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HS Code |
696956 |
| Common Name | 3-(3-Pyridyl)-D-Alanine |
| Chemical Formula | C8H10N2O2 |
| Molecular Weight | 166.18 g/mol |
| Cas Number | 71759-86-3 |
| Iupac Name | (2R)-2-amino-3-(pyridin-3-yl)propanoic acid |
| Appearance | White to off-white solid |
| Solubility | Soluble in water |
| Optical Activity | D-enantiomer (R-configuration) |
| Purity | Typically ≥98% (assay may vary by supplier) |
As an accredited 3-(3-Pyridyl)-D-Alanine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | Amber glass bottle with tamper-evident cap, white label displaying "3-(3-Pyridyl)-D-Alanine, 5g," chemical formula, and hazard symbols. |
| Shipping | 3-(3-Pyridyl)-D-Alanine is shipped in tightly sealed containers under dry, cool conditions to prevent moisture exposure. The package is labeled with appropriate hazard information according to safety regulations. Handling instructions and a Safety Data Sheet (SDS) are included to ensure safe transportation and compliance with chemical shipping standards. |
| Storage | 3-(3-Pyridyl)-D-Alanine should be stored in a tightly sealed container, protected from light and moisture. It should be kept in a cool, dry, and well-ventilated area, ideally at 2–8°C (refrigerator conditions). Avoid sources of ignition and incompatible substances such as strong oxidizers. Properly label the container and follow all safety guidelines for handling laboratory chemicals. |
Applications of 3-(3-Pyridyl)-D-Alanine in Industrial ManufacturingAs an established manufacturer, we supply 3-(3-Pyridyl)-D-Alanine to leading global industries where this specialty amino acid plays a critical role in advanced synthesis and formulation routes. Below, we detail the key downstream application areas, highlighting industry-specific compliance frameworks, practical dosage recommendations, process integration points, and targeted end-product categories. 1. Peptidomimetic Active Pharmaceutical Ingredient SynthesisPharmaceutical manufacturers employ 3-(3-Pyridyl)-D-Alanine as a non-proteinogenic building block in peptidomimetic drug synthesis, exploiting its unique pyridyl functionality to enhance metabolic stability and receptor selectivity. This raw material enters solid-phase peptide synthesis pipelines for production of next-generation oral small molecule therapeutics, particularly those targeting metabolic, neurodegenerative, and infectious disease pathways. Industry compliance standards
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2. Chiral Intermediate for Agrochemical DiscoveryAgrochemical innovators utilize 3-(3-Pyridyl)-D-Alanine to construct chiral intermediates required in the development of selective herbicides and fungicides. Its enantiopure D-configuration delivers stereochemical control during pipeline reactions, optimizing target specificity and environmental bioavailability for new crop protection products. Industry compliance standards
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3. Enzyme Inhibitor Research and Diagnostic Reagents3-(3-Pyridyl)-D-Alanine supports research and in vitro diagnostic industries requiring substrate analogs for enzyme activity assays and inhibitor screening platforms. Its structural mimicry and defined chirality make it suitable as a reference or probe in biochemical and kinetic assessments. Industry compliance standards
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4. Biotechnological Synthesis of Modified Peptide MaterialsIn industrial biotechnology, researchers and process engineers apply 3-(3-Pyridyl)-D-Alanine to engineer modified peptides and mini-proteins with custom side-chain functionalities for materials science and advanced biomaterial synthesis. Its incorporation yields materials with altered surface properties or unique binding sites for downstream surface chemistry applications. Industry compliance standards
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5. Specialty Chemical Building Block for Heterocyclic Scaffold SynthesisAdvanced chemical manufacturers use 3-(3-Pyridyl)-D-Alanine as a precursor in constructing complex heterocyclic scaffolds, leveraging the molecule’s bifunctionality for modular assembly of pyridine-containing frameworks. This capability is valuable for fine chemicals, specialty dyes, and high-performance material intermediates. Industry compliance standards
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Every production line at our factory has stories woven through each metric ton of product. Over the years, we’ve built a reputation for consistent work in the specialized synthesis of uncommon amino acids. 3-(3-Pyridyl)-D-Alanine, model 3PDA-212, stands out in our catalog for its structural fidelity and reliability batch after batch. Our site produces this compound with full attention to critical details: stereochemical purity, transparent origin of raw materials, and robust analytical controls at each stage of conversion.
This D-alanine derivative includes a 3-pyridyl substituent, which brings versatility to many research and development efforts. Whether it’s for use as a precursor in active pharmaceutical intermediates, development of peptidomimetics, or as a ligand in metal chelation studies, our background in asymmetric synthesis plays a key role. We designed our route free from unnecessary protecting group steps to limit byproduct formation, and real-world process tweaks were made based on what actually gave us reliable yields—rather than what’s easiest to report in the literature.
