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Methyl D-Valinate Hydrochloride

    • Product Name Methyl D-Valinate Hydrochloride
    • Alias (Methyl D-valinate hydrochloride, (R)-Methyl 2-aminopropanoate hydrochloride)
    • Einecs 643-309-9
    • Mininmum Order 1 g
    • Factory Site Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing
    • Price Inquiry admin@sinochem-nanjing.com
    • Manufacturer Sinochem Nanjing Corporation
    • CONTACT NOW
    VTB
    Specifications

    HS Code

    808593

    Cas Number 16452-09-0
    Molecular Formula C6H13NO2·HCl
    Molecular Weight 183.64 g/mol
    Synonyms Methyl (D)-valinate hydrochloride
    Chemical Name Methyl (2R)-2-amino-3-methylbutanoate hydrochloride
    Appearance White to off-white crystalline powder
    Solubility Soluble in water
    Purity Typically ≥98% (varies by supplier)
    Melting Point 140-144°C (decomposition)
    Storage Conditions Store at 2-8°C, tightly sealed, away from moisture

    As an accredited Methyl D-Valinate Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing White, sealed plastic bottle containing 50 grams of Methyl D-Valinate Hydrochloride, labeled with product details, safety warnings, and batch number.
    Shipping Methyl D-Valinate Hydrochloride is securely packaged in sealed, chemical-resistant containers and clearly labeled according to regulatory standards. The shipment is handled following all relevant safety protocols for hazardous materials, ensuring temperature stability and protection from moisture. Detailed documentation accompanies each order for safe and compliant transportation.
    Storage Methyl D-Valinate Hydrochloride should be stored in a tightly sealed container, protected from moisture and light. Keep at room temperature (20-25°C) in a dry, well-ventilated area, away from incompatible substances such as strong oxidizers and bases. Ensure proper labeling and avoid exposure to excessive heat. Follow standard laboratory safety protocols and local regulations for chemical storage.
    Application of Methyl D-Valinate Hydrochloride

    Applications of Methyl D-Valinate Hydrochloride in Industrial Manufacturing

    As a direct manufacturer of Methyl D-Valinate Hydrochloride, we support specialized integration into advanced chemical synthesis and production. Below are major downstream industries utilizing this intermediate, with application specifics by sector, technical ratios, regulatory considerations, and end products.

    1. Chiral Pharmaceutical Intermediates

    Major pharmaceutical producers incorporate this compound in the asymmetric synthesis of active pharmaceutical ingredients, exploiting its chiral methylvalinate moiety as a building block. Formulators select this material for production of β-lactam antibiotics and certain non-proteinogenic amino acid derivatives. Its supply chain handling and quality requirements are driven by pharma QC and validation standards.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • USP-NF (United States Pharmacopeia – National Formulary) for pharmaceutical intermediates
    • EU GMP Volume 4 for APIs (Part II)
    • FDA 21 CFR Part 211

    Typical usage ratio

    • 0.8–1.2 molar equivalents relative to core substrate, adjusting for enantiomeric purity requirements and process route

    Downstream process integration

    • Direct charging into multi-step chiral synthesis batches
    • Coupling in peptide and non-peptide pharmaceutical scaffolds
    • Integration after basic protection/deprotection steps
    • Utilized before hydrolase or amidase catalysis for further transformation

    Final product types

    • β-lactam antibiotic intermediates
    • Chiral amino acid-based APIs
    • Enantiomerically enriched precursors for prodrugs
    • Custom specialty pharmaceutical actives

    2. Peptide Synthesis for Therapeutics

    Contract manufacturing organizations and in-house pharmaceutical API plants employ the raw material in solid-phase peptide synthesis (SPPS) to introduce non-natural D-valine residues. It supports targeted modifications for pharmaceutical peptides, impacting pharmacokinetics and stability. The hydrochloride form ensures solubility and improved consistency during Fmoc or Boc protection stages.

