|
HS Code |
405599 |
| Chemical Name | Isoamyl Nitrile |
| Synonyms | 3-Methylbutanenitrile |
| Chemical Formula | C5H9N |
| Molecular Weight | 83.13 g/mol |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 127-129 °C |
| Melting Point | -95 °C |
| Density | 0.792 g/cm³ at 20 °C |
| Refractive Index | 1.3980 at 20 °C |
| Solubility In Water | Slightly soluble |
| Flash Point | 25 °C (closed cup) |
| Odor | Characteristic, unpleasant |
As an accredited Isoamyl Nitrile factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Brown glass bottle, 250 mL, sealed with a plastic screw cap, labeled "Isoamyl Nitrile," hazard symbols, and handling instructions. |
| Shipping | Isoamyl Nitrile should be shipped as a hazardous material, in compliance with relevant regulations (e.g., DOT, IATA, IMDG). Use tightly sealed, chemically compatible containers. Ensure appropriate labeling, documentation, and safety measures to prevent leaks, exposure, and ignition. Ship in well-ventilated, temperature-controlled conditions, away from strong oxidizers and ignition sources. |
| Storage | Isoamyl nitrile should be stored in a cool, dry, well-ventilated area away from sources of ignition and incompatible substances such as oxidizers and acids. Keep the container tightly closed and properly labeled. Store in a flammable liquids cabinet. Protect from direct sunlight, heat, and moisture. Use explosion-proof equipment and follow all relevant local and national regulations regarding hazardous chemicals. |
Applications of Isoamyl Nitrile in Industrial ManufacturingIsoamyl Nitrile is a specialty intermediate used by downstream manufacturers to synthesize various high-value chemical products. As a direct manufacturer, we supply Isoamyl Nitrile for strictly regulated industrial applications, ensuring controlled input ratios, traceable quality, and full compliance with relevant regional and international standards. The following sections detail its established roles across four critical industrial scenarios. 1. Pharmaceutical Intermediate Production (Antihypertensive Agents)Commercial-scale pharmaceutical synthesizers rely on Isoamyl Nitrile as a nitrile precursor in the multi-step production of active pharmaceutical ingredients, notably in the manufacture of certain antihypertensive agents via nucleophilic substitution and subsequent hydrolysis routes. Manufacturers adhere to tight quality systems and robust documentation throughout the chain, as even minimal variance in raw material quality can affect GMP compliance and batch reproducibility. Precise input ratios, trace impurity controls (especially for residual solvents and side-products), and integrated analytical verification form part of routine operations for regulatory submission batches. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Flavors & Fragrance Ingredient SynthesisIsoamyl Nitrile serves as a critical intermediate by custom fragrance compound manufacturers, especially in the tailored synthesis of specialty nitriles used to impart banana, pear, and related fruity notes to finished fragrances. Downstream processors implement traceability and purity monitoring at each stage, since residual reagents negatively impact olfactory quality. The correct addition rate depends on the structure-activity relationship for the target aroma compound and is finely adjusted for batch size and reaction performance. Documentation of all raw material inputs is mandatory for IFRA compliance audits and customer specification validation. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Agrochemical Synthesis (Pesticide Intermediate Manufacturing)Top-tier agrochemical producers integrate Isoamyl Nitrile in the synthesis of specific organonitrile intermediates crucial in the development of selective herbicides and insecticidal actives. Strict control of material input and trace residue analysis aligns with international crop protection regulations to prevent off-target toxicity or environmental burden. The dosage depends on the synthetic route and is adjusted for end-point conversion, catalytic yield, and downstream purification system constraints. Continuous in-process checks, combined with validated cleaning protocols, help mitigate cross-contamination—an area under heightened scrutiny by regulatory and customer audits worldwide. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Specialty Polymer and Resin Modifier (Functional Monomer Precursor)Leading polymer material manufacturers apply Isoamyl Nitrile as a functional group donor in the pre-polymerization modification of specialty resins, where its chemical structure introduces tailored polarity or enhances processability for advanced coatings and adhesives. To maintain product consistency and downstream curing behavior, quality assurance teams enforce analytical verification of input ratios and reactivity profile at each production lot. Process engineers set the usage level according to target resin architecture and crosslinking index, with adjustments reflecting reactor volume, temperature, and desired final mechanical properties. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Isoamyl Nitrile 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!
