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HS Code |
499073 |
| Chemicalname | 3-Nonene |
| Molecularformula | C9H18 |
| Molecularweight | 126.24 g/mol |
| Casnumber | 123-71-9 |
| Appearance | Colorless liquid |
| Boilingpoint | 146-147 °C |
| Meltingpoint | -81.6 °C |
| Density | 0.74 g/cm³ at 20 °C |
| Refractiveindex | 1.415 (20 °C) |
| Flashpoint | 29 °C (closed cup) |
| Iupacname | non-3-ene |
| Solubilityinwater | Insoluble |
As an accredited 3-Nonene factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 3-Nonene is packaged in a 500 mL amber glass bottle with a secure cap, labeled with hazard warnings and product details. |
| Shipping | 3-Nonene should be shipped in tightly sealed containers, stored in a cool, well-ventilated area away from sources of ignition. It is typically transported as a liquid under ambient conditions. Ensure compatibility with other chemicals and comply with relevant transportation regulations for flammable liquids. Proper labeling and documentation are required during shipping. |
| Storage | 3-Nonene should be stored in a cool, dry, and well-ventilated area away from sources of heat, sparks, and open flames. Keep the container tightly closed and protected from sunlight. Store separately from oxidizing agents, acids, and bases. Use containers made of compatible materials such as stainless steel or glass. Ensure proper labeling and access to spill containment materials. |
Applications of 3-Nonene in Industrial Manufacturing3-Nonene serves as a strategic intermediate in several chemical manufacturing segments, driving synthesis pathways for value-added products across industrial, agricultural, and specialty chemical sectors. As a primary manufacturer, we support downstream operations with strict quality consistency, process support, and compliance expertise to maximize the yield and performance of target applications. 1. Alkylation Agent in Nonylphenol Production3-Nonene enables the alkylation step for the manufacture of nonylphenols, a key building block in surfactant synthesis. Operators integrate 3-Nonene with phenol under Friedel-Crafts alkylation, catalyzed by strong acids in conventional batch or continuous reactors. Precise ratio control and high-purity feedstock support consistent product quality essential for further downstream ethoxylation. The process requires attention to by-product minimization, ensuring high conversion rates while maintaining compliance with environmental regulations regarding aromatic intermediates. Industry compliance standards
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2. Intermediate for Lubricant Oil Additives (Alkylated Aromatics)Lubricant manufacturers employ 3-Nonene in the alkylation of benzene, forming nonylbenzene derivatives that serve as intermediates for detergent and dispersant additives. The process relies on efficient conversion within pressurized stirred reactors, maximizing alkylaryl product chain length and controlling dimer/trimer content. Finished additives must satisfy strict automotive and industrial lubricant standards, which regulate impurity levels, pour point, and oxidation stability. Accurate dosage scaling accommodates both detergent capacity requirements and base oil compatibility. Industry compliance standards
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3. Synthesis of Quaternary Ammonium Compounds for Biocide FormulationsThe C9-alkyl structure of 3-Nonene supports quaternization reactions with tertiary amines, forming nonyl-based quats. These ingredients are core to industrial biocide, antistatic, and textile softener applications. Processing involves controlled alkylation and purification to minimize residual hydrocarbon impurities and promote consistent antimicrobial performance. Downstream producers require reliable, tracked feedstock sources to align with biocide registration and safety data obligations in regulated markets. Industry compliance standards
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4. Precursor for Alkylated Diphenylamine Antioxidants3-Nonene participates in the synthesis of nonylated diphenylamines, which function as key antioxidants for lubricants, polymers, and fuels. Industrial plants blend and react the raw material with diphenylamine under temperature-controlled alkylation, optimizing process parameters for mono- or di-alkyl substitutions. Post-reaction, products undergo solvent extraction and purification stages to suit downstream customer specifications relating to thermal and oxidative stability requirements. Industry compliance standards
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5. Raw Material for Nonionic Surfactant ProductionEthoxylation plants source 3-Nonene-based alkyl intermediates to synthesize high-performance nonionic surfactants. Operators conduct alkoxylation under monitored temperature and pressure, targeting a narrow molecular weight distribution and balancing hydrophilic-lipophilic properties. End-product uses span industrial detergents, textile processing, and agricultural adjuvants, with product assurance rooted in traceable raw material sourcing and compliance with surfactant-specific safety regulations. Industry compliance standards
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For over a decade, we have been refining the process of producing high-purity 3-Nonene in our own plants, learning the character and challenges of the compound first-hand. We use a well-controlled alkene oligomerization process to ensure each batch meets industry needs, where consistency is everything. Unlike distributors or trading companies that often focus on volume and logistics, our daily work revolves around process engineering, reaction controls, and constant monitoring of product quality. Our close management of raw materials, reactor parameters, and distillation separation means we can trace the story of every drum – from the first drop of feedstock to the last liter loaded onto the truck.
