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HS Code |
613867 |
| Chemical Name | 2-(4-Fluorobenzylamino)ethanol |
| Molecular Formula | C9H12FNO |
| Molecular Weight | 169.20 g/mol |
| Cas Number | 3886-70-2 |
| Appearance | Colorless to pale yellow liquid |
| Boiling Point | 160-162°C at 13 mmHg |
| Density | 1.13 g/cm³ |
| Solubility | Soluble in water and organic solvents |
| Purity | Typically ≥98% |
As an accredited 2-(4-Fluorobenzylamino)Ethanol factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle containing 100 grams of 2-(4-Fluorobenzylamino)ethanol, sealed with a screw cap and labeled with safety information. |
| Shipping | **Shipping Description:** 2-(4-Fluorobenzylamino)ethanol should be shipped in tightly sealed containers, protected from moisture and heat. Package according to local and international chemical transport regulations. Clearly label with the chemical name, concentration, and hazard information. Ensure compatibility of packing materials and include safety data sheets. Handle with standard safety precautions during transport. |
| Storage | 2-(4-Fluorobenzylamino)ethanol should be stored in a tightly sealed container, away from moisture and incompatible substances such as strong oxidizers. Keep it in a cool, dry, and well-ventilated area, away from direct sunlight and heat sources. Ensure clear labeling, and restrict access to trained personnel. Store at recommended temperatures, typically at room temperature or as specified by the manufacturer. |
Applications of 2-(4-Fluorobenzylamino)Ethanol in Industrial Manufacturing2-(4-Fluorobenzylamino)Ethanol serves as a vital intermediate in several key industrial sectors. As a primary manufacturer of this specialty amine, we support international partners in pharmaceutical precursor synthesis, fine chemical production, custom API manufacturing, advanced material research, and electronic chemical processing. Each application presents unique formulation, compliance, and downstream integration requirements. 1. Pharmaceutical Intermediate for CNS Active CompoundsPharmaceutical manufacturers use this chemical as a structural intermediate in synthesizing central nervous system (CNS) active drugs, including investigational and approved compounds. Its fluorinated benzyl group enables specific receptor binding properties, while the ethanol functionality allows coupling in multi-step synthesis. Production requires careful control of trace metal content, residual solvents, and enantiomeric purity to meet international pharmacopeial specifications. Integrators implement GMP-compliant batch synthesis, monitoring for process impurities at each stage before final API purification. Industry compliance standards
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2. Agrochemical Synthesis Building BlockAgrochemical formulators utilize this specialty amine in the synthesis pathway of certain herbicide and fungicide actives, where the para-fluorobenzyl group is key to biological interaction. It enters the process as a selective nucleophile or condensation partner, offering improved control over isomer formation relative to non-fluorinated analogs. Plant QC monitors starting material traceability and batch-to-batch reactivity patterns throughout the multi-stage process under stewardship of CropLife and national agrochemical legislation requirements. Industry compliance standards
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3. Fine Chemical Intermediate for Custom SynthesisCustom synthesis companies employ this compound in both contract and catalog projects as an adaptable building block for fluoroaromatic derivatives and beta-amino alcohols. The chemical’s dual functionality provides flexible routes for further modification, such as etherification, esterification, or oxidation reactions. End users request this specialty amine under parameters specified by ISO quality management systems, and analytical support includes in-process GC-MS and NMR verification. Industry compliance standards
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4. Intermediate for Electronic Chemical ManufacturingIn the electronics sector, specialty chemical manufacturers use this compound when preparing high-purity intermediates for photoresist agents and dielectric materials. Its controlled fluorine incorporation supports the adjustment of polarity and thermal stability in downstream products. Electronic-grade production runs demand extremely low levels of metallic and ionic impurities, requiring validated procedures aligned with semiconductor industry guidelines and real-time batch analytics. Industry compliance standards
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5. Research Chemical Reagent in Medicinal Chemistry ProgramsMedicinal chemistry teams at pharmaceutical and biotech organizations routinely select this compound for small-molecule screening libraries and lead optimization campaigns. The 4-fluorobenzyl motif allows investigators to explore steric and electronic changes in SAR studies. Laboratories demand detailed batch analytical support, secure chain-of-custody, and flexibility in supplied volumes, subject to chemical regulatory controls and institutional health and safety policies. Industry compliance standards
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We produce 2-(4-Fluorobenzylamino)ethanol using reliable synthetic routes developed over years of in-house research. The product’s molecular formula is C9H12FNO, and it stands out for its combination of a primary ethanol group with a 4-fluorobenzylamino moiety. Since putting this compound into regular production, we’ve focused on consistency, color, and purity at every stage of the process. With an unambiguous traceability system, our batches average over 99% purity by HPLC, meeting the most rigorous analytical and synthetic requirements. After re-crystallization, the product is typically a white crystalline solid and dissolves well in ethanol, methanol, and DMSO. Every lot is analyzed against a strict COA; deviations aren’t tolerated.
