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HS Code |
857887 |
| Cas Number | 98169-07-2 |
| Molecular Formula | C10H13N |
| Molar Mass | 147.22 g/mol |
| Smiles | N[C@@H]1CCC2=CC=CC=C2C1 |
| Appearance | White to off-white solid |
| Melting Point | 73-75°C |
| Chirality | S-enantiomer |
| Synonyms | (S)-1,2,3,4-Tetrahydro-2-naphthylamine |
| Solubility | Soluble in water and organic solvents |
| Inchi Key | NJEFQRCIPHSCND-ZETCQYMHSA-N |
As an accredited (S)-2-Aminotetralin factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | (S)-2-Aminotetralin, 5 grams, is supplied in a sealed amber glass vial with tamper-evident cap and hazard labeling. |
| Shipping | (S)-2-Aminotetralin is shipped in securely sealed containers to ensure stability and prevent contamination. It is handled in accordance with standard regulations for hazardous chemicals, often shipped under ambient conditions unless otherwise specified. Proper labeling and documentation are included, and the shipment complies with relevant national and international transport guidelines. |
| Storage | (S)-2-Aminotetralin should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area. Keep it away from incompatible substances such as strong oxidizers and acids. Protect from direct sunlight and moisture. Store at room temperature, avoiding excessive heat. Clearly label the container, and ensure it is kept out of reach of unauthorized personnel and children. |
Applications of (S)-2-Aminotetralin in Industrial ManufacturingAs an experienced chemical raw material manufacturer, we supply (S)-2-Aminotetralin to multiple advanced industries with strict quality and regulatory requirements. Our production supports high-value downstream synthesis in specialty chemicals and pharmaceuticals, with specific attention to each manufacturing sector’s process control and compliance needs. Below are the main industrial applications and detail on formulation, integration, quality, and product outcomes for each. 1. Pharmaceutical Active Pharmaceutical Ingredient (API) SynthesisPharmaceutical companies use (S)-2-Aminotetralin as a chiral intermediate during synthesis of central nervous system drug actives, including several serotonin and dopamine modulator APIs. The optical purity and contaminant profile must meet regulated criteria, as this molecule directly influences the stereochemical outcome in multi-step active synthesis for neurological therapies. Our material integrates at early or mid-stage steps depending on target API structure, often after protective group introduction. Downstream customers consistently request technical packages supporting route development and process reproducibility. Industry compliance standards
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2. Custom Fine Chemical Synthesis for Analytical Reference MaterialsSpecialty chemical firms use this compound for preparing analytical standards and labeled analogs essential for quantitative drug testing, metabolic pathway studies, and pharmaceutical impurity profiling. The enantiomeric form, low impurity background, and isotopic labeling compatibility drive demand in reference material production lines. These applications require strict batch-to-batch reproducibility, trace contaminant analysis, and documentation for laboratory audits. Industry compliance standards
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3. Research Chemical Building Block for Academic and Industrial R&DAcademic laboratories and R&D divisions within pharmaceutical and fine chemical companies use (S)-2-Aminotetralin in synthesis of experimental ligands, receptor-binding probes, and structure-activity relationship (SAR) series for CNS drug research. Research demand emphasizes access to high-purity starting material with structure-confirming analytical support. Flexible batch quantities support iterative synthesis cycles and route screening. Industry compliance standards
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4. Intermediate for Specialty Polymer ModificationIndustrial polymer formulators utilize (S)-2-Aminotetralin as a functionalizing monomer or chain-end modifier when synthesizing specialty polyamides and advanced performance polymers. The amine reactivity and chiral structure support targeted property modification in electronic device encapsulants, membrane materials, and engineered thermoplastics. Quality requirements focus on residual monomer purity, low moisture, and lot uniformity for optimal polymerization control in downstream reactors. Industry compliance standards
Typical usage ratio
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Every batch of (S)-2-Aminotetralin that leaves our site draws from decades spent in chemical synthesis, scale-up, and process optimization. Producing this specific enantiomer takes more than standard organic chemistry. Reliable chiral resolution, consistent stereochemistry, and careful impurity profiling define the backbone of our process. Our chemists have refined each step through real feedback from researchers, pharmaceutical teams, and process development scientists.