3-Nonene belongs to the family of branched chain alkenes, composed of nine carbon atoms with a double bond at the third position. In the chemical manufacturing sector, C9 alkenes attract attention, but the different isomers — 1-Nonene, 2-Nonene, 3-Nonene — have their own traits and performance profiles. We focus on 3-Nonene primarily because its structure delivers both reactivity and favorable handling. Its boiling point, moderate and predictable, pairs with a manageable vapor pressure, making it efficient to distill and store. Accurate fractionation under vacuum yields a product that avoids excess lighter or heavier fractions, which can otherwise complicate downstream synthesis.
We see a demand for reliable isomer content, minimal byproducts, and a tailored profile — attributes impossible to guarantee through mere trading or mixing purchased material from unrelated sources. In our production lines, we drive isomer selectivity through catalyst selection and reactor conditions, aiming for a consistent output that synthetic chemists and downstream manufacturers can trust batch after batch.
3-Nonene stands out in the surfactant and plasticizer sectors. Its main application revolves around acting as an essential intermediate to synthesize nonylphenol, which in turn is a key precursor for non-ionic surfactants found in countless industrial and household cleaners. Having worked directly with surfactant and additive producers, we know how the quality of 3-Nonene flows downstream, affecting their production efficiency and even compliance with international regulatory standards.
In lubricant and specialty coating sectors, 3-Nonene helps in preparing additives that modify pour-point, oxidation stability, and flow properties. Over the years, several of our manufacturing partners reported smoother blending in their reactors, cleaner reaction profiles, and improved final product characteristics when using our 3-Nonene compared to mixed C9 streams. One of the key differences lies in side reactions. Lower-quality or isomeric mixtures tend to cause more byproducts or demand extra purification steps, driving up costs. Our in-house analytical team monitors not just gross purity, but also tracks trace impurities down into the low ppm range. Experience taught us early that residues or unwanted isomers amplify issues in both batch and continuous processing — even tiny differences can affect color stability and odor.
From our side of the reactor wall, technical specifications mean more than numbers on a sheet. We keep our 3-Nonene within a purity range of at least 97% by gas chromatography, with water content under 200 ppm. Why so tight? Surfactant makers and resin producers have shared stories about headaches caused by extra water or low-level sulfur, sometimes traced to slack practices upstream. We never shortcut drying, degassing, or column cleaning — a practice that improved our customer retention over the years. Our own process chemists rely on spectroscopic confirmation of double-bond position, ensuring we minimize other C9 olefins that can spoil further steps.
Separate from isomeric purity and moisture, we pay attention to color, storage stability, and total acid number. Fewer acidic byproducts mean less corrosion risk — an issue that once caused a maintenance shutdown at a customer’s facility, prompting us to review our final stage to pull even more acidic traces before packaging.
Plenty of buyers ask about using “mixed nonenes” or cutting with other C9/1-Nonene streams, usually to save on cost. But from the point of view of reaction predictability and downstream quality, mixed or technical grade olefins carry their own risks. Manufacturing-experienced chemists know that 1-Nonene, for example, tends toward polymerization or side reactions under ion-exchange catalysis, often requiring heavier stabilizer loads. 2-Nonene can introduce unsought side chains in alkylation steps. 3-Nonene’s internal double bond yields a more predictable, cleaner addition profile in the production of nonylphenol — and that is the main reason we get repeat requests for this specific cut, not just any C9 olefin.
On the production floor, tighter separation and isomer control translates directly into higher batch yields and fewer cleanouts. One major resins customer cut agitator fouling by a third simply by switching from a broad C9 mix to our high-purity 3-Nonene, reducing their unplanned downtime by several hours each month. Not all results come from the lab — some are learned from years of hands-on troubleshooting and customer feedback.
