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HS Code |
265844 |
| Chemical Name | N,N-Di-N-Propyl-L-Alanine |
| Molecular Formula | C9H19NO2 |
| Molecular Weight | 173.25 g/mol |
| Cas Number | 19861-95-7 |
| Appearance | White to off-white solid |
| Purity | Typically ≥98% |
| Melting Point | Approx. 60-65°C |
| Solubility In Water | Slightly soluble |
| Optical Rotation | [α]D +20 to +23° (c=1, H2O) |
| Smiles | CCCNC(CC)C(C(=O)O)NCCC |
| Storage Conditions | Store at 2-8°C, protected from light and moisture |
As an accredited N,N-Di-N-Propyl-L-Alanine factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | The 25g quantity of N,N-Di-N-Propyl-L-Alanine is packaged in a sealed amber glass bottle with a tamper-evident cap and clear labeling. |
| Shipping | N,N-Di-N-Propyl-L-Alanine is shipped in tightly sealed containers, protected from moisture and direct sunlight. The chemical is packed to prevent leaks and contamination. Transport must comply with local and international chemical safety regulations, ensuring proper labeling and documentation for safe handling during transit. Store at controlled room temperature upon arrival. |
| Storage | N,N-Di-N-Propyl-L-Alanine should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as strong oxidizing agents. Protect it from moisture, heat, and direct sunlight. Ensure proper labeling and keep it away from sources of ignition. Follow standard laboratory safety protocols and refer to the material safety data sheet (MSDS) for additional instructions. |
Applications of N,N-Di-N-Propyl-L-Alanine in Industrial ManufacturingN,N-Di-N-Propyl-L-Alanine plays a pivotal role in several specialized industrial sectors. As a manufacturer, we supply this raw material mainly to life sciences, chemical processing, and high-value material synthesis industries. Below, we detail real downstream applications, technical integration points, and applicable compliance requirements our customers meet during commercial-scale use. 1. Intermediate in Chiral Pharmaceutical SynthesisMany pharmaceutical companies use N,N-Di-N-Propyl-L-Alanine as a chiral auxiliary or building block in the synthesis of optically pure drug substances. It facilitates asymmetric synthesis, particularly in the manufacture of API intermediates for cardiovascular and neurological therapeutic classes. The material’s stereochemical integrity enables precise control over enantiomeric purity during multi-step organic reactions. Integration typically occurs at the stage of enantioselective condensation or alkylation, preceding the final API formation. Selection of grade and batch consistency remain critical, with comprehensive traceability and analytical verification at each step to comply with regulatory authority submissions. Industry compliance standards
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2. Custom Synthesis in Agrochemical Active IngredientsN,N-Di-N-Propyl-L-Alanine serves as a precursor or chiral ligand for the synthesis of specialty herbicide and fungicide active ingredients. Its structure supports enantioselective synthesis crucial for regulatory approval and targeted bioactivity in modern agrochemical formulations. Integration occurs in catalytic hydrogenation and resolution stages, ensuring the final active meets strict residue and enantiomeric purity criteria for regulatory dossiers. In-house batch homogenization and impurity profiling are leveraged to support downstream agrochemical certification. Industry compliance standards
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3. Fine Chemicals—Ligand for Asymmetric CatalysisSpecialty chemical producers employ this raw material as a chiral ligand in palladium-, rhodium-, or copper-catalyzed asymmetric syntheses. It provides defined steric and electronic properties during cross-coupling and carbonylation processes for fine chemicals and functional intermediates. Selection often follows validation by end-use chemical R&D labs to maximize enantiomeric excess and minimize byproduct formation. The stage of introduction commonly aligns with ligand/catalyst premixing prior to substrate charging in continuous or batch reactors, subject to strict process analytical controls. Industry compliance standards
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4. Chiral Selector in Analytical ChemistryLaboratory reagent and material suppliers integrate this compound into stationary phase modification for HPLC and capillary electrophoresis. Used as a chiral selector, it enables resolution of pharmaceutical and agrochemical enantiomers at preparative and analytical scales. Material selection focuses on purity and compatibility with silica or polymeric supports. Incorporation occurs via covalent bonding to chromatographic resins under carefully controlled solvent and temperature conditions, tracked by lot-specific quality documentation. Industry compliance standards
