|
HS Code |
459620 |
| Product Name | 5-Methyltryptamine Hydrochloride |
| Cas Number | 36294-58-9 |
| Molecular Formula | C11H16N2·HCl |
| Molecular Weight | 212.73 g/mol |
| Appearance | White to off-white solid |
| Purity | Typically ≥98% |
| Solubility | Soluble in water |
| Storage Temperature | 2-8°C |
| Melting Point | 205-209°C (dec.) |
| Synonyms | 5-MT HCl, 1-(5-Methyl-1H-indol-3-yl)propan-2-amine hydrochloride |
| Smiles | CC1=CC2=C(N1)C=CN(C2)CCN.Cl |
| Inchikey | KKQZMJDJFOFZIC-UHFFFAOYSA-N |
As an accredited 5-Methyltryptamine Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | 100g of 5-Methyltryptamine Hydrochloride is supplied in a sealed, amber glass bottle with a tamper-evident cap and hazard labeling. |
| Shipping | 5-Methyltryptamine Hydrochloride is shipped in tightly sealed containers, protected from light and moisture, to ensure stability. Packaging complies with chemical safety regulations. It is shipped via approved couriers, labeled as a research chemical, with appropriate documentation. Temperature control may be applied if necessary, depending on transit duration and recipient location. |
| Storage | 5-Methyltryptamine Hydrochloride should be stored in a cool, dry, and well-ventilated area, away from sources of ignition and incompatible substances. Keep the container tightly closed and protected from moisture and direct sunlight. Store at room temperature, ideally between 2°C and 8°C, and avoid prolonged exposure to air. Ensure the storage area is secure and clearly labeled for laboratory chemicals. |
Applications of 5-Methyltryptamine Hydrochloride in Industrial Manufacturing5-Methyltryptamine Hydrochloride is a specialized indole derivative with select industrial applications, primarily in regulated pharmaceutical synthesis and advanced chemical manufacturing. Its consistent quality and chemical purity drive specific downstream production routes where traceability and compliance are mandatory. 1. API Intermediate for Psychiatric and Neurological PharmaceuticalsPharmaceutical manufacturers employ 5-Methyltryptamine Hydrochloride in the multi-step synthesis of certain active pharmaceutical ingredients (APIs) intended for CNS indications, including antidepressants and experimental neuroprotective drugs. Its use requires stringent material control and validated supply chain documentation to satisfy regulatory authorities. Chemical processing teams introduce it after initial indole ring functionalization, where high reactivity and specificity govern selectivity in later synthetic transformations. Batch records must document precise input amounts and in-process controls due to narrow process windows. End-use APIs undergo pharmacological validation, with full traceability to raw material lots. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
2. Advanced Chemical Research and Analytical Standards ProductionManufacturers of certified reference materials and chemical standards use 5-Methyltryptamine Hydrochloride to produce high-purity calibration substances vital for analytical method validation in pharmaceutical and forensic laboratories. Strict batch homogeneity and isotopic purity control are necessary, necessitating multi-stage recrystallization or HPLC purification directly after introduction of the compound in controlled reactors. Quality managers document all in-process characterizations and COA compliance aligns with ISO 17034 for reference material producers. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
3. Synthetic Pathways for Fluorescent Probe and Dye PrecursorsChemical processing units in specialty chemical plants leverage this compound as a key building block for synthesizing precursors to advanced fluorescent probes and dye molecules which are critical in bioimaging and molecular diagnostics. The compound enters condensation reactions following initial halide activation, facilitating the formation of stable indole-based conjugates with high photostability. Production involves carefully controlled reaction temperatures and solvent compositions, with ongoing UV-Vis spectral quality checks. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
4. Synthesis of Agrochemical Research ActivesAgrochemical R&D teams utilize this raw material to develop specialized indole-based molecules for plant growth regulator and biostimulant prototype libraries. The material serves as a synthon for structure-activity relationship (SAR) studies, being introduced post-methylation or amidation steps within semi-automated synthesis instruments. Researchers monitor purity and byproduct content at every stage, ensuring compliance with field trial safety assessments and regulatory notification for new chemical entities. Industry compliance standards
Typical usage ratio
Downstream process integration
Final product types
|
Competitive 5-Methyltryptamine Hydrochloride 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!
Every specialty compound on our production line starts with a chemist’s challenge and ends with reliability on the scale that emerging industries demand. 5-Methyltryptamine Hydrochloride has never been an off-the-shelf project for us; it reflects decades of accumulated process experience. Producing this crystalline powder with a clear methyl group at the 5-position isn’t just about technical accuracy — even small tweaks can change how it acts. Our journey with this molecule started as a response to requests from life science partners looking for consistency, low levels of trace contaminants, and a synthesis path with full provenance.