Managing bulk chemicals brings plenty of practical pressures. 3-Nonene requires protection from heat and oxygen, or discoloration and polymerization can occur over weeks to months. Our own site endured one learning moment early on when a valve allowed a small amount of moist air into storage, resulting in color drift and specification failure in just a few days. Since then, we implemented nitrogen blanketing in every tank, plus dedicated lines for nonene-only service. This sort of direct improvement is only possible with full manufacturing ownership, where every issue leads to root-cause review and stricter controls, rather than finger-pointing up or down a fragmented supply chain.
Our staff is trained to sample under inert conditions, test regularly for peroxide buildup, and rotate stock with a “first-drummed, first-dispatched” approach. Drumming and ISO tank cleaning protocols went through several upgrades over the years after feedback from logistics operators. We replaced gaskets with materials resistant to C9 olefin permeation, based on actual compatibility checks rather than generic vendor specs. These details matter because small oversights, even at the container stage, can spoil an entire lot before it reaches its destination.
Large buyers and regulatory auditors increasingly ask for batch-level traceability, not just a certificate of analysis stamped at loading. Since we handle our own batch logs, raw material receipts, in-process data, and shipment tracking, we’ve developed an integrated documentation system accessible to authorized partners. Each lot of 3-Nonene comes with full COA, GC chromatograms, and records that prove origin, processing conditions, and analytical assurances. This depth gives buyers both peace of mind and proof of compliance during audits. Without this documentation — and the manufacturing controls behind it — downstream users risk rejected lots and legal issues as regulations grow ever stricter.
Years ago, a customer in the EU faced issues at customs over untraceable sulfur levels. Our production logs showed exactly where the 3-Nonene came from, how impurities were reduced, and how residues stayed within range. That experience pushed us to maintain even more rigorous records, anticipating potential questions from customers, regulators, or third-party certifiers.
Responsible chemical manufacturing looks beyond immediate output to broader impacts. 3-Nonene production, like all hydrocarbon-based chemicals, draws scrutiny on sustainability. Our process engineers have grappled with optimizing energy use in distillation and minimizing fugitive emissions. Installing vapor recovery on our columns captured significant hydrocarbon losses that older designs released to flare or atmosphere — a change made in response to rising VOC regulations but also a reflection of our goal to run cleaner.
Waste minimization is another real challenge. The heavy bottoms left after distilling 3-Nonene can’t be sold as-is, yet sending it off-site represents lost value and added waste costs. We explored in-plant reuse and even pilot-grade chemical recycling, converting byproducts into process fuel. Savings in energy and lower disposal volumes both matter against the environmental audits that now accompany most customer partnerships. Still, there’s always more to do: recent R&D focuses on better catalysts to push selectivity higher, reducing waste at the source.
Chemical manufacturers today carry a responsibility to support safe use, both inside our plant gates and down the supply chain. We work directly with industrial users to clarify the best methods for safe handling, whether through joint workshops or just straight talk on hazard communications. PPE, ventilation, and emergency protocols come from our lived experience — we draw on years of running pumps and tanks, not just from reading guidelines. Even minor changes in specification can affect handling hazards; higher purity 3-Nonene, for example, has a faster vapor release rate and needs better vapor recovery protocols compared to “technical” or low-purity grades.
We maintain up-to-date safety datasheets, not just to check a box, but because questions arise at all hours from production floors and maintenance crews. Once, a small leak near a drum loading bay led to an overexposure incident avoided only because our team had rapid response training in place. Since then, we have collaborated with several of our downstream users to adapt these real-world learnings into their own procedures, reducing risk further down the chain. We know that an incident anywhere reflects back on every step up the supply line, so our ownership of manufacture puts us on the front line of prevention.
Most of our process improvements came through listening to customer problems in real time. Early batches had slightly greater color or trace aldehyde content — issues we wouldn’t have caught by standard tests alone. It took operator vigilance and trusted feedback from our regular buyers to fine-tune fractionation profiles, upgrade analyzers, and invest in better drying systems. Over the years, several partners have invited us into their plants to observe reactions first-hand, seeing exactly how our 3-Nonene performs in their equipment. This digest of field data fed directly back into refining our own production controls.