Sourcing reliable precursors has always been a challenge in fine chemicals, and we’ve seen batch failures in the industry due to poorly controlled benzyl sources. Our operations managers always run validation syntheses for incoming lots of 4-fluorobenzylamine. This process helps us catch impurities that could travel into the final product, including difficult-to-remove ring-substituted anilines and chiral byproducts. Our reactor systems allow precise temperature control, keeping reaction profiles steady from small-scale to hundreds of kilograms. We believe the difference between a fine product and a spotty one comes down to stable conditions, clean glassware, and patience during purification—not easy shortcuts or last-minute corrections.
Handling fluorinated aromatics in scale-up can challenge many operations, especially with the volatility and toxicity concerns in poorly ventilated shops. We use local exhaust at all charge and discharge points, and train every shift in PPE use—not just the supervisors. For years we saw other operators skip routine air sampling, but following a system that prioritizes collective safety keeps our shop running smoothly, and it reduces downtime due to surprise audit findings.
Practicing scientists and engineers contact us directly for their needs because buying from the source avoids surprises in quality, reliability, and technical support. Over the past several years, pharma startups, agrochemical platforms, and academic labs all have chosen synthesized 2-(4-Fluorobenzylamino)ethanol for intermediate stages in modular molecule production. The compound’s nucleophilic ethanol unit allows coupling to activated acids, while the aromatic amine structure tolerates many functionalizations.
In practical experience over dozens of multi-gram runs, our compound outperforms imported lots that have passed through untraceable supply chains. Customers have shown us chromatography data pointing to an improved baseline, reduced high-boiling residue, and easier downstream isolation. We’ve directly observed how compromised purity hinders downstream derivatization, leading to product losses and waste solvent. Rather than rely on broad guarantees, chemists appreciate knowing the handling history and batch test results for each drum or bottle.
On occasion, some users source a cheaper variant from third-party resellers. These materials sometimes show yellow discoloration or minor off-odors, both signs that byproducts linger despite technical purifications advertised on paper. Once, a customer’s analytical team identified a contaminant that had slipped through a trader’s supply chain, only discovered after a costly reactor clog on scale-up. We responded by running side-by-side GC-MS and offering a transparent review of our internal release criteria, helping the user trace trouble upstream and save future campaign time. As a manufacturer, we have the ability and responsibility to support these investigations instead of sending canned statements from a distant office.
Over many years of working directly with production and R&D chemists, it’s become clear that details matter far beyond a product’s basic identity. Comparing 2-(4-Fluorobenzylamino)ethanol from different sources, one can immediately notice variations in melting point and water content. We have routinely evaluated imported samples that carry nearly double the moisture content and reveal higher levels of residual solvents by NMR—likely due to insufficient vacuum processing or hasty solvent swaps.
The filtration step after condensation dictates if particulates and crystalline fines show up in the final product. Badly executed filtration leaves abrasives that eat away at glassware and cause grittiness in end-use applications. We optimize filtration media and particle size cut-off for every run, and we log filter weights to track variability. Each technical operator gets trained to spot changes in physical appearance and aroma profile, and every deviation is discussed in morning meetings. These practical habits, built into standard procedures, ensure what leaves our facility is the cleanest product possible.
Differentiation doesn’t stop at the molecule. Our direct shipping program minimizes transit time between the reactor and your lab. We pack all shipment vials under dried argon and store spares in a humidity-controlled warehouse. For kilogram-scale orders, bonded secondary containers and temperature loggers are included by default. Chemists developing scale-up routes value this preparedness, especially when time isn’t on their side.
Operating as a primary manufacturer gives us a close-up view of where regulatory and commercial pain points emerge. Many international customers expect a clear regulatory status and full documentation for REACH, TSCA, and other chemical inventories. Navigating this space involves more than form-filling: it takes timely coordination between registration specialists, production engineers, and logistics. Legitimate concerns come up regarding dual-use regulations, export controls, and waste management audits. By engaging our compliance team right from order initiation, our buyers avoid shipping delays, failed customs checks, or surprise fees.