This compound, with its indole ring and methyl substitution, differs sharply from its more familiar parent, tryptamine hydrochloride. Chemical behavior changes at the molecular level. The methyl group at position five subtly alters the electron distribution, which raises questions for those working in drug development or receptor studies. Years in the lab have shown us that even a single methyl influences not only receptor affinity in experimental systems, but also the compound's profile in downstream organic transformations.
In synthetic chemistry, using a true hydrochloride salt reduces ambiguity. The salt form gives clear melting points and improves stability over the base. Finding trace water or unreacted methylamine isn't rare in commercial batches from third-party suppliers. Our process relies on purification techniques modeled after pharmaceutical production. Column chromatography, repeated recrystallization, and constant monitoring keep yields high and residual solvents low. The goal: crystalline 5-Methyltryptamine Hydrochloride with no masking agents, no fillers, and an authentic identity, batch after batch.
No specification is useful without real transparency. We designed our product to meet the highest available analytical standards. Each batch undergoes HPLC purity checks, melting point verification, and spectroscopic identification. Typical purity levels run well above 98.5%. Moisture content, monitored by Karl Fischer titration, stays within tight parameters. As actual producers, we maintain batch logs that cover every raw material lot, every purification, and every analytical run. This way, anyone using the compound for downstream synthesis, in-house reference materials, or biological assay work knows exactly where each gram came from.
Scaling up 5-Methyltryptamine Hydrochloride for global partners forced us to confront classic scale-up headaches. On small scale, indole reactions behave. On a larger reactor, trace oxygen, stir rates, and thermal gradients start to matter. We triangulated best reaction conditions through experience, not just textbook instructions: slow addition rates, lower starting temperatures, and inert gas blanket through all exothermic steps. Our drying routines pay attention to the risk of hydrochloride loss, and we validate every drying batch for chloride content and product integrity.
Researchers in neuropharmacology and synthetic chemistry reach for 5-Methyltryptamine Hydrochloride mainly because its methylated structure models serotonin analogues. Lab teams often use it to characterize receptor interactions, design new ligands, and map out the response curve of tryptamine-related receptors. Outside of the research bench, process chemists choose it for building out novel intermediates. Each application relies on trustworthy product and a transparent pathway from raw material to final hydrochloride. The consistency we build into our system answers both published research controls and the needs of patent-protected explorations.
In the field, tryptamine derivatives come in many forms. Compared to unsubstituted tryptamine hydrochloride, the methylated version demands more care during handling, as methylation shifts its physical properties. Standard tryptamine hydrochloride runs softer, hygroscopic, and with a lower melting range. Once methylated, the hydrochloride salt packs denser and resists airborne moisture slightly better. Chemically, the difference isn’t just in the methyl itself — it plays out in reactivity and solubility profiles, and this matters when optimizing for downstream coupling reactions or aligning batches for preclinical assay consistency.
There’s a world of difference between chemistry handled in a third-party warehouse and direct-from-manufacturer lines. We source our primary indole and alkylamine raw materials through established supply chains, and we keep these streams separate from high-volume agricultural or cosmetic intermediates that crowd many global catalogs. Every batch runs on our own reactors, under our own instrumentation, overseen by process chemists who handle only specialty molecules. Traceability works backwards: every bottle and drum is coded so we can supply supporting documentation within hours, not days or weeks.
Most end users only notice quality failures after an assay gives anomalies or a synthetic step fails. Our perspective as manufacturers brings proactive management to every order. We use equipment calibration routines familiar from GMP practice, and every raw intermediate gets pre-tested to weed out upstream contamination — no cutting corners. The challenge comes from the compound’s sensitivity to minor changes: traces of iron or copper, or small shifts in reagent quality, throw off purity levels and, sometimes, even subtle color tones in the final batch. We recognize these issues early with spot-testing during each run, keeping failure rates too low to disrupt partners’ development schedules.
Open data isn’t a buzzword for us — labs call us with questions, and our full analytical suite is available for review. Each certificate of analysis carries full spectra, not just one-line summaries. If an R&D partner’s instrument flags inconsistencies, we provide matching samples, full batch data, and comparison runs. Our HPLC methods prefer UV and mass-detection to ensure trace-level accuracy. We welcome audits and keep reserved retention samples, so re-testing can validate any concern. This is an everyday necessity, not a marketing tool.
Years spent handling batches of 5-Methyltryptamine Hydrochloride have taught us about the risks and quirks unique to the compound. The powder is free-flowing but can static cling during dry winter air; so our packaging lines shield against foreign particles and include anti-static liners. The hydrochloride salt resists moisture better than the free base, but we store and ship in sealed, light-blocking vessels to slow any breakdown. Segregated lines avoid cross-contact with other aromatics, and we dedicate cleaning cycles after each lot. Real-world hazard comes from inhalation and long-term exposure, so our plant uses local exhaust, glovebox handling, and frequent surface sampling.
