2-Nitrobutane

    • Product Name: 2-Nitrobutane
    • Alias: 1-methyl-1-nitropropane
    • Einecs: 203-740-7
    • Mininmum Order: 1 g
    • Factroy Site: Yudu County, Ganzhou, Jiangxi, China
    • Price Inquiry: admin@ascent-chem.com
    • Manufacturer: Ascent Petrochem Holdings Co., Limited
    • CONTACT NOW
    Specifications

    HS Code

    261859

    Cas Number 610-25-3
    Molecular Formula C4H9NO2
    Molar Mass 103.12 g/mol
    Appearance Colorless liquid
    Density 0.998 g/cm³
    Melting Point -110 °C
    Boiling Point 120-122 °C
    Solubility In Water Slightly soluble
    Flash Point 28 °C (closed cup)
    Refractive Index 1.413

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

    Packing & Storage
    Packing The 2-Nitrobutane is packaged in a 500 mL amber glass bottle with a secure, chemical-resistant screw cap and hazard labeling.
    Shipping 2-Nitrobutane should be shipped as a hazardous material, classified under UN2608. It must be packed in tightly sealed containers, protected from heat, sparks, and open flames. Proper labeling and documentation are required, with transport in compliance with international and local regulations for flammable and toxic substances. Handle with care.
    Storage 2-Nitrobutane should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area away from heat sources, sparks, and open flames. It must be kept away from incompatible substances such as strong oxidizers, strong acids, and bases. Protect from direct sunlight and moisture. Always label containers appropriately and store them in chemical storage cabinets designated for flammable or hazardous liquids.
    Application of 2-Nitrobutane

    Applications of 2-Nitrobutane in Industrial Manufacturing

    2-Nitrobutane is a functional nitroalkane widely adopted by chemical manufacturers as a process intermediate, reagent, or solvent in specialized synthesis chains. Its applicability extends across several chemical downstream production lines where its reactivity and solvency profile provide decisive processing benefits. Below, we detail specific downstream industries and processes supported by our direct supply of high-purity 2-Nitrobutane, with focus on compliance, compositional control, engineering integration, and end-product formulation.

    1. Fine Chemicals: Intermediate for Pyridine Synthesis

    Within fine chemical production, manufacturers employ 2-Nitrobutane as a building-block intermediate during the synthesis of certain alkyl-substituted pyridines via condensation and cyclization routes. Precise dosage and rigorous process controls ensure consistent molecular incorporation, particularly during continuous-flow manufacturing of pyridine derivatives used in crop protection agents and specialized resins.

    Industry compliance standards

    • ISO 9001:2015 Quality Management System
    • REACH registration (EC 1907/2006) compliance for raw material handling
    • Responsible Care® Management System Guidelines

    Typical usage ratio

    • 10%–25% by molar ratio relative to aldehyde or ketone reactants; final dosage depends on alkylation degree and specific target molecule

    Downstream process integration

    • Direct charge into condensation reactor or continuous stirred-tank system during initial cyclization stage; co-feeding with primary pyridine sources under controlled temperature conditions

    Final product types

    • 3-Alkyl-pyridine compounds for fungicide formulations
    • Specialty UV-absorbing resin intermediates

    2. Pharmaceutical Synthesis: Precursor in Active Ingredient Manufacturing

    Pharmaceutical API manufacturers incorporate this compound as a nitroalkane reagent in the preparation of key nitro alcohols and subsequent amine intermediates through reduction or Michael-type addition. These reactions form the basis for synthesizing certain antihypertensive, antitubercular, and psychoactive pharmaceutical actives. Precise reagent addition and traceability are critical due to GMP and ICH Q7A mandates for pharmaceutical process integrity.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for APIs
    • FDA 21 CFR Part 211 (Current GMP for Finished Pharmaceuticals)
    • USP/NF monographs for ingredient verification when applicable

    Typical usage ratio

    • 5%–20% by weight in relation to the base carbonyl or Michael acceptor; ratio adjusted based on desired intermediate yield and downstream reduction protocol

    Downstream process integration

    • Fed into batch or semi-batch reactors during nitroalkane addition stage; subsequent reduction steps connect to hydrogenation or catalytic transfer hydrogenation modules

    Final product types

    • Beta-amino alcohols for cardiovascular APIs
    • Nitroalkane-derived intermediates for anti-infective drug actives

    3. Agrochemical Active Ingredient Manufacture

    Producers in the agrochemical sector utilize high-purity 2-Nitrobutane as a precursor in multi-step syntheses for specific herbicide and insecticide actives. Controlled incorporation into nitration and alkylation stages supports downstream molecular complexity, addressing ingredient solubility, bioactivity, and environmental degradation profile in final crop protection products.