    Industry compliance standards

    • ICH Q11 (Development and Manufacture of Drug Substances)
    • Ph. Eur. (European Pharmacopoeia) regulations related to amino acid building blocks
    • USP General Chapter <1047>: Peptide Therapeutics
    • CPHI/FDA inspection systems for cGMP peptide manufacturing

    Typical usage ratio

    • 1.0–1.05 molar equivalent per peptide coupling step, with excess minimized to reduce side-chain racemization

    Downstream process integration

    • Activated during automated or manual solid-phase peptide synthesis cycles
    • Loaded onto resin as the N-terminal unit or for mid-sequence insertion
    • Subjected to Fmoc/Boc protection group strategies prior to elongation
    • Employed in solution-phase peptide segment couplings

    Final product types

    • Pharmaceutical peptides with improved resistance to proteolysis
    • Custom peptide analogues for preclinical studies
    • Diagnostic peptides containing non-canonical residues
    • Peptide sections for vaccine conjugation

    3. Fine Chemical Synthesis of Advanced Amino Alcohols

    Producers in fine chemicals utilize Methyl D-Valinate Hydrochloride as a starting reagent in preparing advanced amino alcohols through stereoselective hydrogenation and Grignard addition. These amino alcohols serve further in the manufacture of chiral ligands, catalysts, and other specialty chemicals for process chemistry and analytical standards.

    Industry compliance standards

    • ISO 9001:2015 Quality Management Systems
    • REACH Regulation (EC) No 1907/2006 for chemical handling in the EU
    • Local Environmental and Hazardous Materials registration in destination country
    • Standard Material Safety Data Sheet (SDS)/GHS classification applied in specialty chemical facilities

    Typical usage ratio

    • 0.9–1.1 molar equivalents, adapted based on downstream yield requirements and reagent reactivity profile

    Downstream process integration

    • Initial nucleophilic addition reactions
    • Hydrogenation or reduction operations to convert ester to alcohol
    • Protection, deprotection, and resolution steps for high-purity chiral intermediates
    • Incorporated in the first or second stage of multicomponent syntheses

    Final product types

    • Enantiopure amino alcohol ligands
    • Chiral auxiliaries for stereoselective synthesis
    • Specialty catalysts used in pharmaceutical manufacturing
    • Analytical chiral reference materials

    4. Building Block for Crop Protection Active Ingredients

    Innovation-driven agrochemical companies leverage this molecule for synthesis of specific amino acid-based pesticide and herbicide intermediates. Its well-defined stereochemistry enables the development of biologically active compounds with selectivity profiles relevant for environmentally regulated markets. This application involves rigid batch traceability and physicochemical identity controls.

    Industry compliance standards

    • FAO/WHO Specifications for Plant Protection Products
    • ISO 17034:2016 (Reference Material Producers)
    • OECD Guidelines for the Testing of Chemicals (Harmonized Test Guidelines for Agrochemicals)
    • Regulation (EC) No 1107/2009 Plant Protection Products in the EU

    Typical usage ratio

    • 0.7–1.0 molar equivalents depending on the active ingredient synthetic route and required yield of chiral intermediates

    Downstream process integration

    • Reacted with proprietary protecting or activating groups to form agrochemical intermediates
    • Appended to scaffolds for the creation of targeted amino acid derivatives in early synthetic steps
    • Purity controlled under in-process chemical boarding prior to final coupling or derivatization
    • Workflow includes batch records ensuring traceability and impurity tracking

    Final product types

    • Chiral intermediates for selective herbicides
    • Precursors for insecticidal peptide mimetics
    • Specialized plant protection agents for regulated markets
    • Amino acid-derived crop growth regulators

    5. Research-Grade Chiral Reference Standards

    Scientific supply manufacturers and analytical laboratories apply this chiral compound in the development of enantiomeric reference standards for chromatographic and spectroscopic analysis. These standards serve in calibration processes for regulatory and quality control laboratories, especially where accurate chiral resolution is critical.