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5. Synthesis of Electronic and Optical Material IntermediatesProducers of advanced functional materials incorporate N,N-Di-N-Propyl-L-Alanine as a chiral auxiliary in synthesizing specialty intermediates for liquid crystals and optoelectronic polymers. Its structure supports precise manipulation of molecular alignment critical for device-grade materials. Use case examples include introduction during preparation of chiral dopants or as a resolving agent in the manufacture of photoactive films for sensing and display technologies. Downstream verification includes chiral purity and batch reproducibility assurance suitable for integration into electronic-grade materials pipelines. Industry compliance standards
Typical usage ratio
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In our years of manufacturing targeted amino acid derivatives, we’ve worked alongside some of the sharpest minds in chemistry and pharmaceuticals. N,N-Di-N-Propyl-L-Alanine, often recognized for its role in research and custom synthesis, has stood out for its unique structure and reliable performance. Research chemists and development teams look for precision at every stage, starting from the purity of each molecule. Our experience with this compound has taught us the importance of strict control over each batch, both chemically and logistically, to ensure that downstream applications run smoothly.
Our latest batches, under the model DPLA-2024, reflect a continual investment into reaction pathway efficiency and contaminant minimization. By maintaining this focus, we’ve seen feedback from users working in advanced synthesis and pre-clinical studies. They note the product’s clarity and consistency—a direct outcome of process control, not just lucky batch runs. This comes from real-world monitoring, regular instrument calibration, and practical know-how rather than theoretical promises.
In most amino acid derivative markets, margin for error doesn’t leave much breathing room. Minor differences in side chain purity, residual solvents, or microcontaminants can lead to deviations during catalysis or in co-reactions. Our facility has adopted a slightly slower, more deliberate crystallization protocol. This step-wise approach grants better crystal lattices and reduces disordered inclusions, contributing to reliable handling properties and shelf-life stability.
Some competitors push for high throughput, sacrificing batch uniformity for volume. That mindset leads to more variable product from drum to drum and increases the probability of unexpected side products showing up in the spectrometric fingerprint. In our line, technicians get direct feedback from those who work on the synthesis line daily. If filtration slows or if the color shifts off-standard, adjustments are made before the batch sees the packaging floor. The process is hands-on, not automated beyond recall—years of cumulative experience drive decisions.
Customers have flagged two things most often: consistency and traceability. Our full-batch analytical run includes HPLC/GC, FTIR, and mass spectrometry data retained for many years. We can confidently compare a sample from last quarter with today’s lot, providing additional documentation if regulators or internal auditors make requests. This kind of attention earns repeat business, not generic ISO certificates tacked on a wall.
N,N-Di-N-Propyl-L-Alanine carves out a niche within custom synthesis for lead compounds, particularly in projects that focus on enantioselectivity or metabolic modification. Specialty pharmaceutical developers often look for alpha amino acid derivatives that dodge regulatory complexity while offering useful reactivity for peptide, ester, or amide synthesis. Our clients work on new chemical entities, routinely facing compliance hurdles and patent constraints. That puts tight restrictions on both the chemical profile of every starting material and the documentation that follows.
One of our clients, a mid-sized pharmaceutical group in Europe, approached us after repeated inconsistencies from overseas suppliers affected their pretrial batch reproducibility. Frequent instrumental outliers, often traced to minute levels of diastereomeric impurities, halted their project for several months. After switching to our DPLA-2024 product line, their internal data recorded improved yield and higher stereochemical integrity, without interventions or purification rework. The impact reached beyond the bottom line—development timelines shortened, and regulatory review hurdles dropped.