    Industry compliance standards

    • FAO/WHO Specifications for Pesticide Active Ingredients (FAO/WHO)
    • ISO 17025 Testing and Calibration for analytical verification
    • REACH compliance (EU Regulation EC 1907/2006 for raw material documentation)

    Typical usage ratio

    • 8%–15% by molar ratio in precursor alkylation step; adjusted to molecular yield targets specific to each active ingredient synthesis pathway

    Downstream process integration

    • Continuous or batchwise introduction in early-stage synthesis reactors involved in nitration, followed by integration with subsequent cyclization or chlorination lines

    Final product types

    • Specific nitro-substituted herbicide actives (e.g., 4-nitro-substituted aniline derivatives)
    • Precursor blocks for systemic insecticides

    4. Specialty Solvent Applications in Organic Synthesis

    Chemical processing facilities employ 2-Nitrobutane as a polar aprotic solvent in select oxidation, alkylation, and nucleophilic substitution reactions for fine and specialty chemical synthesis. Its selective solvating properties assist in controlling reaction rates, minimizing byproduct formation, and enabling post-reaction separation where traditional solvents show limitations.

    Industry compliance standards

    • ISO 14001:2015 for environmental control of solvent emissions
    • Process safety guidelines per OSHA 1910.119 (for US-based operations)
    • REACH Annex II SDS compliance for safety data provision

    Typical usage ratio

    • Used as neat solvent or as a cosolvent at 30%–80% by volume depending on substrate solubility and desired reaction kinetics; concentration set according to downstream purification capability and product QA requirements

    Downstream process integration

    • Charged directly to jacketed steel reactors or glass-lined vessels during the solvent addition stage prior to reactant introduction or catalyst loading; solvent recovery circuits capture 2-Nitrobutane post-reaction

    Final product types

    • Specialty aldehyde intermediates
    • Halogenated aromatic compounds for advanced materials

    5. Polymer Additives: Chemical Initiator in Cross-Linking Reactions

    In polymer modification, plastic and elastomer manufacturers utilize 2-Nitrobutane as a controlled chemical initiator for certain radical-based cross-linking reactions tailored to specialty copolymer performance. Its introduction at the pre-polymer or mixing stage enhances material uniformity and mechanical properties in final engineering plastics and selected adhesives.

    Industry compliance standards

    • ISO 9001 certified quality assurance for batch consistency
    • ASTM D256 and D638 for plastics mechanical property testing
    • EPA 40 CFR Part 63 for hazardous air pollutant (HAP) management in US

    Typical usage ratio

    • 0.2%–1% by weight of resin base; dosage optimized by formulation engineers to achieve specified degree of cross-linking and balance between toughness and flexibility

    Downstream process integration

    • Blended with resin melt or latex dispersion prior to extrusion or molding; cross-linking triggered under thermal or UV initiation phases following mixing

    Final product types

    • Modified engineering thermoplastics (nylon, ABS blends)
    • High-performance adhesive matrix resins

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    Certification & Compliance
    More Introduction

    2-Nitrobutane: Our Direct Experience as a Chemical Manufacturer

    Straightforward Approach to 2-Nitrobutane Production

    Day in and day out, manufacturers come up against new challenges—not just in sourcing, but also in ensuring the quality and reliability of each batch. Our work with 2-nitrobutane traces back over a decade. Every order goes through hands-on refinement, starting at raw material sourcing and ending with a last scan for purity. We keep direct oversight over every part of the process; that's how we spot variances early, isolate impurities, and turn out product that meets the toughest lab and industrial standards—time after time.

    We have seen demand shift over the past five years. Fuel additives, specialty solvents, and pharmaceutical intermediates have each driven spikes in interest for 2-nitrobutane. Popularity, though, only tells part of the story. Customers needing a solvent for hydrogenation or a starting material for fine chemical synthesis come to us for consistency and traceability. Each lot adheres to strict specifications—purity, chromatography profile, moisture content. Variability causes headaches for downstream chemistry, so regular technical audits and side-by-side batch testing have become routine. We actively avoid material from secondary suppliers, and only process nitroalkanes from our controlled feedstocks.

    Specifications We Stand Behind

    Here’s where ‘by the numbers’ goes further than a sheet of figures. Our standard 2-nitrobutane usually runs at 99% minimum purity by GC, with color and odor controlled at source. Each liter meets a verified moisture threshold—measured using Karl Fischer titration on every production run. Our lines run both technical and higher-purity grades: while most customers are well served by standard lots, we supply extra-low-water variants for moisture-sensitive syntheses. With volatile organics, trace amine and aldehyde content can become an issue even in storage. Each tank gets a cross-check for those contaminants, since they set off unintended side reactions or introduce off-notes in pharmaceutical use.

