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HS Code |
316437 |
| Chemical Name | 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole |
| Molecular Formula | C10H12N2O |
| Molecular Weight | 176.22 g/mol |
| Cas Number | 64169-34-2 |
| Appearance | Off-white to light yellow solid |
| Melting Point | Reported in literature (varies by source) |
| Solubility | Soluble in common organic solvents |
| Purity | Typically ≥ 98% (specifications may vary) |
| Storage Conditions | Store in a cool, dry, well-ventilated place |
| Smiles | CC(=O)N1CCc2ccc(N)cc21 |
As an accredited 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle, 25g net weight, tightly sealed with a screw cap; features printed label showing chemical name, CAS number, and hazard warnings. |
| Shipping | **Shipping Description:** 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole should be shipped in secure, airtight containers, protected from light and moisture. Handle under inert conditions if sensitive. Label appropriately as a chemical substance. Follow standard hazardous material shipping regulations to ensure safety during transit. Keep separate from incompatible substances and provide safety documentation. |
| Storage | Store **1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole** in a tightly sealed container in a cool, dry, and well-ventilated area, away from direct sunlight, heat, and sources of ignition. Keep away from incompatible substances such as strong oxidizing agents. Store at room temperature and ensure proper labeling to prevent accidental misuse. Use appropriate personal protective equipment when handling. |
Applications of 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole in Industrial Manufacturing1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole serves as a critical intermediate deployed in specialty chemical syntheses, mostly within sectors that demand high-purity heterocyclic building blocks. Our manufacturing expertise and integrated QC regime support consistently reliable supply to downstream industries with stringent formulation, regulatory, and processing requirements. The following application scenarios illustrate specific downstream utilizations based on real-world industrial practices, emphasizing technical details pertinent to formulation engineers, production managers, and product development specialists. 1. Pharmaceutical Intermediate for Antipsychotic Active IngredientsPharmaceutical manufacturers incorporate 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole as a protected indoline system for developing tricyclic and tetracyclic antipsychotic APIs, particularly within multi-step syntheses targeting molecules like sertindole analogues. Process chemists value the acetyl/amino substitution pattern for selective derivatization when assembling advanced intermediates used in mental health therapies. Our in-process analytical controls ensure traceability from receipt through to API-stage delivery, supporting the strictest regulatory documentation. Industry compliance standards
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2. Advanced Intermediate in Specialty Dye SynthesisManufacturers of performance dyes for technical, automotive, and digital printing applications utilize this indoline derivative for constructing chromophores with high thermal and photostability. The amino-acetyl functionality enables stepwise couplings to arylating agents, resulting in bespoke pigment shades prized for their colorfastness in harsh environments. Our consistency in purity prevents batch-to-batch color variation and ensures seamless downstream tonality adjustments. Industry compliance standards
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3. Building Block for Agrochemical SynthesisAgrochemical producers employ this indoline intermediate when synthesizing nitrogen-containing heterocyclic scaffolds with pesticidal or herbicidal properties. Purity control at our facility ensures minimal residual contaminants, critical for compliance with residue regulations in crop protection products. The reactivity profile allows fine-tuned ring fusion and substitution for new functionalized active entities. Industry compliance standards
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4. Functional Monomer in Specialty Polymer AdditivesProducers of functional polymers for high-value engineering plastics utilize this compound as a nucleophilic monomer to introduce indoline moieties into specialty co-polymer chains. Its acetyl-protected amino group supports post-polymerization modification, contributing to enhanced polymer flame retardancy or structural resilience. Our strict particle control ensures uninterrupted polymerization cascades during scale-up. Industry compliance standards
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5. Precursor for Fine Chemical Synthesis in Research and DevelopmentCustom synthesis laboratories and contract research organizations source this indoline derivative as a highly pure building block for discovery-phase projects, including ligand development and scaffold elaboration. Rigorous QC traceability and batch records facilitate credible regulatory filings for any route-advanced to commercial drug substances or specialty fine chemicals. Industry compliance standards
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Since our founding, we have watched the research landscape reshape itself around nimble molecules like 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole. For years, chemists here have relied on this compound as a dependable building block, particularly in discovery and development settings where accuracy and traceability matter just as much as yield. Backed by real-world process experience, our team engages firsthand with the demanding quality standard this intermediate calls for. Each batch we release reflects strict attention to crystallization, moisture exclusion, impurity profiling, and particle consistency, because laboratory findings and scalable production alike hinge on repeatability.