Product optimization isn’t just about removing unwanted contaminants, either. For certain applications, customers sought a slightly different isomeric ratio to improve their specific downstream conversion yields. Flexibility in catalyst scheduling and process adjustment let us run custom lots alongside our regular supply, supporting innovation up and down the value chain. With control and insight into every step, from raw material tankers to reactor adjustment, only a manufacturer can deliver this level of partnership — something hard for importers or jobbers to match.
3-Nonene’s consistent quality comes from people as well as equipment. Our operators, lab techs, maintenance specialists, and shift supervisors all bring practical experience and pride to the job. Coming to work means solving fresh problems — a heat exchanger fouls, a minor process drift, new supply pressures disrupting routine. Their eye for detail keeps specifications tight, and their ideas for ongoing improvement keep us evolving. Several of our in-house chemists began as plant technicians, moving up through hands-on work before transferring to process R&D and technical service. This legacy of experience translates to fewer mistakes and better communication — both inside the plant and with our customers.
Lab teams calibrate every analytical instrument twice daily. In case of deviation, we don’t wait for a monthly review; we huddle that same shift, verify the root issue, and fix process controls directly. We see every batch not as a number, but as the direct output of our team’s effort and accountability. Day-to-day vigilance, experience-based troubleshooting, and a commitment to open feedback keeps our 3-Nonene responsive to the real-world challenges customers face.
Supplying a complex molecule like 3-Nonene brings obstacles. Variations in feedstock mean constant vigilance at intake. Even high-purity refinery streams can shift in olefin content, so every new tanker gets GC analysis on arrival before blending. Unexpected impurities can spike — we’ve shut down a feed line midway through a run more than once for offspec material. Then comes the matter of fouling: in summer months, the higher ambient temperatures can push specific volatiles to co-distill, demanding tweaks to column pressure and reflux rates. These are not problems solved by phone calls or generic troubleshooting documents — only years of hands-on running, purging, and fine-tuning produces the know-how to maintain on-spec product even as input variables shift.
Beyond our own gates, transport and storage add stress points. We’ve had to redesign loading lines, and work directly with transporters willing to up their training in C9 alkene hazards. Customers now ask for GPS tracked shipments and temperature loggers in transit; we meet these requests through partnerships with trusted carriers and by equipping our own logistics team for detailed pre-trip checks and post-delivery audits. If a tank arrives warm or discolored, we check every control point from our site to their facility. This is how feedback loops drive action in real time, not just through after-the-fact assessments.
Compliance demands in chemical supply keep tightening. Nonylphenol derivatives, made from 3-Nonene, face mounting regulatory scrutiny — especially on toxicity and persistence in the environment. As a manufacturer, we keep ahead by tracking rule changes and revising internal controls proactively, not simply reacting. We invest in R&D on alternatives and safer derivatives, as customers often request support in reformulating products or demonstrating compliance for new markets. Our role extends beyond manufacture — we act as technical advisors, providing historical data and predictive guidance where needed. This becomes possible only with full traceability and detailed knowledge of process input and output, impossible for third parties disconnected from physical production.
Within the plant, our staff maintains ongoing training around new emission controls, hazardous waste practices, and product labeling to avoid confusion or misclassification. Our in-house environmental and safety teams regularly collaborate with industry groups and regulatory agencies, sharing what we learn both from compliance successes and from the moments where plans didn’t work as expected. This culture of transparency and participation means we can answer detailed compliance questions quickly, without waiting in line for approvals or guidance from outside vendors or legal departments.
Chemical manufacturing never stands still. Every improvement to 3-Nonene purity, handling safety, or delivery speed comes from a mix of close teamwork, technical depth, and hands-on engagement with the real world of chemical process problems. We balance daily operational reliability with an ongoing search for better catalysts, smarter energy use, and ways to reduce both direct emissions and indirect environmental impact. Customer needs do not stay constant, so neither can production — our process teams actively test ideas from suppliers and internal “what-if” sessions, and pilot changes before scaling up.
Most importantly, we treat every feedback email, call, or shipment issue as a chance to get better — not only for our own record, but to support the industries that rely on 3-Nonene for their own products. Whether it’s a recurring audit question, a new purity requirement, or a logistics challenge, we act not as distant suppliers but as partners committed to shared long-term success. Our perspective as a direct manufacturer keeps us grounded, focused on the details, and always ready to improve the next run of 3-Nonene loaded for delivery.