers leverage its molecular stability for end-products exposed to harsh industrial environments. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Fine Chemical Synthesis: Reference Standards and Analytical ReagentsProducers of chemical reference standards and analytical laboratories rely on 3-Fluorobenzamide as a calibration compound and as a building block for customized analytical tags. Its defined purity and spectral characteristics make it suitable for use in LC-MS and GC-MS method validation in pharmaceutical and forensic applications. Customers require complete batch traceability and impurity profiling for compliance with accreditation standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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Daily work with aromatic amides isn’t a task anyone who values accuracy takes lightly. 3-Fluorobenzamide has stood out on our production lines because it walks a line between classic benzamide stability and the added influence of the fluorine atom in the meta-position. That single adjustment changes a lot, including the compound’s reactivity, its resistance to certain degradation pathways, and how customers in pharmaceutical R&D teams often approach their own synthesis. Over the years, we’ve seen the shift: the growing demand for fluoroaromatics has pushed us to refine our purification trains and adjust to evolving analytical benchmarks.
The model we produce comes under CAS number 456-62-2. On the factory floor, this translates to a white crystalline solid, easily recognizable, with a melting point often sitting between 121°C and 123°C. We’ve found that sticking to tried-and-tested reaction routes using precision-controlled temperature and validated catalysts achieves both high yield and consistent quality every lot. Our QA team doesn’t take shortcuts: every batch receives in-depth NMR, HPLC, and GC-MS analysis. The end product has no surprises on the shelf—and that’s what counts for our team, and for the chemists who rely on us downstream.
Making fluorinated aromatics isn’t like tossing together a simple amide. The fluorine’s electron-withdrawing effect means the amide coupling step needs attention to detail. Over years of production, we’ve refined conditions: temperature control, slow addition of coupling reagents, and strict moisture limits. Even minor slips—wrong catalyst amount, poor agitation—push impurities. Our approach has always emphasized reproducibility, not just yield. From our vantage point, building reliability into manufacturing isn’t extra effort. It’s a requirement, shaped by both our customers and our pride as producers, not resellers.
Purity isn’t a buzzword in the chemical plant; it’s a measurable challenge. Anyone can quote 98 percent on a spec sheet, but we go deeper. Our batches typically reach 99 percent and above by HPLC, and our attention leans on controlling isomeric impurities and residual solvents. The solid’s appearance says a lot: a bright white powder, with no greying or visible discoloration, signals that synthesis and work-up have been followed precisely. This visual check, though simple, often catches what analytic instruments might miss on first pass. We maintain traceability by assigning every lot a dedicated run log, supported by digitally archived analytical reports and available upon request.
We’ve seen 3-Fluorobenzamide plugged into a broad spectrum of research and industrial settings. The fluorine at the 3-position tweaks electronic effects on the benzene ring, giving medicinal chemists a different handle on reactivity than the unsubstituted version. Peptide coupling teams, agrochemical developers, and even those working on advanced polymer backbones have brought us their experiences: the compound’s slight electron-withdrawing property can either accelerate or decelerate downstream reactions, guiding selectivity where it’s needed. Pharmaceutical customers often highlight its value as a synthetic intermediate, especially during the lead optimization phase in drug discovery, where small changes in a molecule can unlock new biological activities or improve metabolic stability.
Our technical staff handles every order at scale, not in glass flasks but in reactors holding tens of kilos. That level of throughput challenges us to keep variance as low as possible. What helps is close collaboration with our QA, maintenance, and logistics departments. Each shipment is checked with FTIR and melting point verification; moisture is kept under 0.5 percent by KF titration. Packing for export? We use sealed HDPE liners within fiber drums, keeping the product dry and protected against light or air exposure. Feedback has shown that even short-term exposure to moisture can clump the fine powder, slowing down our customers’ weighing and dissolution steps. We correct for this by double-layer moisture barriers, not because a brochure told us but because the warehouse crew raised the red flag after a rainy week led to customer complaints.
Years back, the market mainly demanded simple benzamide and its common methyl and ethyl derivatives. Introducing a fluorine atom wasn’t a passing fancy; it answered a real need for a molecule with altered electronegativity and, in some applications, enhanced metabolic stability. Our take on 3-Fluorobenzamide offers that advantage: the fluorine not only changes electron density but also increases hydrophobicity, which can translate to better compatibility in certain organic synthesis schemes. Many new clients approach us after trying substitutes—4-fluoro, 2-fluoro, or even trifluoromethyl analogs—because only the 3-fluoro variant fits the reactivity window or biological profile they need. Technical support often fields questions about whether 3-fluorobenzamides show differences in solubility or crystal habit compared to ortho- or para-fluoro versions, so we’ve collected real data. In standard solvents like DMF or DMSO, 3-fluorobenzamide dissolves readily, with no undissolved solids layering at the bottom of reaction vessels, provided the solution is agitated well.
Feedback loops from our clients influence the way we run our plant. Synthetic chemists aiming to optimize amide couplings or late-stage functionalizations find that our product’s narrow melting range equates to minimal side product formation. One notable research group told us their yields for a fluorinated indole jump by 12 percent when they shifted to our higher-purity 3-fluorobenzamide, cutting post-reaction purification time by several hours per run. Others value our documentation: batch-specific spectra and impurity profiles often save days in regulatory filing or patent documentation phases.