The (S)-enantiomer of 2-aminotetralin remains a critical chiral building block, especially as synthetic routes shift toward design of more selective pharmacological agents. Our typical model specification is the (S)-configuration with enantiomeric excess above 98%, ensured by validated chiral HPLC methods. Material leaves our facility as a crystalline solid, white to off-white, free of extraneous odor or discoloration, and with water content tightly controlled below known thresholds for optimal storage stability. We routinely document analytical data for each lot, ensuring that anyone sourcing material can trace its journey through our production line.
In our years serving discovery labs and manufacturing sites alike, (S)-2-Aminotetralin has formed the backbone of several industrial syntheses—most commonly as a key intermediate in the development of central nervous system agents, as well as in the exploration of novel ligands targeting adrenergic and serotonergic receptors. Chemists at leading pharmaceutical firms approach us with specific requests for consistent enantiomer control; efficiency in chiral syntheses often hinges on starting materials that match defined optical rotations and analytical fingerprints, not just generic configurations. Use cases have expanded to custom catalyst development and in material science, where absolute stereochemistry translates into measurable performance differences.
Scaling (S)-2-Aminotetralin is not a matter of simply adjusting a laboratory protocol to fit a larger vessel. We have tailored several synthetic routes—reduction of tetralone derivatives, resolution methods, and alternate approaches developed in response to fluctuations in precursor availability. Maintaining high optical purity and controlling the diastereomeric ratio pose greater challenges on an industrial floor than on the bench. Years of plant troubleshooting have taught us the importance of temperature profiles, solvent quality, and stepwise monitoring under real production timelines. Our team’s continual investment in analytical capacity—chiral chromatography, NMR, mass spectrometry—keeps deviation below the industry’s toughest standards.
A recurring question from formulators and medicinal chemists centers on how (S)-2-Aminotetralin differentiates itself from similar tetralin-based amines. For projects that demand enantiopure synthesis, generic or racemic 2-Aminotetralin cannot substitute—biological activity between (S) and (R) forms diverges noticeably in published structure-activity studies. We have seen project failures trace back to supplier issues where racemates or low-purity batches confused downstream interpretation. Unlike basic tetralin derivatives, our (S)-enantiomer adheres to strictly defined stereochemical criteria. Customers working on reference compounds, pharmaceutical lead development, or chiral ligands consistently feedback that subtle differences in material sourcing shift the fate of entire multi-step syntheses.
Direct manufacturing control puts traceability within everyday reach. Each production record has tie-ins from reagent sourcing, through process data, to analytical signoff before release. On-the-ground staff at our facility have the authority—and practical mandate—to halt progress if analytical signals stray from specification. Shortcuts and substandard quality have no quarter on our plant floor. Post-sale, we collect real performance data and stay in close discussion with formulation teams and process chemists for every significant batch. We view traceability not as regulatory pressure, but as a core operating value grown out of decades in custom synthesis.
Reports from end-users in pharmaceutical and R&D environments informed several adjustments to our standard product packaging. (S)-2-Aminotetralin’s sensitivity to moisture and air, especially at higher temperatures, has led us to roll out tamper-evident, moisture-barrier containers and direct advice on storage best practices. Early feedback highlighted issues with certain plastics or container headspace; subsequent refinements cut the risk of water uptake and oxidative discoloration. Batch stability—both chemical and enantiomeric—continues to receive periodic review based on storage and transit studies performed both in-house and by our larger clients.
Every kilogram of (S)-2-Aminotetralin dispatched into a research pipeline or manufacturing site gets evaluated against current pharmaceutical and analytical standards. Our team has worked directly with compliance officers during audits and regulatory inspections; years of site visits and direct communications with global regulatory staff have shaped how we document and communicate the provenance and purity of each batch. This experience translates into faster responses for customer audits, more streamlined documentation, and less downtime for clients waiting on new material qualification. Whether material feeds a GMP project following ICH guidelines or supports early stage discovery, our team remains fully engaged in maintaining robust quality controls.
Recent years have illustrated how global events can challenge even the most robust sourcing strategies. As manufacturers, we commit not only to product quality but also to proactive supply chain risk management. Shifts in raw material pricing, interruptions in solvent supply, and logistical disruptions must be met head-on. We maintain a network of vetted suppliers for all key raw materials. Sourcing is periodically reassessed, alternative suppliers are prequalified, and raw materials receive multi-tiered testing before clearing them for use. Advanced planning and local storage buffer against immediate shocks, ensuring that committed deliveries make it from our doors to client facilities, regardless of external volatility.