    Talking about numbers can be reassuring. What makes a real difference is the process behind them. To avoid batch cross-contamination, we dedicate glass-lined and stainless steel reactors, then double-check transfer lines after washing cycles. Some customers want lean documentation: others require a complete analytical package. Both receive samples pulled fresh from the most recent batch, not archived or mixed material.

    Practical Uses of 2-Nitrobutane from the Factory Floor

    Few compounds handle as many duties on a busy plant floor. Over the years, industrial clients use 2-nitrobutane in complete hydrogenation cycles, some relying on it for its stability and compatibility in large-scale reactors. QC staff tells us its reliable boiling point—the fluid design of our process targets a precise 117-119°C—cuts substantial troubleshooting costs compared to less stable analogs. Many downstream applications emphasize purity and absence of residual water, especially in organometallic or Grignard settings. Experience has shown our moisture-controlled batches respond better in these sensitive syntheses, where yield drops quickly with even slight contamination.

    Smaller pharma customers prefer our highest grade for use as an intermediate in active pharmaceutical ingredient (API) manufacture or in scale-up research. Their requirements tend to push us toward extreme reproducibility, chiefly on purity and GC profiles. Our long-standing commitment to exacting cleanup stages—using vacuum distillation and careful pressure control—means these specifications are met with less downtime and fewer product complaints.

    What we notice across long-term partnerships is a shared focus on process integration. Whether a plant runs batchwise oxidation, or continuous-flow reduction, they need a product that avoids fouling reactors or stalling filtration steps. In-house trials, confirmed through thousands of hours of practical use, point to the need for strict quality control not just at the start but all along the delivery chain. From our end, that means sending regular COA-backed shipments, maintaining single-source production, and archiving split samples from each delivery for six months.

    What Differentiates Our 2-Nitrobutane?

    We work with all kinds of nitroalkanes—2-nitropropane, nitromethane, and others—yet the feedback is consistent: 2-nitrobutane serves distinct roles chemical cousins cannot match. Our chemists observe that it delivers superior performance in carbon-carbon bond-forming reactions because of its balance of volatility and stability. In the lab and pilot plant, we find that even small impurities sometimes tolerated in other solvents become bottlenecks here. The result is we run corrective maintenance and setups not just as a checkmark, but as an industry necessity.

    Supply chain reliability matters more than ever in today’s market. Our direct manufacturing controls—from scheduled maintenance to daily sample analysis—help customers avoid delays caused by inconsistent shipments or analysis failures elsewhere in the supply chain. Traders and resellers cannot guarantee real batch continuity. We’ve learned that full control at every stage, from reactor charging to final filling, translates to peace of mind at customer sites and helps their internal safety and quality teams speed up validation.

    Handling the Realities of Manufacture, Logistics, and Traceability

    We keep a clear record on every lot. Whether it’s a 20-liter drum or multi-ton tank, full manufacturing and analytical detail is documented. Triggers such as off-color, unusual odor, or minor off-spec GC readings push processes back to earlier QC steps. This attention isn’t caused by regulatory push alone—it springs from watching what happens when final customers hit process hurdles due to off-batch shipments. Data tracking, our in-line batch numbering, and archive procedures act as a safety net. Third-party resellers rarely provide this close link between analysis and production.

    One lesson comes out of every product return or complaint: speed trumps everything else in resolution. Returning stock or replacement shipments come from production held in reserve for just these rare cases. As a result, partners relying on uninterrupted synthesis have avoided whole-day or weeklong delays. Whether shipped local or global, our focus remains on closing the QC loop and getting replacement material en route in hours, not days.

    Industry Trends Influencing 2-Nitrobutane Demand

    Our eye stays trained on both traditional users—large-scale chemical plants and fine chemists—and emerging niches. The past three years, requests tied to lithium-ion battery research and new materials synthesis have shot up. Environmental chemists reach out for 2-nitrobutane as a reference compound or tracer, demanding specific labeling and background analytical files. Each sector applies its own standards, but one trend is clear: transparency in source, purity, and storage logs outpaces the older ways of abbreviated batch reporting. Buyers from the automotive, electronics, and pharmaceutical worlds push standards up and expect quick answers to contamination or trace analysis queries.

    Sustainability and raw material reporting have never mattered more. Requests come from multinational buyers for information on the origin and fate of every precursor. We answer these because we control the supply at the manufacturing level, so tracking back material and confirming compliance isn’t a headache. Customers working in regulated sectors use this information for their own audits—knowing full well a one-off shipment from a third-party trader doesn’t bring these reassurances.