Any manufacturer can claim quality, but consistent daily output tells the real story. Prospective customers sometimes ask about our approach to batch failures or marginal test results. On rare occasions where a batch falls outside our spec, product never leaves the plant. The failed material is fully reprocessed or consigned for non-critical research use, with a full debrief on why controls slipped. This transparent, internal documentation keeps the technical staff alert and accountable. Our lab techs view every quality certificate as a personal signature, and recurring customer audits are welcomed, not feared. Long-term supply agreements have grown from this level of trust.
Over the past decade, global disruptions have tested every part of the chemical business. Logistics delays, customs standoffs, and raw material shortages all hit closer than any industry outsider might guess. We’ve adopted staggered production calendars and hold buffer inventory year-round, not just because it looks good on paper but because it prevented a complete runout last winter, when fluorinating agents were temporarily banned for export. Our approach is more than forecasting by spreadsheet—or crystal ball. It’s about strong supplier relationships, routine raw material audits, and ongoing talks with shipping partners who actually know what’s inside our containers. When a customer on another continent runs into a customs block, our logistics lead acts fast, providing real Certificates of Origin, updated MSDS sheets, and, when needed, sample pre-clearance support. No trade middlemen stepping on timelines or clouding up the documentation flow.
Today’s regulatory climate demands diligence from all manufacturers, especially for aromatic amides like 3-fluorobenzamide that see use in early-stage pharmaceutical research. Our team documents every solvent used and all residuals down to trace levels. REACH registration, environmental impact statements, and waste treatment logs aren’t back-office tasks—they’re checked daily on the shop floor. We’ve taken steps to minimize halogenated solvent emissions and reuse process water where compatible with product purity. Our EHS teams conduct weekly audits to verify that effluents never exceed permitted discharge levels, and we run a closed-loop system for most organofluorine intermediates. From our vantage, real sustainability comes from persistent changes, not just certificates to show regulators.
Pharmaceutical innovators, fine chemical companies, and startup labs all bring unique needs. Some want micronized material; others prefer larger granule sizes for automated feed. We have responded to these realities by investing in flexible milling and sieving lines. No off-the-shelf sizing; everything is screened for each shipment. Real-time powder flow testing flags batches that might bridge or clog hoppers, saving our customers hours in their pilot plants or scale-up lines. Many partners share their downstream concerns, especially about trace metal contamination or offorder solubility shifts. We have taken these seriously, engaging with process engineers to constantly improve on our side.
Unlike distributors who pass along boxes and MSDS sheets, we welcome technical consultations. If a customer runs into a difficult urea formation or downstream hydrolysis, our R&D chemists pick up the call, review their reaction parameters, and suggest tweaks. This isn’t a customer service checklist; our suggestions come from hard-won experience synthesizing, isolating, and formulating 3-fluorobenzamide—batch after batch, year after year. Clients often send us small samples of post-reaction residues or query us about unexpected polymorphism, and our analytical staff dig into root causes. These conversations feed right back into our process improvements.
Anyone moving functionalized aromatics at scale knows moisture control is a daily battle. 3-Fluorobenzamide can absorb atmospheric water, leading to clumping or hydrolysis, especially in humid climates. Our operations team frequently recalibrates dehumidification logs throughout the packing zone. Deliveries during the monsoon months prompted us to upgrade to double-sealed drums and inert gas purging for every export batch. These aren’t costly luxuries but responses to real, repeated headaches—out-of-spec product, wasted staff time, and unnecessary client frustration. Even secondary packaging tape and pallet wrap materials get reviewed annually, based on real delivery feedback from three continents.
Our technical support tracks every shipping complaint, every report of off-odors, and every analytic disagreement. If a batch doesn’t meet documented melting range or shows a new impurity on the customer’s chromatogram, we investigate alongside them. Our lab pulls reserve samples, reruns analysis, and, if necessary, launches root-cause review. This closes loops quickly and leads directly into next-run improvements. Over the years, this approach has lowered our repeat defect rate substantially—one reason our longest-standing clients order from us, not just ‘a supplier’.
Every new project involving 3-fluorobenzamide starts with genuine scrutiny. From raw material inspection through final packing, every step is traceable, every drum’s contents are sampled and verified, and all documentation is real and specific to the material inside. We don’t buy and relabel: every molecule leaving our plant was made, purified, and packed under our own oversight. On questions of impurity profiles, reaction scalability, or batch-to-batch reproducibility, only hands-on experience provides the answers, not computer-generated certificates or generic data sheets.
Research into new medicines, advanced polymers, and fine chemicals depends on solid starting materials and intermediates that perform as claimed. The stakes are too high to deal with unknowns. We see ourselves as partners in our customers’ discoveries: our job is to remove uncertainty, supply a product our own staff trusts, and remain open to feedback. Every improvement—whether it’s a tweak to particle size, humidity protection, or analytical clarity—comes from listening to the real concerns of users. 3-Fluorobenzamide is more than a line in a catalog to us. Its performance in downstream chemistry carries the reputation of both our customer and ourselves.
Years standing at the intersection of chemistry, logistics, and real-world application have shown us that every detail in producing 3-fluorobenzamide matters—sometimes more than specification sheets alone can reveal. Our approach has never chased volume at the expense of quality, nor do we outsource away hard-earned process knowledge. By owning the entire process, listening directly to both users and our own team, and putting every improvement straight into our day-to-day operations, we give customers what they expect from a true manufacturer: reliability, transparency, and real commitment to chemical excellence.