Our direct role as a chemical manufacturer keeps the conversation grounded in the technical and practical. Medicinal and process chemists approach us throughout the development cycle of their (S)-2-Aminotetralin-based compounds—from exploratory gram-scale synthesis to transitional pilot runs and finally plant-scale manufacture. Practical insights from those collaborations influence our improvements in process yield, impurity control, and overall efficiency. Unfiltered communication with scientists using our material identifies process bottlenecks and ways to streamline reactions involving (S)-2-Aminotetralin. Adjustments—whether in particle size, solvent selection, or analytical method—come directly from these user-driven requests, not abstract specifications.
As industry and academic expectations shift, pressure grows on manufacturers to minimize environmental impact and raise process atom economy. Over the years, our plant team has cut waste streams through solvent recycling, in-line purification, and greener reagent selection. These changes came after detailed tracking of process mass intensity and persistent trial-and-error by staff on the ground. Client requests for lower residual solvent content, recyclable containers, or documentation to support green chemistry goals all get addressed through direct improvements in our operating procedures. Sustainability in producing (S)-2-Aminotetralin means more than making minor tweaks; it demands ongoing investment and clear dialogue.
Adapting synthetic methodologies under real-world conditions calls for practical innovation. Our team’s day-to-day experience equips us to refine routes for (S)-2-Aminotetralin that run cleanly at large scale. Direct feedback from comparative batches has pushed us to diversify from classic chiral resolution, embracing alternative asymmetric catalysis when benefits outweigh increased complexity. Choices between route options draw on data from batch records, waste stream analysis, and direct plant operator reports, not just theoretical predictions. Feedback from our client base consistently drives future improvements.
Consistent engagement with research and production chemists has fundamentally shaped our approach. Feedback about solubility challenges in specific solvents, requests for alternative salt forms, or questions about trace impurity handling lead directly to process changes. For instance, a multinational pharmaceutical partner recently shared that trace residual solvents posed a challenge in their downstream analytical methods. This triggered a review of wash protocols, more rigorous drying, and new analytical checks in our workflow. The cycle of direct feedback, rapid response, and ongoing product evolution forms the backbone of how we approach (S)-2-Aminotetralin manufacturing.
We base our process improvements on actual laboratory and pilot testing—never on theoretical projections. Analytical chemists in our own labs challenge process samples with forced degradation studies, long-term temperature cycling, and close monitoring of impurity creep across extended storage. Our involvement in hundreds of real customer projects, including those leading to new drug filings or scale-ups reaching tens of kilos, informs how we set and enforce our internal benchmarks. This practical perspective prevents unpleasant surprises in later stages of research or scale-up.
Routine safety walks, direct staff input, and a zero-incident mindset inform all standard operating procedures. Handling of (S)-2-Aminotetralin, especially during bulk transfers or drying, reflects hard-earned lessons from decades in chemical production. Recent upgrades in local exhaust, PPE standards, and digital logging further increased operator confidence and batch-to-batch repeatability. Clients visiting our plant see first-hand how operating realities translate into safer, more reproducible chemical manufacturing.
End-users who choose to buy direct avoid the uncertainty that often comes with third-party traders or intermediaries. Every order pulls from lot-specific documentation and comes with full confidence that the product has not left our chain of custody before reaching the customer. Experience tells us that technical support—from answering questions about reactivity to troubleshooting unexpected solubility or stability concerns—works best with unfiltered communication between chemist and producer. Handling inquiries without delay keeps projects on track and reduces risk, especially for chemists working under tight timelines or regulatory scrutiny.
Practical advantages distinguish our (S)-2-Aminotetralin from generic or racemic alternatives. Our material goes through multiple chiral and chemical purity checks. Each specification draws on rigorous study of actual process and product outcomes, not just certification paperwork. Trends in impurity drift, variability in trace solvent profiles, and shifts in stereochemical excess all get recorded, analyzed, and addressed by the production team that actually makes, tests, and releases each batch. Structural similarity alone does not guarantee performance or security for end-users; consistent, documented difference defines the value of sourcing direct.
We approach manufacturing (S)-2-Aminotetralin as a long-term partnership with the research and production communities that depend on reliable, high-quality starting materials. Our ability to directly influence every aspect of synthesis, testing, packaging, and documentation sets us apart from resellers and third-party distributors. Ongoing technical exchange, willingness to track problems back to source, and transparent improvement underpin our commitment to supporting evolving research needs and industrial requirements. Every lot reflects this foundation of experience, technical rigor, and direct accountability.