As a producer whose core focus lies in delivering building blocks for fine chemistry, Isoamyl Nitrile stands out as a genuine contributor to countless R&D breakthroughs, especially when process reliability and purity matter. Feedback from customers working in chemical synthesis and pharmaceutical intermediates frequently confirms this product’s role as an essential foundation for advanced applications.
Isoamyl Nitrile, or 3-methylbutanenitrile, carries a distinct branched carbon structure that lends itself well to specialized syntheses. We take pride in offering this reagent at a purity of 98% and above, with water content held under 0.2%. Each batch undergoes stringent control for color and odor, two indicators that matter during the transition from chemical manufacturing plants to research labs. Technicians working under constantly changing requirements count on every drum or flask to deliver what the paperwork promises. Impurities and variable performance would only slow research or increase the cost for our partners. By maintaining uniform quality through precise distillation and gas chromatography confirmation, we guarantee results that let synthetic chemists focus on the reaction at hand, not chemical variability.
Sourcing Isoamyl Nitrile from a manufacturer who understands the chemistry behind each synthesis pays off over the long term. Differences in odor, color, or water content signal shortcuts in process control. We use a combination of fractional distillation under reduced pressure and active drying agents, eliminating the residues and extraneous components that can derail a finely tuned alkylation or condensation pathway. Some of our long-term customers point to past supply chain headaches where small changes in reactivity or boiling range created inconsistency in yield and downstream purification. Our stability and batch-to-batch reproducibility address those headaches at the source, not after the fact.
Isoamyl Nitrile sees attention primarily from chemists building key intermediates for active pharmaceutical ingredients, flavors, agrochemicals, and specialty materials. Its branched nitrile backbone participates in nucleophilic substitutions and reductive transformations, giving access to amines and acids that serve as essential synthesis nodes. In scale-up synthesis, where operational safety and reaction predictability come under the microscope, our product’s clarity and defined boiling range (typically between 138-142°C) prove valuable. A nitrile with unpredictable impurity levels can generate side-products or cause unexpected exotherms, leading to wasted time or even risk. A well-behaved Isoamyl Nitrile lets innovators work with confidence and focus their energy on creativity, process improvement, and patentable outcomes.
Another concern centers on shelf stability. Some nitriles suffer from slow hydrolysis if water content drifts outside appropriate limits. By routinely verifying Karl Fischer moisture results, our production avoids this pitfall, and users can store our drums for over a year in standard laboratory conditions without seeing appreciable degradation or acid generation.
It’s not uncommon for researchers to weigh Isoamyl Nitrile against simpler options like n-butyl or isobutyl nitrile. On paper, each provides a nitrile function on a short, saturated chain. In practice, Isoamyl Nitrile offers a more hindered, branched environment, altering reaction rate and selectivity in pathways such as Grignard additions, reductive amination, or palladium-catalyzed coupling. Some labs favor n-butyl nitrile for classic Strecker reactions, but where steric effects influence diastereoselectivity or minimize unwanted polymerization, the isoamyl derivative proves superior.
Users focused on aroma chemistry also recognize the distinctive sensory profile of Isoamyl Nitrile, which can act as a precursor or modulator in flavor synthesis. Because of its physiochemical differences—density, refractive index, boiling range—scientists need reliable, well-characterized supply whenever method development calls for comparing nitrites across homologous series. Standardizing testing conditions is easier if every drum meets the same exacting specs.
Several years ago, a major client reported a concern over trace amine byproducts, which had originated from a supplier with lax storage controls. This served as a lesson for us. Improvements to our nitrogen blanketing and sealed container process soon followed, reducing oxidative decomposition during transit. Simple packaging details like tamper-evident seals and updated labeling protocols now seem minor, yet they guard the integrity of highly reactive raw materials upon arrival and throughout on-site storage. Many industrial buyers have since shared that these changes helped reduce complaints and re-testing frequency.
Another kind of safety concern emerges during pilot plant scale-up. Isoamyl Nitrile, like other 3-methylbutane derivatives, brings a sharp, pungent odor that signals even minor leaks or spills. We engineer our drums and flasks with dual-seal options and offer material-handling training to downstream partners. By sharing our risk assessment and ventilation recommendations, we let plant managers address health-and-safety audits confidently. Some colleagues have asked why not simply warn buyers through checklists and disclaimers. From our experience, upstream improvements lead to easier compliance and real savings in PPE and waste disposal costs.
Our lab staff conduct more than the typical checks for specific gravity and boiling point. Testing every production batch isn’t just box-checking—it translates directly into fewer process hiccups downstream, and it saves purchasing managers from headaches over reapproval or special write-in orders. The tight relationship between our technical teams and production shopfloor crew means bottlenecks get detected early. Trace color changes or elevated acidity flags never wait for customer complaints; they trigger real-time process checks, allowing us to remove or fix substandard material before shipment.
