|
HS Code |
601513 |
| CAS_Number | 150-84-5 |
| Molecular_Formula | C10H23N |
| Molecular_Weight | 157.30 g/mol |
| IUPAC_Name | 3,7-dimethyloct-6-en-1-amine |
| Appearance | Colorless to pale yellow liquid |
| Odor | Mild, characteristic amine odor |
| Boiling_Point | 210-212°C |
| Density | 0.82 g/cm3 at 20°C |
| Solubility_in_Water | Slightly soluble |
| Refractive_Index | 1.447-1.450 at 20°C |
As an accredited Citronellyl Amine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 500g Citronellyl Amine is securely packaged in a sealed amber glass bottle, labeled for laboratory use, with safety information. |
| Shipping | Citronellyl Amine should be shipped in tightly sealed containers, protected from heat, moisture, and direct sunlight. Ensure proper labeling according to regulatory guidelines. Transport should comply with local, national, and international regulations for chemicals, avoiding incompatible substances. Handle with appropriate safety equipment and provide a Safety Data Sheet (SDS) during transport. |
| Storage | Citronellyl Amine should be stored in a cool, dry, and well-ventilated area, away from heat sources, open flames, and incompatible substances such as strong acids and oxidizing agents. Keep it in tightly sealed containers made of compatible material. Properly label the storage container, and avoid exposure to moisture, direct sunlight, and extreme temperatures to maintain product stability. |
Applications of Citronellyl Amine in Industrial ManufacturingAs a direct manufacturer of Citronellyl Amine, we focus on delivering this specialty amine to established downstream sectors, ensuring tailored support for industrial formulation and process integration. Citronellyl Amine is primarily recognized for its role as a fragrance intermediate, specialty surfactant precursor, fine chemical building block, and performance additive. The following application scenarios are based on real-world manufacturing usage and industrial practice. 1. Fragrance and Aroma Compounds SynthesisChemical companies utilize Citronellyl Amine as a key intermediate in the synthesis of high-value aroma compounds, mainly for perfumery and personal care industries. Its chemical structure enables targeted modification during downstream synthesis, serving as a precursor for musk and citrus-inspired fragrance bases, and as a structural component in azacycles and lactones that create lasting top notes. Industrial producers apply this intermediate during fine chemical reactions like reductive amination and condensation, adhering closely to IFRA and purity specifications driven by consumer safety and regulatory needs. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Quaternary Ammonium Surfactant ManufacturingCationic surfactant producers select Citronellyl Amine as a raw material in the synthesis of specialty quaternary ammonium salts for use in personal wash, fabric conditioning, and disinfectant formulations. Industrial-scale methylation or alkylation of the amine produces surfactants with low toxicity and signature mild citrus notes, designed for enhanced user appeal and cleaning performance. Manufacturing hinges on consistent quality, contaminant control, and strictly monitored process conditions to match global hygiene and safety standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Pharmaceutical Intermediate for API SynthesisPharmaceutical producers apply Citronellyl Amine as a building block in the synthesis of selected active pharmaceutical ingredients with amine-based pharmacophores. Its unique structure allows precise incorporation during key steps in the creation of small molecule drugs, especially those containing terpene-inspired side chains or requiring enhanced membrane transport. Critical process points include nucleophilic substitution and peptide coupling, where purity, traceability, and batch reproducibility are strictly documented to assure final API quality. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Industrial Corrosion Inhibitor Additive BlendingSpecialty inhibitor manufacturers incorporate Citronellyl Amine in the formulation of high-performance amine-based corrosion inhibitors, mainly for ferrous and non-ferrous system protection in oilfield, closed water circuits, and coolants. Its nitrogen structure enhances film-forming properties, reducing oxidation and surface degradation in harsh process environments. Accuracy in dosage and compatibility, along with compliance for downstream environmental release, are emphasized throughout the blending and QC process. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
5. Synthesis of Specialty Polyamide ResinsAdvanced materials manufacturers use Citronellyl Amine as a diamine component in the production of specialty polyamides and related copolymers for high-value industrial and consumer applications. The compound's structural influence delivers desirable flexibility, hydrophobicity, and chemical resistance, making it a valued choice in resin formulations for coatings and adhesive films. Controlled input and sequencing are crucial in polycondensation processes to achieve specified molecular weight and mechanical properties that align with downstream regulatory and application standards. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
6. Insect Repellent Additive for Consumer ProductsManufacturers of insect repellent formulations leverage Citronellyl Amine for its bioactive amine structure that provides specific olfactory masking and insect behavior interference, particularly in household and personal care settings. The additive must meet stringent purity and toxicological standards, with integration during pilot-scale emulsification or direct blending steps. Safety, environmental impact, and compatibility with other actives receive focused attention throughout compliance and process validation. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive Citronellyl Amine 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!
