|
HS Code |
808756 |
| Chemical Name | 4'-Fluoro-3'-Nitroacetophenone |
| Molecular Formula | C8H6FNO3 |
| Molecular Weight | 183.14 g/mol |
| Cas Number | 21142-00-3 |
| Appearance | Yellow solid |
| Melting Point | 76-78°C |
| Purity | Typically ≥98% |
| Solubility | Soluble in organic solvents such as DMSO and ethanol |
As an accredited 4'-Fluoro-3'-Nitroacetophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 25g package of 4'-Fluoro-3'-Nitroacetophenone comes in a sealed amber glass bottle with a tamper-evident cap and clear labeling. |
| Shipping | 4'-Fluoro-3'-Nitroacetophenone is shipped in tightly sealed, chemical-resistant containers, compliant with hazardous material regulations. Packaging ensures protection from moisture, sunlight, and physical damage. The product is labeled according to GHS standards and accompanied by a Safety Data Sheet (SDS). Transport is conducted by authorized carriers, adhering to national and international chemical shipping protocols. |
| Storage | Store 4'-Fluoro-3'-Nitroacetophenone in a cool, dry, and well-ventilated area away from sources of ignition, heat, and direct sunlight. Keep container tightly closed and protect from moisture. Store separately from incompatible substances such as strong oxidizers and bases. Ensure proper labeling and use secondary containment to prevent leaks or spills. Follow all local chemical storage regulations. |
Applications of 4'-Fluoro-3'-Nitroacetophenone in Industrial Manufacturing4'-Fluoro-3'-Nitroacetophenone serves as a critical intermediate for specialized chemical syntheses across pharmaceutical, agrochemical, dyestuff, and material science sectors. As a direct manufacturer, we supply this compound for advanced downstream integration where precise compliance, controlled formula ratios, and validated process steps determine end-user product quality and regulatory acceptance. 1. Pharmaceutical Intermediate for Fluorinated Drug SynthesisThis compound integrates into pharmaceutical production pipelines as a building block for selective fluorinated active pharmaceutical ingredients (APIs), including various benzene ring-substituted molecules found in central nervous system and cardiovascular therapeutics. Class-leading companies employ it for regioselective aromatic substitution reactions and nitro reduction steps under monitored cGMP conditions. API manufacturers track the compound’s purity and impurity profiles tightly due to direct impact on downstream API quality and patient safety. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Agrochemical Active Ingredient Building BlockAgrochemical manufacturers utilize 4'-Fluoro-3'-Nitroacetophenone as a multifunctional intermediate for modern herbicide, fungicide, and plant growth regulator synthesis. Fluorinated nitro compounds offer improved biological persistence and target specificity, meeting strict efficacy and environmental safety protocols. The material enters heterocyclic ring formation or acylation routes, and companies validate all solvent and residue controls to satisfy global regulatory registration for crop protection products. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Intermediate for Advanced Dyestuff ManufacturingSpecialty dye producers require this compound for high-performance dye synthesis where electron-withdrawing groups optimize chromaticity, color fastness, and UV stability. The nitro and fluoro substituents guide targeted electrophilic aromatic substitution and azo coupling reactions. Downstream quality control processes require low-metal and non-volatile residue profiles to ensure compliance with global textile and printing standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Electronic Chemical Intermediate for Liquid Crystal MaterialsMaterials science enterprises use this nitro-fluorinated ketone as a core intermediate during synthesis of advanced fluoroaromatic compounds for liquid crystal display (LCD) and organic light-emitting diode (OLED) technology. The compound participates in carefully controlled Friedel-Crafts or Suzuki coupling reactions to yield selectors with high dielectric anisotropy and thermal stability. All procedures implement stringent trace analysis for ionic and organic contaminants, per electronics industry requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Intermediate for Fine Chemical Synthesis in Fragrance and Flavor ManufactureLeading aroma compound manufacturers incorporate this nitro-fluoroacetophenone into complex molecular skeleton assembly to achieve specific olfactory properties and high purity levels in fine fragrance intermediates. The electron-withdrawing profile allows precise control of subsequent reduction and functionalization steps, critical for reproducible large-volume aroma chemical syntheses. All raw material lots undergo contaminant screening per established international food and fragrance safety codes. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive 4'-Fluoro-3'-Nitroacetophenone prices that fit your budget—flexible terms and customized quotes for every order.
For samples, pricing, or more information, please call us at +8615371019725 or mail to admin@sinochem-nanjing.com.
We will respond to you as soon as possible.
Tel: +8615371019725
Email: admin@sinochem-nanjing.com
Flexible payment, competitive price, premium service - Inquire now!
Over the years working on the production line and in the lab, we’ve seen how a single compound can change how a downstream product performs or even how certain reactions unfold. 4'-Fluoro-3'-Nitroacetophenone isn’t just another acetophenone derivative for us—it’s the result of years spent refining processes, understanding what clients actually deal with, and responding to the constant drive for reliability and consistency in synthesis work. No matter how routine technical papers may paint these niche building blocks, anyone charged with scaling research to production knows that real-world challenges start long before the first reaction flask.