Academic researchers, too, value having a supplier who won’t disappear every few months. Graduate projects hinge on the reliability of each shipment; no one wants to repeat three months of sample prep because starting material changed mid-stream. We know this from regular feedback sessions, where research teams relay the headaches caused by inconsistent intermediates. By keeping lots standardized and offering full disclosure of analytical spectra, we give peace of mind to principal investigators and postdocs juggling complex protocols, tight funding, and publication deadlines.
It’s tempting to look at a chemical specification sheet and think everything comes down to numbers: percent purity, water content, heavy metal thresholds. In practice, real value often hides in the details omitted from standard paperwork. We don’t settle for minimum thresholds—internal specifications often run tighter than general industry requirements.
Our DPLA-2024 batches reach well above 99% purity by HPLC, with strict cross-verification against reference standards and periodic audit by outside labs. Moisture content consistently rests below 0.2%, not just immediately after drying, but weeks after warehousing—a nod to packaging protocols that use high-barrier, low-diffusion films rather than generic bags.
We’ve curbed the desire for “lighter” packaging at the expense of quality. Some distributors, eager for transit savings, opt for non-vacuum containers or mixed liners, a decision that costs more in material loss than it saves. Our film and drum combinations maintain the right environment, reducing degradation risks and keeping material ready-to-use across global transit times, even in variable climates.
The importance of accurate labeling and transparent records appears every audit season, especially when pharma clients approach regulatory filings. Every box and drum from our line carries QR tagging linked to batch data, spectra, and manufacturing lot records. Researchers and compliance teams scan and pull needed records in minutes, not hours, reducing the stress of surprise requests by external auditors.
The world of fine chemicals doesn’t stand still. Raw material volatility, supply chain delays, and regulatory shifts demand nimble adaptation. Take the example of recent geopolitics or unexpected supply shortages. Sourcing key starting materials can throw off expected batch timing or raise unexpected costs. Instead of passing the buck, we keep safety stocks of precursors and maintain secondary supplier relationships—not just on paper but through ongoing trial orders and annual site visits. Any alternate material undergoes bridging studies, ensuring it doesn’t alter final product signature or performance in the end application.
Some purchasing departments push hard for price reductions, focusing on initial quote values. Long-term losses from failed batches, extended re-testing, and interrupted production lines far outstrip what’s saved in short-term negotiations. One customer in the agrochemical arena told us about a sizable contract lost after cheap intermediates set off a run of downstream re-crystallizations, costing weeks in lost campaign time. Those are avoidable headaches with a steady, reliable supply line.
Clear communication also matters on regulatory compliance. The list of restricted substances grows each year, and rules differ by country and application. To meet varying needs, we track regulations for REACH, TSCA, and local APAC legislation. Our compliance staff tie into international alerts and regulatory bulletins, updating documentation or informing clients as new rules develop. For example, subtle formula changes made to meet shifting regulatory requirements are documented, so end-users don’t get caught unawares during inspections or cross-border shipments.
Disposal and environmental issues require equal attention. The best way to minimize hazardous waste is through cleaner process design and greater upstream purity. Working with on-site waste minimization teams, our chemists routinely review process flow charts, ensuring solvent choices and byproduct handling meet evolving standards. The aim is to make every gram count, not just at output but through the entire chemical lifecycle.
Users often ask what sets N,N-Di-N-Propyl-L-Alanine apart from other L-alanine derivatives or common amino acid analogues. The structure, featuring two linear n-propyl groups attached to the nitrogen, changes solubility, downstream reactivity, and steric hindrance compared to standard derivatives. The bulkier side groups provide unique selectivity when used as a chiral auxiliary or protecting group in asymmetric synthesis.
Unlike standard L-alanine, which sees wide use as a building block, this substituted compound delivers more specialized applications. Certain peptidomimetic designs or custom active pharmaceutical ingredient (API) intermediates rely on the steric signature of the n-propyl di-substitution for specific binding or functionalization patterns. That’s a subtle but consequential difference—one that drives the choice between routes in early-stage compound optimization.