We offer 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole with assay values exceeding 98%, supporting projects where trace contaminants can derail entire syntheses. Process chemists appreciate that our product excels in low-odor handling and minimal dust formation during transfers, streamlining setup whether for bench work or pilot plant expansion. Melting points regularly track within tight increments, translating to faithful behavior in both solution-phase and solid-state workups.
Through ongoing calibration of our crystallization protocols and repeated analytical reviews using HPLC and NMR, we provide a consistent material every delivery. Loose, inconsistent standards in this business cannot support the complex downstream transformations many customers pursue. Our facility relies on integrity checks keyed to rigorous ISO practices, confirming that each deliverable jobs cleanly with sulfonation, acylation, and any number of customary substitutions outlined in academic and patent literature.
At our site, chemists often pick 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole for its compatibility with reductive cyclization and cross-coupling methods popular across pharmaceutical and fine chemical syntheses. Labs working on kinase inhibitors, serotonin analogs, and small-molecule probes see higher step efficiency with a reliable indole backbone. This intermediate provides an amenable acetyl group, which can undergo selective hydrolysis or substitution depending on needed pathways.
Our team’s ongoing collaboration with pharmaceutical customers underscores the value of a secure supply chain. We have observed that delays can pivot on something as minute as a batch’s color variance or a missed analytical check — both situations we avoid by drawing up clear, trackable documentation from synthesis all the way through to packing. The unique structural balance present in the indoline ring, with one acetyl and one amino group, invites a range of downstream chemistry unavailable to simple indole derivatives or unprotected amines.
Having handled a broad suite of indole derivatives, we see clear distinctions in how 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole answers specific synthetic problems. The 2,3-dihydro scaffold, at first overlooked by some colleagues working in traditional indole work, finds favor by offering higher reactivity at the C-5 amino group, as well as improved shelf-stability compared to standard amines prone to oxidation.
Other amino-indole compounds often introduce purification headaches due to tars, coloration, or polymeric residues. Our compound, synthesized under controlled atmospheres and temperature regimes, exhibits little by-product drag through chromatography or filtration — a time saver that chemists in scale-up operations readily notice. Academic collaborators point out that the reversible protection afforded by the acetyl group enables experiments in deprotection and subsequent functionalization that alternative protecting groups complicate. Peeling back these modifications in one pot or in telescoped sequences keeps resource and labor needs in check.
Many of our operators have spent years seeing firsthand how small variations ripple through batch production. For example, the acetylation stage requires measured addition of acetic anhydride, not only to suppress over-acetylation but also to prevent hydrolysis. Deviations in temperature control during this phase can mean visible off-colors and stubborn points of melting depression, forcing us to reject or rework product. Our staff treat each batch with hands-on oversight, running spot TLC checks and monitoring for off-odors that signal even minor contamination.
Physical handling tells a part of our story as well. In one case, a shipment destined for a partner university arrived during humid weather. Routine checks caught minor clumping in the primary vessel — a sign that despite well-sealed packaging, trace atmospheric moisture had found its way in. Rather than release the shipment, our team opted to reformulate and repackage, protecting customer research from hidden inconsistencies that can ruin crystallinity or reactant performance.
We have watched talented research teams lose weeks tweaking conditions after accepting mismatched intermediates. Often, poor quality material generates by-products or fails to solubilize as expected. For those developing a next-generation protease inhibitor, or seeking to optimize yields on an aromatic coupling, a hiccup as small as elevated residual solvents can distort screening campaigns, especially in high-throughput systems.
Our in-house analytics prioritize residual solvent profiling, specifically to help researchers trust that the results they see stem from their science — not lingering chromatographic ghosts or degradation products. By focusing on these less visible details, our team builds a base of confidence. This matters even more for those manufacturing at pilot or kilo scales. Each per-mole cost multiplies by the hundreds quickly if unnecessary repurification enters the equation.
For growing companies, scale-up isn’t just about multiplying quantities. Several of our partners needed hundreds of grams or kilos of 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole for new pharmacophore platforms. We configured dedicated crystallization tanks and analytics to ensure production scale matches laboratory specs. Handling deviations in reactant purity are more pronounced as volumes climb. A single percent loss in yield or uptick in side-products can mean thousands in lost investment.
We regularly work with customers to select optimal pack sizes and shipping formats, with full in-house testing of containers for chemical compatibility under varying climates. Requests sometimes call for custom sieving grades or specialized milling to suit automated handling systems, and we maintain flexibility for these needs. We believe the extra care in repacking according to the actual use case far outweighs the convenience of bulk-only sales, especially where specific surface characteristics control solubility and downstream kinetics.