Citronellyl Amine stands out in our chemical product range not because of marketing spin, but from years of experience navigating what formulators, researchers, and industrial end-users actually demand. We blend and refine Citronellyl Amine here on site, sticking to methods tested through batch after batch. Our focus always lands on purity, careful handling, and traceability. The raw materials—drawn straight from carefully vetted sources—connect the dots between what the science books promise and what bulk customers expect once product reaches their dock door.
Most people eye Citronellyl Amine for its role in fine chemistry. The molecular formula, C10H21NH2, and CAS number 150-75-4, position it firmly among the aliphatic amines families. That tells part of the story. The real lessons come after the drums land in the storage bay: handling, shelf life, and reaction predictability. These shape how our workers package and certify each shipment. From a practical view, every customer wants to know: will this batch react the same in this year’s process run as last year? We spend time on pre-shipment QC testing, documenting each drum on our production line, to give the most consistent experience possible. Predictability underpins every task involving Citronellyl Amine.
In the early days, we saw Citronellyl Amine as a specialty item. Its initial demand grew out of fragrance, flavor, and specialty intermediate segments. Over a decade, the market expanded. Niche perfumery turned into requests from agrochem, textile, surfactant, and even polymer researchers. While it’s easy to rattle off textbook uses, practical conversations at plant meetings revolve around batch consistency and end-use suitability. Every process line or customer application triggers its own set of questions: what impurities matter? Which by-products show up based on reaction route? Where can accidental loss occur during storage or transfer?
Direct interaction with Citronella-based raw materials keeps us mindful of contaminant profiles. Citronellyl Amine bears the scent of its terpene roots, but that fragrance shouldn’t override its chemical identity. Chemical purity matters for its main uses: as a building block in surfactant synthesis, for modifying surface properties, and in the creation of specialty amides or cationic compounds. Fragrance houses, for instance, invest in single-digit ppm impurity control. Some surfactant makers tolerate a wider range but want guarantees on amine value and end-group quality. In short, these decisions drive how we maintain upstream controls on distillation, neutralization, and purification before a kilo ever leaves our tanks.
Most Citronellyl Amine on the market lands in clear, pale yellow liquid form with a faint, citrus-tinged odor. We supply both tech grade and high-purity types, tuning the analysis sheets to mirror what end-users prioritize: aminic content, water load, and minor by-products such as citronellol or citronellal carry-over. Our own batches typically hit amine values close to 95% and above, but the real test emerges in application outcomes. High-end fragrance applications care about trace impurities affecting bouquet or oxidation behavior. Industrial surfactants push for reproducible reactivity and robust shelf life. In practice, crystal-clear paperwork means less time spent troubleshooting downstream, so we invest in transparency on specs, batch-to-batch comparison, and handling support.
Storage and handling depend on recognizing amines’ tendency for air sensitivity and moisture pick-up. Drums get checked for tightness, lined for stability, and our warehouse staff maintain a strict inventory turnover. Unlike some larger volume commodity amines, Citronellyl Amine brings the challenges common to specialty intermediates—sensitive to trace acids, metals, or oxygen ingress. Seasoned operators learn that even slight material variation can change a week’s production outcome for a keen-nosed perfumer or a textile finisher running cationic treatments. Our advice always prioritizes practical tests: small scale blending, storing under inert conditions, and fast integration into next-step reactions to minimize standing time.
Our feedback loop with downstream users shapes how we support Citronellyl Amine’s application. Large-scale perfumery formulators blend it for special aroma base notes, building on the molecule’s unique citrus-rose scent profile. In contrast, agrochemical synthesis teams rely on strong reactivity with acids or halides, producing amine salts that act as key intermediates. Textile finishers favor Citronellyl Amine in making softeners and antistatic agents which work well with natural and blended fibers. Each industrial angle brings its own requests: varying on color standards, odor intensity, and solubility in certain solvents. Where a flavor company demands ultra-low base impurities, a surfactant blend producer asks for a manageable pour point and batch reproducibility.
