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HS Code |
229879 |
| Cas Number | 509-95-3 |
| Iupac Name | 1-(3-nitrophenyl)butan-1-one |
| Molecular Formula | C10H11NO3 |
| Molar Mass | 193.20 g/mol |
| Appearance | Yellow crystalline solid |
| Melting Point | 60-63°C |
| Boiling Point | 324°C at 760 mmHg |
| Solubility In Water | Slightly soluble |
| Density | 1.22 g/cm³ |
| Smiles | CCCC(=O)C1=CC(=CC=C1)[N+](=O)[O-] |
| Pubchem Cid | 15616 |
| Refractive Index | 1.555 (estimated) |
As an accredited 3-Nitrobutyrophenone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 250 g of 3-Nitrobutyrophenone is supplied in a sealed amber glass bottle with a tamper-evident cap and hazard labeling. |
| Shipping | 3-Nitrobutyrophenone is shipped in tightly sealed, chemical-resistant containers to prevent leakage or contamination. It is transported according to applicable hazardous materials regulations, with clear labeling and appropriate documentation. Standard shipping is via ground or air, avoiding extreme temperatures. Handling requires protective equipment and compliance with safety guidelines due to its hazardous nature. |
| Storage | **3-Nitrobutyrophenone** should be stored in a tightly closed container, in a cool, dry, and well-ventilated area away from direct sunlight and sources of heat or ignition. Keep it separated from incompatible materials such as strong oxidizers and reducing agents. Ensure the storage area is equipped with appropriate spill containment and clearly labeled. Avoid exposure to moisture and humidity. |
Applications of 3-Nitrobutyrophenone in Industrial Manufacturing3-Nitrobutyrophenone offers reliable performance as a key chemical intermediate across several specialized sectors. As the original manufacturer, we work directly with customers who require validated quality, traceable standards, and technical support throughout production scale-up. The following application scenarios detail its targeted roles and the practical parameters essential for industrial integration. 1. Pharmaceutical Intermediate SynthesisThe pharmaceutical sector utilizes 3-nitrobutyrophenone primarily in the custom synthesis of active pharmaceutical ingredient (API) frameworks, such as substituted phenyl ketones and related intermediates essential for neurological and cardiovascular drug classes. In GMP-validated facilities, chemists conduct Friedel-Crafts acylation or reductive amination followed by selective reduction or coupling processes; precise stoichiometry and process controls underpin API impurity profiles and batch reproducibility. Usage ratios depend on the target molecule’s requirement and byproduct minimization strategies guided by route selection studies. Industry compliance standards
Typical usage ratio
Downstream process integration
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2. Agrochemical Active Ingredient ManufacturingIn the crop protection field, downstream formulators deploy 3-nitrobutyrophenone to synthesize derivative ketones and heterocyclic scaffolds found in selective herbicides, insecticides, and fungicides. The addition occurs during the critical condensation or cyclization phase, where precise reactivity profiles influence yield and selectivity. Equipment and handling protocols must align with agrochemical production compliance, and reaction stoichiometry is managed in response to active content targets and impurity allowance per regional regulatory requirements. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Specialty Dye and Pigment SynthesisColorant manufacturers exploit the electrophilic nature of 3-nitrobutyrophenone to craft aryl ketone intermediates for high-performance dyes and pigments. The compound feeds at the condensation or diazotization stage, where its electron-withdrawing nitro group improves shade fastness and solvent resistance of downstream pigments. QC teams closely monitor residual levels to maintain chromatic purity and compliance with product-specific certification requirements for industrial coatings and textile applications. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Fine Chemical Synthesis for Fragrance Precursors3-Nitrobutyrophenone functions as a select starting material in aroma compound development, particularly where controlled nitro group reduction yields unique aromatic ketones used in high-value perfumery and flavor intermediates. Fragrance industry chemists regulate its input during reductive hydrogenation or transition metal-catalyzed modification to achieve specific olfactory notes. Downstream QC requires rigorous analytical tracking and adherence to environmental and toxicological registration specific to flavors and fragrances. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
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In our line of work, raw materials aren't just ingredients—they're the building blocks that determine whether downstream syntheses succeed or falter. 3-Nitrobutyrophenone offers a unique profile, different from many other ketones and nitrophenones. Every year, the feedback loop between experienced production operators and our technical support team helps us adapt processing parameters and impurity targets. As a core manufacturer, the lessons learned from hundreds of batches inform each subsequent drum we produce. Small changes in exotherm management, solvent profiles, and filtration techniques have a direct impact on achievable purity and stability for 3-Nitrobutyrophenone.