Customers trust our 3-(3-Pyridyl)-D-Alanine because we control its chiral purity with chiral HPLC, and analysis always covers optical rotation, NMR, mass spectra, and defined heavy metal content. Most lots meet a minimum 98.5% HPLC purity and fewer than 0.2% of L-isomer. These aren’t just numbers pulled from a reference—our lab team regularly verifies each batch to keep fictitious claims out of our product sheets. For end-users with discovery, formulation, or analytical departments, nothing is worse than repeat solubility issues that trace back to inconsistent chiral purity; our procedures aim to keep that risk off your desk.
When we speak to clients in pharmaceutical development, they tell us that most failures begin with overlooked raw materials. Starting material integrity determines whether a whole project keeps a solid timeline. In our experience, applying 3-(3-Pyridyl)-D-Alanine in peptide-coupling reactions reveals how side-chain orientation influences biological activity. The electron-rich pyridyl ring attracts interest in neuroactive compound construction and functionalized peptide design. When our teams scaled up to kilogram batches, we learned quickly that cheap shortcuts undermined downstream synthesis; for instance, leftover starting material from racemization-prone steps did nothing but introduce noise in bioassays. We eliminated weak points by fine-tuning pH, choice of base, and temperature, rather than relying solely on published conditions.
Most users ask us early about solubility and stability. The compound dissolves comfortably in water, methanol, and DMSO, and keeps its character with minimal decomposition under standard ambient conditions, provided humidity stays reasonable. We field-tested storage for over one year with minimal observed degradation, which has helped our clients plan extended campaigns or method development windows. The crystalline solid doesn’t clump or cake in drums, either—a result of steady drying under mild vacuum and the absence of residual solvents.
There’s no shortage of listings for this compound, but we learned that most alternative supplies offer generic quality—often racemic, sometimes questionable in both origin and processing. Our 3-(3-Pyridyl)-D-Alanine always comes from direct production under our roof, controlled by staff with years of synthetic expertise. We don’t outsource to contract manufacturers. Each order leaves our site backed by batch-specific documentation, not generic COAs based on legacy data files. Our feedback loop tightens each production cycle—customer comments inform next runs, and real reactions to our shipments influence every improvement we implement.
Competitors tend to provide either D- or L-enantiomers without clear confirmation of chirality, and some don’t resolve minor byproducts that might lurk below 1% abundance. Other sources blend lots to meet order sizes in a hurry; we maintain single-day batch records and can track back any issue to a specific reactor load. Our plant invested in redundant chiral separation systems and verified each with independent checks. These aren’t just procedural steps, but results of hard lessons learned scaling beyond pilot.
Beyond synthesis, the value of 3-(3-Pyridyl)-D-Alanine stems from the reputation it has among industry users. The backbone attracts peptide chemists, as the D-configuration resists standard proteolytic enzymes. Academic groups and innovative biotech firms have used our material in projects related to receptor binding studies, CNS biologics, and functionalized biomaterials. Internal studies in our site show predictable performance in solid-phase peptide synthesis and low background reactivity during coupling and deprotection cycles. Our technical team helps clients tweak their methods—from loading strategies to resin selection—to push projects over the stubborn hurdles of early-stage development.
Formulators seeking new scaffolds for enzyme inhibition, or those designing enzyme-resistant tags, often single out D-amino acids. The 3-pyridyl moiety locks in intriguing hydrogen-bonding patterns and electronic properties. In our feedback calls, clients discuss practical outcomes—fewer failed couplings, easier purification, and better batch-to-batch reproducibility. One customer specifically noted that peptides built from our batches displayed superior yields during scaleup chromatography, due to absence of trace side products that dogged their previous suppliers.
Clients depend on uninterrupted access and stable performance. Supply chain reliability sometimes counts even more than analytical purity. During market fluctuations or raw material restrictions, our fully vertical operation shields customers from last-minute surprises. Unlike generic trading companies, our technical managers work next to staff on the floor—they answer questions with direct knowledge of last week’s production, not sales-sheet talk. This way, issues aren't buried or lost between go-betweens. We maintain two independent production lines to prevent downtime. We hold raw material stocks for at least six months into the future, and ship globally from our own bulk storage on-site. For every kilo sold, there’s a clear record covering lot history, processing dates, and supporting data—nobody waits for another middleman to dig up missing files.