Over decades, we have noted the pharmaceutical sector cycle through waves of hoarding and scarcity, driven by global supply chain friction and regulatory twists. One customer planned critical preclinical batches around 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole, only to encounter missed delivery dates and questionable origin control. Our approach aims to buffer against these risks. We test batches against authenticated reference spectra stored for years; documentation is stored and retrievable back to synthesis for every shipment, making it easier to meet regulatory audits or troubleshoot an outlier result in downstream production.
Unlike some widely used indole intermediates, we rarely see broad commercial sponsorship or offshored, price-driven competition eat into quality. Margins are tight, and we fight the same cost containment battles as our peers, but we take responsibility for every vessel and every analytic trace — this isn’t a side-business nested in between other catalog offerings. For those building IP in novel small molecules, true provenance and reproducibility matter more than list price.
Recent years brought lessons about relying on one-dimensional sources. Floods, outages, or political friction can make even common intermediates disappear from the market. Several times, chemists turned to us when traditional suppliers failed to deliver material checked for isomeric purity or handled in closed containers. We step up to fill these gaps, sometimes adjusting campaign cycles or running extra stability checks to squeeze every last gram from a critical batch. These are not just logistical choices — they shape the tempo of drug discovery and materials innovation alike.
There’s a tendency to see intermediates like 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole as interchangeable. Experience proves otherwise. Small impurities frustrate FDA filings. Deviation in melting range throws out processing windows. Frustrated customers have called us for consultation after losing weeks to failed sub-couplings or intractable TLC smears. In these conversations, our advice always circles back to root cause: Know your source. Insist on analytics traceable to the lot. Request discussions with chemists who made the compound, not just a sales desk forwarding documents.
Providing chemicals like 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole means more than shipments and invoices. We have built long-term collaborations by supporting troubleshooting and adapting to emerging regulations. Our staff works like an integrated extension of our clients, offering insight as soon as edge cases or spectral outliers pop up. In some cases, our chemists have visited customer labs to refine workup or to cross-check proposed synthetic routes. The knowledge transfer during these joint efforts shapes iterative process improvements on both sides.
For example, one customer in the agricultural research field aimed to derivatize our indole core for new anti-fungal leads. A hiccup in their planned deacetylation prompted troubleshooting that mapped back to a previously overlooked hydrate form, now checked more routinely in every shipment we send. The takeaway wasn’t just salvaged yield, but a lesson in real-world consequences of moisture migration — a fix that improved storage protocols for everyone we serve.
We maintain thorough in-process and final-batch records. This includes retaining sample aliquots, running triplicate purity analyses, and fielding post-sale inquiries as products move through scale-ups or clinical phases. Whether one of our compounds advances to a market application or remains in exploratory research, we want every client to draw confident connections between reference standards and delivered product.
Records integrate with LIMS and regular audits ensure that SOPs are both up-to-date and enforced. Our internal training covers proper hazardous material handling, spill response, and application of industry codes like ICH Q7. We don’t see documentation as a box-checking formality, but as a reflection of shared intent with partners to do the job right, from bench to plant to filing cabinet.
As regulatory scrutiny intensifies, the obligation to provide traceable, sustainably sourced materials is growing. Our 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole synthesis route now prioritizes solvent recovery and minimal waste design. We use segmented batch processing to track effluent loads, and future campaigns aim to introduce more bio-based acetyl donors. Every improvement aims for cost-effective output, but we keep an eye on community impact and long-term stewardship of supply.
Customers increasingly cite ‘green chemistry’ credentials and low-carbon logistics as requirements for preferred vendor status. Drawing on firsthand feedback from university partners and startup labs, we are investing in on-site analytical upgrades and waste stream recycling. It is easy to talk sustainability; harder to enact it amid ever-changing specification requests and research priorities. We embrace this challenge not as a sales tactic, but as a technical imperative.
Standing at the intersection of chemical manufacturing and modern research, we see products like 1-Acetyl-5-Amino-2,3-Dihydro-(1H)-Indole as more than entries on a reagent shelf. For researchers, reliability and genuine accountability trump bulk price. Every kilogram out the door deserves the same care as a one-gram custom sample. Batch size should not dictate quality; documentation should follow the compound from lab workup to shipped lot.
Our hands-on experience and direct conversations with chemists worldwide confirm a simple truth: trust is built one batch at a time, by showing up for the hard questions and never hiding behind process jargon. Whether building a clinical pipeline, shaping a discovery tool, or mapping new synthetic terrain, customers want certainty that their inputs match intent. Through continual focus on purity, documentation, and dialogue, we shape our process around the evolving needs of the scientists and engineers we serve.