    Comparing 2-Nitrobutane to Other Nitroalkanes—and Lessons Learned

    Anyone familiar with nitroalkane chemistry knows the sister products—nitromethane, nitroethane, 2-nitropropane—show significant differences at the plant and bench levels. 2-nitrobutane’s higher molecular weight grants a distinct boiling point range and reduced volatility loss during scale-up operations. This advantage translates to more stable headspace and less product loss for high-throughput reactors. Labs that tried swapping in mixed nitroalkane blends reported odd GC peaks, vapor loss at ambient handling, and recurring analysis failures. Over years of process troubleshooting, we recommend strict separation between product grades. Each nitroalkane brings its own reactivity profile, incompatibilities, and risk of unwanted side reactions.

    We get asked with some regularity why one nitroalkane can’t simply substitute for another, especially as price or spot-market supply changes. As a manufacturer, we’ve seen firsthand that product substitutions rarely work in complex syntheses. 2-nitrobutane’s chemical structure enables unique reductions, C–C couplings, and functional group introductions. Altering the solvent, even by a degree of purity or switching to a close analog, impacts yield, selectivity, and sometimes safety outcomes. Through customer trials and shared data, unwanted breakdown products or catalyst poisoning show up most often due to slight variances from product to product.

    The Direct Manufacturer’s Role in Innovation and Problem Solving

    Walking the floor with our R&D chemists uncovers new uses and answers problems daily. When a partner faced persistent polymer fouling in their hydrogenation loop, the culprit wasn’t just off-spec solvent. We tracked down the problem to a minor impurity introduced upstream of final bottling. Swapping out a single gasket and tightening transfer protocols eliminated downtime and stopped off-color batches in their tracks. These details never surface in simple spec sheets—they’re found by people watching and adjusting in real time.

    We often advise new clients on process optimization. Instead of standard order-taking, our project chemists join calls and walk through planned reactions, identifying where 2-nitrobutane purity, stabilization, or even drum-venting could upset results. By talking shop—one technician to another—we troubleshoot filtration blockages, finicky crystallizations, or discards caused by overlooked trace contaminants.

    Manufacturing in the age of rapid sample turnaround means finding solutions on the fly. We keep reference batches for side-by-side testing, so each new production can be matched against proven lines. Our testing regime is built from a mix of in-house and customer-driven feedback. On more than one occasion, these quick-turn data points flagged subtle shifts in product quality which, left unchecked, might have caused destroyed runs or unplanned maintenance for downstream users.

    Why Direct Relationships Matter More Than Ever

    The market for intermediates, including 2-nitrobutane, will always tempt with cheaper, gray-market sources. Our customers, faced with increasing regulatory scrutiny and shrinking project timelines, come back to direct manufacturing partners for traceability, quality guarantees, and reliable backing. One shipment gone wrong or misidentified material can throw off multi-stage synthesis or company audits. Drawing on years of shipping both routine and ultra-pure batches, we trust only those systems and people who touch the process from start to finish.

    We handle logistics directly, not through third-party consolidators or split-load techniques. That commitment means fewer transfer losses, less risk of tampering or label confusion, and tighter hold of the complete chain of custody. Customers see this in the uniform way drums arrive, with seals, analytical paperwork, and shipping records attached and traceable straight to the day’s production.

    Setting New Benchmarks for Quality and Reliability

    The role of a manufacturer goes beyond filling orders: we act as troubleshooters for partners, analysts for new product uses, and keepers of the final audit record. As 2-nitrobutane moves into new industry roles—from fine chemicals to defect tracers and analytical controls—we adapt production routines and batch controls to match. We find that better manufacturing not only supports successful downstream reactions, but also preserves reputations and relationships in a demanding, ever-scrutinized environment.

    In our work, fine margins often spell the difference between successful process runs and expensive missteps. That’s where the attention paid at each step—from feedstock qualification, reactor cleaning, to in-plant verification—shows up most clearly. Direct, unbroken oversight ensures that each shipment stands behind its quality claims, and that each customer can trust its performance.

    Real-World Outcomes, Not Promise Sheets

    Customers share results, both good and bad, with us openly. Instead of a distant supplier, we see ourselves as working within every operation using our 2-nitrobutane. As regulatory frameworks tighten and as users demand more data up front, our manufacturing records and open-door testing regimes offer a layer of certainty that bulk dealers or repackers simply can’t match. By cutting out gaps or uncertainties, we backstop project deadlines, hold costs to predictable levels, and help teams climb steeper learning curves, whether scaling from lab to plant or incorporating new assays.

    Decades of practice have taught us that manufacturing quality, batch handling, and technical support mean more than any marketing pitch. Seeing a process from raw input to end-use runs gives us the perspective—and hard data—to stand up for every lot shipped.

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