Across these industries, one recurring point emerges—no two customers use Citronellyl Amine quite the same way. We consult with clients to understand process bottlenecks, tackling concerns around reactivity loss, fragrance stability, or blending compatibility. Sometimes, the spotlight falls on regulatory issues, like acceptable limits for residuals in end-use packaging or food-contact items. Sometimes it’s about maximizing value from by-products, finding secondary uses for off-spec drums, or setting up recovery processes. In each case, direct manufacturer feedback provides a practical map for both troubleshooting and process improvement.
Plenty of amines line warehouse shelves in chemical plants. Citronellyl Amine holds a unique spot compared with others like dodecylamine, octylamine, or common ethanolamines. From a synthetic point of view, its branched and unsaturated structure brings more than just a fragrance note; it confers reactivity and compatibility not found in linear or saturated counterparts. The essential oil-derived backbone means Citronellyl Amine introduces softer, less harsh odors than typical aliphatic or volatile amines, making it indispensable in fragrance-focused applications where chemical intensity needs tempering by nuance.
Meanwhile, octylamine or dodecylamine, while common in plastics and surfactant manufacturing, lack the delicate profile and oxidative reactivity Citronellyl Amine offers. Ethanolamines, with their strong hydrogen bonding capacity, serve as neutralizing agents and solubilizers but do not fit the scent or specialty modification requirements that Citronellyl Amine achieves. Our own process engineers often discuss these points during plant-wide technical meetings, matching chemical structure to functional need. Whenever a formulation challenge calls for a balance of scent, mildness, and specific reactivity, Citronellyl Amine comes forward as the logical answer.
Caring about differences means looking beyond paperwork. Citronellyl Amine stands apart in handling and downstream behavior. We see fewer incidents of unwanted yellowing or side reactions in perfumery than with primary amines of similar chain length. In textile runs, finishers say the cationic modification built from Citronellyl Amine brings softer hand and improved dye uptake over harder-chained analogs. These differences arise straight from daily production experience, not just chemical theory.
Every manufacturer grabs at lessons from the plant floor—Citronellyl Amine offers plenty. Spills, cross-contamination, or accidental overexposure to air create headaches that disrupt production targets and customer timelines. Amine odor, though relatively mild in this compound compared to others, still points to a nagging storage risk if drums are improperly sealed. That’s why we shifted our packaging to HDPE drums lined with special gasket seals. This upgrade, born out of lost material in hotter months, now shows real value in reduced complaints and more predictable shelf life.
Another point: moisture pick-up throws off downstream chemistry. Amine reactions in surfactant and intermediate synthesis show sharp yield drop-offs with even small water intrusion. The disciplined warehouse policy—choosing dry zones, restricting cross-opening, rotating stock—grew out of direct losses traced to poor handling a few years back. Our upgraded facility now integrates digital tracking, making sure oldest drums rotate forward and any mishaps get flagged before problems compound. These incremental process improvements keep both our team and our clients confident when opening delivered product for a new production run.
Customer requests for different concentrations—aqueous solutions, concentrated amine, or pre-mixed blends—challenge our process crew to flex production safely. Adjusting for these changes meant rethinking heat cycles, mixing protocols, and closed transfer systems, not simply diluting product. We owe much of this operational knowledge to real-time feedback; every returned drum or customer complaint explains what tweaks serve end-users better. Product managers and chemists alike revisit batch records and shipping histories with every improvement, embedding lessons into both QC checks and daily plant meetings.
Making Citronellyl Amine responsibly calls for more than just paperwork assurance. Raw materials trace back to essential oil extraction, and plant waste needs tight control to avoid environmental burden. Our plant’s waste stream management stems from ongoing audits and equipment investment. Continuous distillation recycling cuts solvent use, which not only brings down costs but keeps local wastewater compliance in check.
Handling spent drums and off-spec batches presents perennial issues. Instead of pushing these out as low-cost industrial waste, we designed an internal reclaim loop, sending these materials back through purification units. Experience shows that product salvage, paired with robust documentation, shrinks both total waste and customer liability risks. We keep regulators in the loop at every stage, choosing to disclose batch histories and encourage client feedback on waste minimization. This open stance makes end users more comfortable adopting Citronellyl Amine into greener chemistry initiatives, including biodegradable surfactants and renewable-based product lines.