Direct supply allows for true production scheduling flexibility. We routine-match our reactor campaigns to customer planning cycles — analytical team gearing up for serial batches, discovery group requesting quick-turn modifications, or pilot process needing kilogram-scale runs. Each specialty order integrates feedback from the first evaluation: if a lab needs different particle size, lower residual solvent, or specific packaging type, we slot those adjustments directly into the next synthesis or packing run, not as afterthoughts. Response time drops because we answer questions from the lab bench, not a sales script.
End users include university investigators, process chemists from pharmaceutical development groups, and startup teams building out patent portfolios. Our direct relationships make feedback immediate: if a property in a batch changes, or if a user finds new requirements, we learn before a small issue becomes a global disruption. Several research partners rely on us for ongoing improvements — minor tweaks to the process can produce a salt with better flow, improved solubility, or new crystal habits. This openness to collaborative refinement comes from a tradition of chemist-to-chemist communication. We see each batch not as “just another order,” but as a chapter in a long-term partnership.
With specialty compounds like 5-Methyltryptamine Hydrochloride, perfection is an ongoing pursuit. Our synthesis protocol remains adaptive. Process drift, subtle batch-to-batch differences, and changing raw material quality demand constant vigilance. We use routine root cause analysis for any deviation, relying on decades of production data, pattern recognition, and failure-tracing. Often, improvements start with a technician spot-checking a color shift or noticing a minor variance in drying time. Formal review cycles pull ideas from every operator and chemist, which lets us catch process risks that generic production setups often ignore.
Old-school process chemistry set the foundation for 5-Methyltryptamine Hydrochloride production. Now, new frontiers pull this compound in unexpected directions: next-generation neuroscience studies, discovery-phase work on serotonin analogues, and even machine learning projects analyzing structure-activity relationships. Direct collaboration with medicinal chemistry groups opens up opportunities for custom modifications — alternate salt forms for better storage, deuterated analogues, or labeled variants for tracer studies. The flexibility built into our production system lets us partner on these new avenues from the first exploratory batch to scaled pilot testing.
Specialty chemicals rarely fit in neat regulatory boxes. Our operation stays up to date on evolving requirements, whether for chemical registration, intrinsic hazard classification, or environmental impact. Each batch ships with full documentation — safety data written from hands-on plant experience and practical hazard examples, not just formulaic statements. Clients operating under regulated environments depend on this clarity to maintain their own compliance records, and we design our communication channels for rapid, fact-based response to inspection or audit requests.
Plant operations for 5-Methyltryptamine Hydrochloride production carry a footprint — energy, waste, and emissions are byproducts of all fine chemical manufacturing. We made early investments in solvent recovery systems, streamlined reactor cleaning, and waste stream minimization. Every kilogram of byproduct maps to a specific disposal or recycle path rather than generic bulk treatment. We recycle or neutralize most effluents, and monitor off-gas to meet stringent emissions benchmarks. Operators are trained not just on yield maximization, but sustainable practice and local regulatory history. Our approach emerges from real responsibility, not just compliance checklists.
Global disruptions forced chemical producers to rethink resiliency. Recent years proved that local lockdowns, transport shortages, or material price spikes can disrupt even the best-laid plans. For 5-Methyltryptamine Hydrochloride, we fortified our supply chain with alternate raw sources and established parallel production capabilities — backups are never an afterthought. Each production run is scheduled with buffer capacity, and we stock reserve drums for fast replacement in case of shipment interruptions. Customers benefit by knowing orders won’t lag during supply hiccups or logistical slowdowns, and our team keeps constant watch on global market signals.
Serving the needs of innovators, researchers, and production chemists demands more than a recipe and a reactor. In the case of 5-Methyltryptamine Hydrochloride, every bottle on a customer’s shelf carries the traceable record of every step in our plant. From raw material to crystal, oversight tracks one chemical’s path through a thousand hands and decisions. Our crew brings years of craft to every reaction, and our work doesn’t stop when an order leaves the door. Follow-up, feedback, and new challenges from end users keep us pushing for better — for a compound as specialized as this, the real product is the trust behind every shipment, built from years of direct experience.
Our work with 5-Methyltryptamine Hydrochloride thrives on conversations. Researchers, chemists, and quality leads who reach out find firsthand answers, not rerouted emails or generic printouts. We share production data, process experience, and lessons learned — with confidentiality and mutual respect built in. True progress comes when information flows in both directions, and over the years, it’s these exchanges that have improved both our compound and our understanding. For us, this is more than specialty production — it’s a partnership built molecule by molecule, customer by customer, and discovery by discovery.