Handling challenges such as regulatory documentation, custom analytical requests, or scaled lot production comes standard in our daily workflow. We maintain full traceability on raw chemicals, which isn’t something most smaller operators can promise. We train staff to keep meticulous records. Whenever a question arises about an impurity profile, real managers answer based on plant logs, not secondary summaries. That’s how we know we’re shipping exactly what scientists and researchers require.
At the heart of this business lie numerous insights picked up through years of manufacturing. We once encountered an abrupt drop in one customer’s yields. Open technical dialogue revealed their new process left longer reaction times at elevated pH, increasing susceptibility to side-chain hydrolysis. After lab trials in our pilot suites, we provided a fresher batch, packed with desiccant, and shared documentation supporting altered handling. Product performance rebounded, and their project moved onward. We continually invest in refining drying conditions and inert gas handling based on these collaborative experiences.
We also remember days when analytical HPLC flagged trace solvents that sneaked past standard drying steps. That time, we fundamentally changed our end-of-line protocols. Rather than slotting in extra holding stages, our site adopted low-temperature, high-vacuum evaporation with continuous mass balance checks on each run. This cut down waiting times for lot release while improving consistency. It’s through crises and candid customer conversations that the value of strong manufacturing really comes forward.
Over the years, some of our most enduring partnerships started not with contracts, but with technical back-and-forth between our chemists and development scientists. We encourage our contacts to share bottlenecks and ask for input on route selection or in-process troubleshooting. By keeping our synthetic slate focused, we offer the support that comes from familiarity, not generic assurances. You don't have to speculate about variable sources, shipment blends, or surprise delays from upstream failures.
We’re candid about what we fix and why. Product recalls, though rare, prompt immediate plant-side investigation. Full analytical workups, review of production notes, and real-time displays keep every shift accountable. If something doesn't pass—be it an optical rotation outside our tight limits, a spot of colored impurity in a batch, or a packing error—our quality group follows up with traceable corrective steps. Issues resolved on our own floor create steadier, more predictable experiences for every customer.
Scaling up any production brings its own headaches, and 3-(3-Pyridyl)-D-Alanine is no exception. Experience has taught us the risks of letting pilot-scale methods move to ton-scale output without extra engineering. Heating and cooling controls, precise pH monitoring, and layered solvent feeds prevent runaway side reactions that can quietly erode purity. Over time, we identified subtle color changes in rare instances of micro-contaminants. In-house spectroscopy lets us catch these traces early—avoiding downstream failures that would cost days or weeks at the user’s end.
Our plant operates continuously, with dedicated lines set for amino acid analogs. We never dilute pure batches to stretch supply, nor mix unknown lots to cover orders. Insights gained through internal R&D make possible on-the-fly solution checks if a process hiccup appears. For larger users, we offer shipment sizes from a few hundred grams up to full-container loads, and we back up every order with a chain of custody and a direct contact to our technical team.
Every year, our group revisits safety and waste handling protocols. Pyridyl-substituted intermediates can present health and safety challenges, so we standardize staff training in both safe handling and exposure minimization. Excess material and laboratory solvents are all processed on-site for responsible disposal, documented and reported according to local and international guidelines. We audit each supplier of starting materials and act fast if any deviation in documentation arises. Regular drills and updated hazard training ensure zero lost-time injuries and keep compliance firmly in hand.
The factory’s approach goes beyond paperwork. We sample air, water, and waste emission points. Should any result slip toward an upper control limit, production shifts recalibrate and maintenance staff respond before problems reach regulatory attention. This attitude of accountability covers both the chemical and human sides of the manufacturing process.
For any laboratory seeking a reliable input for critical experiments or scale-up work, the difference between nominal and verified quality can make or break program results. We field countless requests for technical consultation each quarter and see the full range of complications that arise from relying on generics or resellers: mismatched purity, uncertain origin, or inconsistent batch response. Solutions that last stem from direct dialogue and proven supply consistency.
We invite conversations about method development, upscaling, or special handling. More than simply selling molecules, we see our job as ensuring your science moves forward without avoidable interruptions. Each specification, each lot report, every shipment grows out of real, ground-level manufacturing work—no smoke, no mirrors, just the persistent daily effort of people committed to getting advanced building blocks right.
By bringing process ownership and product accountability under one roof, our team stands behind each gram of 3-(3-Pyridyl)-D-Alanine we deliver. Regular dialogue with clients, ongoing investment in technical capability, and an unwavering focus on detail allow us to set a higher bar—for ourselves and, in turn, for those who trust us as a source for advanced intermediates. Experience has shown that the best innovations grow from steadfast, reputable starting materials—just like the best business relationships grow from mutual respect and technical transparency.