The process leading to this molecule starts with careful raw material selection, emphasizing consistency and traceability. We don’t accept upstream variability, as even slight shifts in nitro group orientation or contamination from unrelated aromatic species can pollute the final isolate. Years of process troubleshooting underscore the difference between theoretical yields found in the literature and achievable batch yields on an industrial scale. From mid-stage condensation steps to controlled nitration, each segment gets monitored by QC checkpoints calibrated to our own validated standards, rather than generic, external specifications.
Our 3-Nitrobutyrophenone consistently demonstrates high batch-to-batch reproducibility with a pale-yellow crystalline appearance. Subtle color variations alert operators to minuscule solvent or residual oxidant traces. Within the lab and on the shop floor, workers rely on robust TLC, GC, and HPLC methods, refined over time through real-world problem-solving. Small failures in phase separation or temperature drift in the main reaction cascade teach us where problems start and how to fix them fast.
Compared to simple butyrophenone and other nitroaryl ketones, the presence of the nitro group alters both reactivity and downstream application windows. We find that chemists in research and pharma camp on the subtle electron-withdrawing effect, using our product to tailor condensation reactions and facilitate controlled reductions in subsequent steps. With other nitro ketones, end-users often report batch dullness or sluggish subsequent reactions—a difference most pronounced under scale-up or in closely regulated environmental conditions.
Common questions revolve around shelf life, reaction predictability, or solubility differences when working with our batch-controlled product versus lots of uncertain heritage. In organic synthesis, stability matters. Our experience points to a persistent shelf stability extending for years under inert and dry conditions, confirmed by side-by-side accelerated aging trials. This contrasts sharply with cheaper, less rigorously prepared lots that begin changing color or showing baseline creep in chromatographic profiles within months of receipt.
Every scale-up decision traces back to the nuts and bolts of our production—solvent selection, purification yield curves, and feet-on-the-ground maintenance of reactors. Some customers approach us surprised that our material isn’t “off-the-shelf cheap.” They quickly understand that repeatable performance matters more after costly equipment idle times caused by unfiltered or contaminated lots from less experienced hands. We limit batch capacity where necessary to prevent the creeping risk of cross-contamination or labile byproduct formation, especially during hot summer months.
Batch testing through mass spectrometry for minute contaminants—chlorinated hydrocarbons, leftover acid residues—gives us real confidence in product purity, not just a regulatory checkbox. Users report direct yield improvements and cleaner product isolations, not just on paper but in their bench-to-pilot transitions. For agrochemical actives and certain CNS pharma segments, QC traceability and reliable impurity profiling can make or break regulatory acceptance. Direct dialogue with synthetic chemists and manufacturing teams at customer sites closes the knowledge gap and continually refines our process.
Decades of workflows have shown us that the ketone function in 3-Nitrobutyrophenone anchors demand from developers of new active substances, especially where downstream reduction or alkylation pathways benefit from predictably clean aromatic backbones. The nitro group offers powerful tuning for electron richness and reactivity, both for transition metal catalyzed coupling and for fine-tuned reduction to aminoarene units. Researchers scaling up new routes routinely visit our facility or send back samples for process troubleshooting, trusting in our technical transparency. Each feedback point—issues with material handling, questions on impurity carry-through, insights on storage—further improves our product’s performance in real projects.
Pharmaceutical pilot teams working on CNS actives or custom API intermediates regularly prefer our material over generics. Clean NMR, straightforward work-ups, and high assay results translate to shorter timelines between proof-of-concept and pilot plant runs. In the agrochemical space, consistent product ensures that field test batches and regulatory submissions avoid setbacks from retrospectively discovered impurities or inconsistent process fingerprints. One contract manufacturing client noted significant labor savings tied to our consistently filterable product, as their downstream processes no longer required repeated reworking of gummy or off-color suspensions.
In manufacturing, practical aspects predominate. 3-Nitrobutyrophenone does not handle itself. It requires clear, practiced SOPs throughout loading, transfer, and storage, minimizing both operator exposure and product degradation. Our shop adheres strictly to contained transfer and closed system ventilation, as those lessons came the hard way from missed VOC control in earlier decades. On-site drums are gas blanketed; longer-term stocks rotate in dedicated storage bays tracked through electronic inventory data.
We have replaced legacy solvent systems and adopted green chemistry wherever feasible. This helped to reduce operator chemical exposure while delivering product of higher optical and chemical consistency. Newer process investments, such as automated crystallization monitoring, deliver more predictable scaling and reduce batch deviations that might otherwise show up as off-odors or significant fines in the final product. These investments pay off rapidly, as end users rarely need to delay runs for pretesting or secondary drying.
In terms of safety data support, we build our documents based entirely on internal process characterization. We report on exotherm behavior, mitigation profiles, and historic incident logs—not just literature-derived tables. This approach answers the questions customers actually ask: “What worst-case event has happened in practice, not just in theory?” Long-term partners appreciate transparency, especially those operating in tightly regulated pharmaceutical or GMP manufacturing environments.