Access to analytical instrumentation such as GC-MS and FT-IR lets us demonstrate the absence of critical aldehydic contaminants and ether byproducts. When specialty users require extended impurity profiles, our internal database tracks results, showing clear patterns by raw material source and production date. This kind of documentation goes beyond what most traders or middleman distributors could provide, allowing direct communication between end-users and production chemists. Years of feedback have taught us that practical knowledge—why a side band appears in spectra, or how trace amounts of butyl isonitrile might influence odor—is valued far above any certificate issued by an external party.
Isoamyl Nitrile isn’t produced in enormous volumes compared to commodity amines or alcohols, so cost optimization leans hard on solvent recovery, side-stream valorization, and energy input reductions. Internally, we approached waste minimization by revisiting every step of our fractional distillation, stripping out unnecessary recycles and re-purifying solvent fractions that previously were sent to energy recovery. These measures improved not just gross margin, but substantially cut water usage and reduced total organic discharge. This matches customer demand for cleaner “green chemistry” footprints at every step, since more clients now must document supply chain sustainability alongside regulatory compliance.
From our own experience, regulatory scrutiny over REACH or TSCA relevance means traceability and source documentation now carry just as much weight as price or technical suitability. Logistics staff and compliance teams coordinate with production to avoid issues where ambiguous statements or incomplete traceability could delay cross-border shipments or slow down a customer qualification. What once seemed like mere formality—proper SDS, batch records, origin documentation—actually helps end-users pass strict audits. By driving improvements at home, we remove hidden friction points throughout the value chain, letting partners focus on finished goods.
Supply isn’t just an issue of factory throughput or stock on hand. Climate, global freight, and port capacity all play a direct role in getting Isoamyl Nitrile from our facility to a customer’s door on time. Over years of hands-on practice, we’ve invested in improved packaging materials, switched to stackable drum sizes, and pre-positioned backup inventory at key regional hubs. One memorable instance came during a heatwave, when several drums for a pharmaceutical producer were held up at a customs checkpoint. Because we had an in-country buffer, they stayed on schedule, avoiding expensive production downtime or scrapped material.
Post-delivery, working closely with user teams builds trust on both sides. We frequently support partners with technical troubleshooting, answering application questions around scaling reactions or adjusting purification based on instrument feedback. Questions related to odor, viscosity, or unexpected shifts in color do come up. Instead of scripted call center answers, our chemists get involved, sharing their day-to-day experience from the shop floor and development lab. These relationships create quicker solutions, and both sides learn in the process.
Market conditions for Isoamyl Nitrile are more complex than in the past. Changing raw material prices, shifting regulatory frameworks, and evolving standards for trace contaminants challenge every player in the field. Over the last decade, our answer has rested on adaptability and an open line between our lab, production, and buying teams. Adjusting purification strategies, qualifying new solvent vendors, or fine-tuning process control systems lets us respond to changing customer demands quickly.
Some in the industry still push lowest-price models at the expense of technical support or safety. This approach often leads to inconsistent results for end users and weakens the trust that is foundational in specialty chemicals. We prefer long-term stability, which comes from continuous investment in safety, process control, and technical training—a perspective that draws on decades of direct experience. Each successful project completed by our partners is viewed as a marker of our own reliability.
In the coming years, innovation won’t just involve chemical synthesis routes, but will stretch to include supply chain digitization and collaborative problem-solving. We’re already piloting inventory tracking and predictive ordering, helping partners hit production targets without overstocking. Industry 4.0 and digital transformation will surely drive cost and transparency benefits for customers, and our experience-backed approach places us in a strong position to deliver these benefits directly.
Supplying Isoamyl Nitrile at scale takes more than raw logistical muscle—it rests on a backbone of technical expertise and direct communication with the people using the product every day. Our role as an integrated manufacturer brings responsibility to solve issues before they reach the user, ensure every batch matches claimed specs, and take pride in helping chemists, engineers, and researchers deliver better outcomes. Each improvement, whether in process chemistry, packaging, or documentation, stems from deep engagement with partners’ real-world challenges.
From the earliest days working with glass distillation columns to the present focus on traceability and sustainable production, our perspective remains simple—every drum of Isoamyl Nitrile is more than a commodity. It represents the trust built on consistent delivery, technical support, and an honest commitment to continuous progress.