Worker safety forms the backstop to any environmental step. Our team runs regular handling drills, integrates high-efficiency air scrubbers, and maintains exposed area monitoring. These measures don’t simply tick off compliance boxes—they remain rooted in plant incidents, near-misses, and feedback from our own operators. Practical gains matter here: a safer plant runs more efficiently and reduces off-quality costs. As more clients ask for sustainability disclosures, we broaden transparency, including energy use, water footprint, and trace impurity management in finished batch reports.
Building trust in a specialty chemical comes through traceability and documented safety. Regional standards for Citronellyl Amine usage have shifted in recent years—especially in fragrance and cosmetic fields, where regulatory tolerance for trace impurities or allergens influences end-use product registration. We track every raw input, set supplier purity bars, and document each batch from synthesis to warehousing. These efforts are more than box-ticking; they provide real recourse for clients fielding inspection or customer complaints over product identity.
Labeling accuracy and supply chain openness cropped up the hard way. One lot shipped with mislabeled concentration led to weeks of supplier-client back-and-forth; subsequent barcode system now lets clients backtrack products at the pallet and drum level. Feedback loops speed up corrective action and reassure clients facing stricter audits under REACH, TSCA, or other frameworks. Our approach—rooted in learning from pain points—now feeds into how we onboard every new customer and distribution partner. Traceability stands as much a business safeguard as a regulatory one.
While Citronellyl Amine grows in application scope, the practical questions remain the same: consistency, certainty in performance, and clear communication on product limitations and potential. Our R&D team, close to the production floor, focuses on refining process yields, cutting residual impurity levels, and extending stable shelf life. Collaborations with universities and technical institutes sparked pilot projects for renewable-source amine synthesis. Feedback trickling through these partnerships feeds back into how we teach, tweak, and ensure teams understand real-world risks and rewards of each process change.
Industry demand keeps evolving—cleaner processes, lower volatile organic compound limits, and greater transparency set a high bar. We test greener purification media, detail material origins, and join industry task forces shaping green chemistry best practice. Clients ask for everything from reduced odor amines to custom blends; staying nimble as a manufacturer means constant investment in learning, training, and plant modernization.
We value dialogue with end-users above almost everything else. Real problems—unexpected reactivity, batch-to-batch variation, supply interruptions—cut to the core of what matters for business. We keep product managers close to the customer interface, gathering feedback that becomes the heart of our product improvement plans. That openness keeps us on track, always pushing toward a better, more useful Citronellyl Amine for every application—whether crafting fine scents, driving innovative surfactants, or building greener specialty intermediates.
Across the factory, every day brings new decisions tied to Citronellyl Amine: process tweaks, maintenance planning, shipment scheduling, and customer support. We know each batch by more than certificate values; it’s discussed in meetings, walked through by operators, and reviewed by customer service after a call or complaint. The product’s reality comes alive through a complicated relationship with other plant activities. On rare occasions, a rushed batch or unplanned downtime pushes a shipment date—requiring candid talks with clients and hands-on troubleshooting.
Plant workers tell us the feel and look of a good batch—clear, low-color, and a consistent, mild aroma. Quality supervisors compare spectroscopic records, GC traces, and physical property logs from previous years. These checks become the “fingerprint” ensuring every drum aligns with the reliability clients have grown to expect. Lab teams scrutinize new by-product peaks or unusual impurity blips; each surprise spurs process changes, from better drying techniques to tighter column control.
Our facility, built on decades of investment, trusts in both legacy knowledge and next-generation control systems. We still give plant tours to clients willing to look beyond the product sample and see first-hand the work and care embedded in every batch. Their feedback reminded us that technical skill matters as much as training in customer service: a knowledgeable supplier who shares lessons, not just material, builds lasting value for every stakeholder.
From the first raw material weighed to the shipping clerk signing paperwork, Citronellyl Amine tells a story of constant adaptation. Our routines—QC, maintenance, client collaboration, and process overhaul—rely on hands-on experience, not just theory. The real artistry, and the real success, lands in matching the rigor of the manufacturer’s practice to the evolving needs of the industries we serve. We share both the challenges and improvements with our clients, knowing it commits them, and us, to higher standards and a future built on trust.