From a handling perspective, the physical properties differ. Standard L-alanine is water-soluble and forms free-flowing crystalline solids that lend themselves to bulk blending. N,N-Di-N-Propyl-L-Alanine, with its modified hydrophobic side chains, behaves differently during weighing, blending, and reaction staging. We routinely communicate with users on best handling practices, pointing out differences in solubility, preferred solvents, and any needed inert atmosphere during storage.
Many customers have tried to adapt process parameters designed for simpler amino acids, only to face bottlenecks in yield or isolation. We’ve developed in-house protocols for re-crystallization, solvent selection, and drying that we share openly with partners. There’s no value in hiding know-how—successful end use means fewer troubleshooting calls down the road. Real technical support comes from day-to-day collaboration, not just from instruction sheets or generic FAQs.
Chemical production requires constant, precise attention at every step. From raw material approval to final packaging, small mistakes can ripple outwards and derail months of work for our customers. Our philosophy comes from a history of trial, learning, and improvements, sometimes the hard way—in solving actual production mishaps, advising customers facing scale-up issues, or tracing the root of unexpected analytical shifts.
By maintaining direct relationships with our suppliers, investing in staff training, and keeping quality functions independent from commercial pressure, we prevent many problems before they ever touch a customer’s lab. We inspect every incoming lot, verify against rigorous standards, and keep redundant test records. That diligence, embedded in our culture, flows straight to the reliability experienced by our end users.
Nothing replaces the value of experience. Our chemists, some with decades under their belts, spot issues before instruments do. Whether a faint off-smell during drying or a barely visible tint on crystallized material, human senses and chemical intuition catch subtle shifts that automated systems overlook. Involving technical staff in sales discussions allows customer concerns to inform process tweaks, packaging choices, and follow-up technical support.
We don’t claim perfection. We do claim transparency and the willingness to face up to issues, fix them, and share insights for continuous improvement. The market punishes complacency and rewards those who communicate openly about risks, capabilities, and limitations. That’s how we’ve built trust over time with clients from startup labs to global pharma firms—a mutual respect earned batch by batch.
The landscape of specialty chemicals shifts fast. New reaction mechanisms, automation trends, and sustainability targets rewrite rules yearly. We adapt by blending research-grade diligence with scalable manufacturing practices. Investment in cleaner technologies, smarter analytics, and more efficient logistics allows us to move forward without sacrificing hands-on quality.
Our strategy involves regular customer roundtables—direct conversations with those who actually use our intermediates on the bench or at pilot scale. These sessions reveal emerging needs, whether for tighter impurity specs, faster shipping, novel packaging, or improved documentation. Listening and adapting to this feedback keep us ahead and prevent costly mismatches between what we deliver and what’s really needed.
Emerging APIs, diagnostic agents, and bioconjugation tools each place unique demands on the building blocks they start from. Our manufacturing team doesn’t just fill orders—every batch triggers an internal review for potential adjustments. Whether a tweak in drying conditions for a moisture-sensitive compound, a shift in packaging to prevent static buildup, or a paperwork template tailored for a specific regulatory filing, these incremental changes add up for the user.
We see the future as connected. Digital supply chains make transparency easier, but they don’t replace the judgement of people who can read between the lines of an analytical report, solve shipping headaches, and understand the real-world consequences of simple errors. Investing in people and digital tools allows the narrative around every batch of N,N-Di-N-Propyl-L-Alanine to reflect a clear history—from raw input to finished drum.
Producing N,N-Di-N-Propyl-L-Alanine isn’t just an exercise in hitting numbers—it’s about enabling progress across fields that rely on custom chemistry and carefully controlled building blocks. Each step, from reaction initiation to post-packaging documentation, reflects the discipline and commitment our manufacturing culture has evolved over years of real-world practice. That history informs how we troubleshoot, communicate, and ultimately deliver something our partners trust batch after batch.
Chemical manufacturing brings fresh challenges with every new market trend, reaction mechanism, and regulatory requirement. Facing those demands head-on, with open conversation and real solutions driven by expertise, not just compliance, remains our core focus. By standing on our record, we forge a more dependable partnership—one built on knowledge, transparency, and the day-to-day reality of making specialty chemicals that researchers and manufacturers can rely on.