Many companies try to push products into markets before adequately checking hazardous property declarations for local registration. The result? Absurd delays that frustrate end-users, who are kept waiting while paperwork churns in a bureaucratic loop. By maintaining production records, MSDS files, and analytical data for every lot, we facilitate faster responses to regulatory and customs inquiries. There is no substitute for clear records and cooperative communication between business, production, and regulatory affairs. Experience shows that even minor oversights can result in lost months and financial penalties, so we integrate the documentation process with batch release, not as an afterthought.
The rise of new synthetic routes, especially in medicinal chemistry and agrochemical development, drives increased demand for specialty amines like 2-(4-Fluorobenzylamino)ethanol. Our technical support team fields daily questions from researchers about solubility profiles, compatibility in custom syntheses, and possible side reactions with specific coupling partners. With access to our own production data, we can provide answers based on actual batch runs, not theoretical values or stock data sheets. For example, researchers have asked about possible side reactions with acid chlorides. In repeated pilot runs, we log reaction yields, note any issues with byproduct formation, and share those insights with users. These empirical reports help chemists minimize guesswork and wasted time.
Industrial users have also inquired about scale-up challenges, such as managing exotherms during large-scale reactions or dealing with waste gas management during work-up. We’ve invested in process automation and local containment to mitigate these risks, which has the side benefit of making our materials more consistent and predictable for end users. Availability of reproducible process parameters means customers can streamline their own risk assessments.
Chemical manufacturing involves responsibilities that go beyond just cost and throughput. For every kilogram of 2-(4-Fluorobenzylamino)ethanol we produce, we track solvent use, water consumption, and generation of byproducts. We have adopted closed-loop solvent recovery for most of our steps, reducing overall environmental load and making our processes cleaner through every campaign. Regular audits help us spot trends in emissions and process waste. In one quarter, concerted changes in fractional distillation alone reduced our annual hexane consumption by 20%, reflecting on both emissions and bottom-line savings.
Each manufacturing decision—from feed selection to packing material—affects not only our plant’s daily operation but the environmental footprint of the entire supply chain. We maintain open dialogue with customers on waste handling, residue disposal, and solvent recovery. Customers developing greener processes have access to our raw material profiles and recommendations, including less hazardous alternatives for extraction or work-up. As industry trends continue to shift toward sustainability frameworks and regulatory scrutiny gets tighter, handling chemical intermediates responsibly becomes not just an ideal but a baseline expectation.
Producing specialty intermediates brings daily challenges—unexpected test deviations, supplier hiccups, and unforeseen customer requirements. Over years of handling the same backbone molecules—including various benzylaminoethanols—we’ve built up a database of side reactions, purification tricks, and stability trends. This accumulated data gives our technical teams an edge in predicting and responding to customer needs. Fresh eyes reviewing a new process can tap into years of logged results, seeing the hidden dangers in what seems like a routine transformation.
Our customers rightly expect both documentation and adaptability. When an order is delayed or a technical parameter raises concern, the fastest path to resolution is a direct phone call or email to our production lead. That way, practical changes, additional cleaning runs, or extra analytical checks can start right away—not weeks later after frustration has built. Chemical manufacturing isn’t just science on paper; it’s teamwork day-in and day-out, integrating engineering, analytical chemistry, and logistics.
We run regular tracer studies on our 2-(4-Fluorobenzylamino)ethanol, tracking material balance and possible cross-contamination throughout the process. Raw data is shared with customers who request it, supporting transparency not just in a marketing sense, but in real operational terms. Service labs that choose to work with our product consistently report clean peak shapes and reliable quantitation on GC and LC platforms. That kind of feedback is only earned over the long term, batch after batch, through careful attention to detail and pride in the work.
In all aspects of producing 2-(4-Fluorobenzylamino)ethanol, our team takes pride in acting as more than a supplier—as a manufacturing partner who understands the technical, regulatory, and practical realities our customers face. From standard drum orders to custom small-scale requests, we support requests with time-tested expertise, offering not just a compound, but integrated technical support, clear logistics, and honest communication.
Researchers and manufacturers working with us have access to our internal knowledge base. In urgent situations, our technical leads work alongside customer chemists to troubleshoot unexpected synthetic challenges or analytical questions. The combination of facility-level process control, a culture of quality, and open exchange keeps us aligned with scientists’ real-world needs and the shifting regulatory environment.
For every kilogram shipped, every drum or bottle packed, we stay focused on safety, purity, and partnership. Our experience shows that by building reliable relationships from the source, we earn trust and support discovery, innovation, and production at every step. Working directly with a chemical manufacturer provides a foundation not just for business, but for the advancement of science and technology built on chemical reliability and shared knowledge.