Strictly speaking, you won’t find many compounds quite like 4'-Fluoro-3'-Nitroacetophenone. It combines two functional groups that both impact reactivity: the electron-withdrawing nitro group on the meta position, and the fluoro substituent para to the acetyl group. We produce it with a tightly controlled synthetic pathway that keeps impurity profiles to a minimum and consistency batch to batch. From the crystalline yellow powders coming off drying trays to the chromatographs laying out purity in black and white, every lot gets checked by our own team—it’s one way we hold ourselves to the standards required not just by certification, but by the consequences of our chemistry ending up in someone else’s next step.
Our typical product arrives as a fine yellow solid with purity over 98% (measured by HPLC and confirmed by GC-MS), though specs can be dialed further for customers developing critical APIs or any end use particularly sensitive to trace contaminants. Moisture content usually lands under 0.2% by KF, because excess water changes crystallization rates and, if left unchecked, can invite unwanted by-products in downstream steps. Melting point ranges between 74 and 76°C, which can seem like a trivial number—yet anyone who’s ever chased a byproduct through column chromatography knows why batch reproducibility isn’t just a buzzword. We're happy to provide NMR, IR, and mass spectra for each lot. These aren’t just numbers on a sheet to us—they reflect the actual hands-on rigor we put in, because every deviation in a spectrum tells a story about a reaction gone right or wrong.
Organic chemists rarely pick a reagent just because it’s available. Our long-term clients, ranging from fine chem producers to research teams at pharmaceutical companies, keep requesting 4'-Fluoro-3'-Nitroacetophenone for its dual use as both an intermediate and as a reference material. It serves as a core scaffold in the synthesis of active pharmaceutical ingredients, especially where the modulation of biological activity stems from subtle electronic effects. Both the nitro and fluoro groups influence the distribution of electron density across the aromatic ring, which governs reaction selectivity in coupling, reduction, and cyclization steps. In our conversations with medicinal chemists, this has sometimes made the difference between selective mono-reduction and unwanted full reduction, or between a clean coupling and resinous side-products that gum up entire campaigns.
Contract manufacturers telling us about process upsets typically praise this intermediate for helping them broaden their synthetic toolkit. During scale-up or process transfer, where the risk of batch failure lurks in every uncontrolled parameter, granular knowledge of a compound’s behavior offers a genuine advantage. Because we actually produce this molecule ourselves, we know from practical experience how critical it is to remove certain trace impurities, especially those that can introduce oxides or unpredictable chromatographic tails. This level of process intelligence simply isn’t found in off-the-shelf intermediates.
The chemical market is crowded with traders and resellers promising products from one database or another. The difference comes through control: from raw material selection, through each reactor, to packaging on the line. We keep a strict chain of custody, forging real relationships with raw material suppliers and following every drum and sack into our plant. Our units don’t just carry out batch operations; process chemists walk the line regularly to monitor reaction kinetics, check temperature and pressure profiles, and confirm that real-world product aligns with on-paper specifications.
What’s more, manufacturing gives us insight into subtle differences that rarely get written up in slick catalog copy. Isomers or analogues such as 2'-Fluoro-3'-Nitroacetophenone or non-halogenated variants behave differently not merely on paper or NMR, but on the kilo scale, with distinct handling characteristics and safety considerations. We've run whole months’ worth of batches and learned to spot the bad actors in real time: unexpected exotherms from trace peroxides, color changes hinting at incomplete purification, unpackaged solids caking or picking up ambient moisture. We don’t just quote universal data points—we know which grades offer extended shelf stability and which require inert atmosphere packaging.
It’s common in our industry for project managers to face unexpected hurdles. An order for decades-old molecules gets delayed because a supplier outsources to a less reputable plant, or worse, ships a compound that fails to meet an updated pharmacopeia standard or internal QC expectations. These headaches don’t just cost time; they sometimes halt research lines or even cause expensive shutdowns on commercial lines. Because we produce 4'-Fluoro-3'-Nitroacetophenone ourselves, we know every detail from equipment maintenance to the sources of trace elemental contamination. This isn’t about ticking boxes—it’s about reducing risk, both seen and unforeseen, because the downstream cost of a single bad batch can dwarf the upcharge between low cost resellers and true manufacturers.
Producing this compound under a robust quality system, we have invested in constant monitoring, improvement of process parameters, and practical fine-tuning carried out by senior operators and chemists who know the quirks of handling every solvent and precursor. No batch leaves our plant without proper documentation and real analytical backup. This level of assurance isn’t just aimed at regulatory compliance, but at maintaining credibility and supporting long-term client success.
Direct relationships with process engineers and scientists have shown us where 4'-Fluoro-3'-Nitroacetophenone delivers the most value. One contract pharma customer, scaling a key starting material from synth to a 100 kg campaign, reported that minor but persistent color changes in their old supplier’s material pointed to trace, undetected contaminants. After switching to our product, reaction yields trended consistently higher, and post-polishing steps became less demanding. This kind of feedback isn’t fodder for product brochures, but it shapes how we run batches today. We regularly collaborate with clients to adjust remanufacturing timing, custom filtration, or QA documentation, because real demands don’t always fit rigid categories or static specifications.