Direct manufacturing comes with hard-won expertise. We have watched many traders and re-packers enter the market, pushing visually similar products with no underlying process control. In our experience, such material stumbles when downstream quality or regulatory rejection come back to bite. In one notable customer pilot, rejection rates of over twenty percent materialized from a third party relying on spot-sourced intermediates. Every returned drum wiped out any imagined purchase price savings, not to mention the lost labor and wasted solvent disposal. Our direct quality guarantee, supported by plant records and actual batch lineage, closes this gap for those seeking long-term reliability.
Another key difference—direct manufacturers understand the fine points of transport stability, drum compatibility, and labeling clarity that saves days of warehouse confusion. We never blend lots; every outgoing package comes from a clear batch, referenced by production records and plant-side analytical releases. This level of traceability reassures compliance officers, supply chain managers, and bench chemists alike.
Direct feedback from customers shaped our packaging strategy. Piggybacking off industry-standard drum sizes in the earlier years led to unexpected sticking and product bridging, so we pivoted to custom container linings, improving both pourability and ease of drum handling. These changes flow back full circle into emissions controls and sustainable warehousing, points that third-party handlers rarely manage without oversight.
It takes more than textbook chemistry to deliver dependable batches of 3-Nitrobutyrophenone. Post-pandemic raw material supply swings compelled us to add new pre-shipment chemical screening, as fluctuating impurity profiles impacted both incoming and outgoing QC for several cycles. Our response involved dual-verification points at both receipt and final drum filling. These steps, now standard here, have reduced both internal waste and customer complaints.
Shipping constraints remind us to collaborate closely with forwarders, ensuring all regulatory and safety paperwork remains valid and up to date—not just for export, but for every domestic shipment. We’ve rejected oversimplified ADR papers supplied by third-party shippers, preferring our own documentation, which includes actual process details and up-to-date hazard assessments. Customers in tightly regulated regions report fewer customs holdups and shipment returns with these thorough, transparent documents.
Workforce continuity forms another backbone of reliability. We invest as much time in cross-training new operators as we do in R&D. Shop floor seniority carries real weight; no manual captures the tacit knowledge gained from fixing a failed filtration or rescuing a borderline exotherm event. We foster the attitude that every drum carries part of our company’s reputation, not just to meet a spec but to keep complete, audit-worthy process histories for every batch ever produced.
Looking forward, 3-Nitrobutyrophenone will continue to evolve as a pivotal intermediate, especially as new pharmaceutical targets and crop protection candidates demand ever more specific impurity and stability profiles. Regulatory pressures in certain jurisdictions suggest a sharper focus on trace impurities and detailed forensic batch documentation in the coming years. Our direct experience gives us an edge not simply in production but in anticipating changes, from harmonized global safety standards to tighter process traceability.
Constant communication with synthetic chemists, regulatory teams, and logistics coordinators lets us identify bottlenecks and potential enhancements before issues become entrenched. Sometimes a simple pilot-scale observation—say, a stubborn filter cake or unexpected residue—leads to a major change in purification technique or solvent regime on the main plant. That willingness to adapt and learn stems not from external pressure but from decades of pushing for smoother, more predictable processes.
All these improvements feed back into the marketplace. Increased transparency through digital quality dossiers, real-time plant monitoring, and ongoing investment in plant equipment make us a reliable partner, not just a vendor. With each batch, the feedback loop grows stronger, and the product better meets the day-to-day needs of our customers, from single-vessel bench runs all the way to full-scale industrial output.
Managing both demand and sustainability often means compromising on neither. We have made shifts towards greener solvents, minimized energy input through heat recovery, and invested in waste minimization. Our technical team continuously works with customers to optimize downstream use, not just for cost savings but for environmental impact reduction. Tighter purification leads to less downstream waste, lower solvent volumes in extraction steps, and less burden for ultimate incineration.
Electronic batch records and trace chemical tracking give us actionable data for continuous improvement. On the shop floor, operators flag deviations digitally, enabling real-time root cause analysis rather than relying on retrospective investigations. Customers with specific green chemistry mandates have seen measurable improvement in their downstream processes through use of our batches. Open technical exchange enables both sides to improve year on year, and sets a new standard for how intermediates can be produced and delivered responsibly.
Producing 3-Nitrobutyrophenone as a primary manufacturer reveals the value in every small detail—from raw input traceability through to how the product performs at the user’s bench. By building processes around flexibility, transparency, and direct feedback, we deliver much more than a specification. Each customer order comes with decades of process refinement, a commitment to responsiveness, and a shared goal of advancing chemistry with each batch we ship. With shared focus and open exchange, both producer and user grow stronger, smarter, and better able to tackle emergent challenges in a changing industry.