We’ve also taken special note of customer insight into novel uses beyond conventional pharma or agrochemical syntheses. Companies experimenting with advanced materials, or even developing specialty dyes and intermediates for electronics, rely on a clean substrate with well-defined substitution patterns. Their bench chemists appreciate being able to focus on what’s new, not on compensating for unpredictable variance in starting materials. By sharing technical observations from our own synthetic campaigns, and exchanging spectra and method notes, we build trust and drive improvement with each lot shipped.
This compound doesn’t scare off experienced chemists, but we’ve seen first-hand how handling habits can tip the all-important moisture balance or make solid transfer messier than needed. Because 4'-Fluoro-3'-Nitroacetophenone forms free-flowing, faintly yellow crystals at room temperature, its apparent stability sometimes masks a subtle sensitivity to humidity. Extended exposure to damp air leads to clumping, which then complicates accurate weighing and dosing. Years of watching scale operators and sampling teams at work taught us to recommend airtight containers in a dry, cool environment, and most labs using automated powder feeders benefit from small-batch packaging that keeps oxygen and water out. Not only does this practice preserve free-flow and ease of handling, it means downstream processes continue as planned without bottle necks caused by bridging or aggregation in hoppers.
Our internal QA teams follow strict lot segregation not only for regulatory traceability, but to limit the impact of any unforeseen event in one batch or drum. Years of tight process ownership have defined our approach here: we’ve invested in real-time temperature and pressure monitoring in key synthesis and isolation stages. The end result? More predictable handling, fewer surprises at the user’s end, and strong continuity between technical documentation and real-world processability.
There is no shortcut to producing an intermediate like 4'-Fluoro-3'-Nitroacetophenone with the sort of reliability required for commercial or high-value research work. Any process chemist knows that vendor choice goes far beyond price or lead time. We have built our internal expertise not only in the core reactions, but also in downstream isolation, washing, drying, and packaging—those steps where the difference between a repeatable process and a troublesome one becomes clear. We’ve retooled equipment to minimize the risk of cross contamination, and continually monitor both personnel and equipment hygiene to forestall the contamination events that show up only weeks after the fact.
Some clients may wonder what truly sets a direct manufacturer apart from a distributor. The answer comes down to transparency, accountability, and responsiveness drawn from day-to-day familiarity with both the chemistry and the operational workflow. We handle all customer interactions ourselves, giving technical advice based on actual manufacturing trials and troubleshooting, not abstract literature. When a client requests modifications to specifications, custom packaging, or documentation for regulatory evaluation, our technical team and plant operators can directly coordinate to fulfill those real needs, rather than relaying instructions through disconnected resellers.
We also collect and act on failure analyses and process improvement data—not only our own, but also those shared in partnership with clients. If ever an off-specification batch or an unanticipated event occurs, we don’t hide behind a supply chain. Instead, we work transparently, providing root-cause analysis, corrective action reports, and replacement timelines. This willingness to own the entire process fuels long-term trust that can’t be replicated by intermediaries.
Every day, we see researchers and commercial chemists working on tighter deadlines and greater technical complexity than ever before. Whether they’re building up a multi-step library synthesis, working with platform molecules for crop protection, or leading the charge in next-generation materials, every small improvement in consistency and purity at the intermediate level can unlock time and cost savings further down the pipeline. By providing 4'-Fluoro-3'-Nitroacetophenone directly from our own facility, we not only shorten the feedback loop between manufacturer and end user, but help accelerate discovery and scale-up projects—something that benefits the entire value chain, from benchtop to final product.
Our approach means we listen to our customers’ technical requests and production challenge stories, and we factor those insights into our own process upgrades. All too often, the business of chemistry becomes shielded by catalog numbers and generic product outlines, but real-world results and collaborative problem solving mean more to us than simply filling orders. By focusing on practical, hands-on manufacturing expertise, we bring real answers to real challenges—not just for our own gain, but to help move science and industry forward together.
We believe that a long-term commitment to manufacturing 4'-Fluoro-3'-Nitroacetophenone at a top tier level brings benefits that go far beyond what gets measured on a basic spec sheet. Our approach offers not just product, but also the technical partnership needed to solve emergent research and manufacturing problems. Each kilogram comes packed with the insight of chemists and operators who have handled the product in their own hands, and who put their names to every certificate and spectrum. In a time when trust in supply is more fragile than ever, we stay resolute in upholding the credibility that direct, on-the-ground manufacturing experience brings to our customers and partners.
This is the difference between just another number on a catalog, and a piece of chemistry that enables progress, underpinned by integrity and supported by the lessons from years of real production work. As challenges evolve in this industry, we know that up-to-date manufacturing expertise and a commitment to quality from start to finish will always set our product, and our team, apart.