    Industry compliance standards

    • ISO/IEC 17025:2017 for testing and calibration laboratories
    • USP <1225> Validation of Compendial Procedures
    • ICH Q6A Specifications: Test Procedures and Acceptance Criteria for New Drug Substances
    • Accreditation under local/national metrology institutes for reference material producers

    Typical usage ratio

    • 1.0:1 equivalence for creation of reference mixtures; concentration standardized based on laboratory assay requirements (typically 10–1000 μg/mL)

    Downstream process integration

    • Purification to ≥99% enantiomeric excess
    • Dissolution and aliquoting for chromatographic columns and spectral calibration
    • Stability and homogeneity studies conducted ahead of commercial lab distribution
    • Batch-specific certification of identity and purity by NMR, MS, and chiral HPLC

    Final product types

    • Chiral reference solutions for HPLC and GC
    • Calibrants for clinical and forensic toxicology
    • Quality control standards for GMP APIs
    • Analytical standards for regulatory submissions
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    Certification & Compliance
    More Introduction

    Methyl D-Valinate Hydrochloride: Experience, Integrity, and Consistency From the Manufacturer’s Bench

    What Sets Methyl D-Valinate Hydrochloride Apart: Our Perspective

    Manufacturing Methyl D-Valinate Hydrochloride in our facility means more than just producing another amino acid derivative. After years of hands-on production work, we have learned how critical every batch is, not just for meeting a set of numbers on a certificate of analysis, but for the impact it has in pharmaceutical intermediates, research, and specialty synthesis. Our facility runs on the belief that reliability comes from a balance of sound chemistry, employee experience, and the diligence that comes with actually making this compound ourselves. We know that our clients use Methyl D-Valinate Hydrochloride for applications that leave no room for inconsistency.

    With the hydrochloride salt of methyl D-valinate, you gain ease of handling, solid storability, and reduced risk of unwanted hydrolysis. In contrast, the mere ester form often degrades faster, picking up moisture and leaving residues that throw off downstream reactions. Our process keeps moisture levels below 0.3%, noticeably reducing byproduct formation. Seasoned manufacturers recognize that hydrolysis rarely forgives shortcuts.

    Manufacturing Culture: From the Reactor to Your Facility

    We have built our credibility batch by batch, following steps reinforced by tens of thousands of kilograms produced and shipped across three continents. From amino acid esterification to salt formation, oversight comes from a team where the senior technician still insists on reviewing product crystallization each morning. Every year brings refinement: filtration slightly more precise, drying tailored for the ambient humidity, and tighter control of particle size so that churn and clumping don't create downstream processing headaches for our customers.

    The material leaves our warehouse with particle distribution optimized to avoid caking, and with a color profile tested for yellowing caused by trace oxidation. We avoid broad-strokes quality claims, instead inviting our partners and regular clients to audit any slice of the manufacturing log at any time – because the proof never sits in the sales brochure. This insistence on shared visibility supports a steady drive for process transparency and mutual confidence.

    Not Just a Systematic Output – A Learning Curve

    Years ago we learned how small changes in the hydrochloride formation stage can swing the final optical rotation by several tenths of a degree. Such details matter. If the D-stereochemistry gets compromised, the compound’s bioactivity drops off and its selectivity in peptide coupling diminishes. We don't rely on off-the-shelf chiral columns; instead, our QC team uses a combination of optical rotation and stereospecific HPLC to doublecheck each lot, not because regulations ask us to, but because decades of repeat business have shown that subtle mismatches surface in clients’ analytical reports later on. We feel a responsibility for each shipment long after it reaches the hands of scientists worldwide.

    Most customers receive Methyl D-Valinate Hydrochloride with the expectation that it serves as a peptide building block, safe and reliable in scale-up. Through constant adjustment, we have engineered our product to maintain low endotoxin levels, minimize trace iron, and hit assay values greater than 99.0%. These numbers aren’t drawn from a certificate template; they're a result of hands-on titration, personal pride, and loud conversations between our chemists who hold each other accountable on every key step.

    Differences From Commodity Grades and Generic Imports

    During audits, R&D clients often note two differences between our Methyl D-Valinate Hydrochloride and lower-cost imports. The first is clarity of documentation. We supply not only routine COAs, but also lot histories, full spectra archives, and process change records. This level of detail springs from a manufacturer’s knowledge that time lost on a missing spectral file means delays further down someone else’s pipeline.

    The second is consistency across larger purchase scales. With our multi-ton batch approach and sample retention program, a process tweak gets captured not only on paper, but also by retaining a physical sample for every lot over the last ten years. We understand the risks in buying from brokers or resellers: minor substitutions, re-labeling, the possibility of mismatched enantiomers or uncontrolled impurities. Buyers who come directly to our plant get what has worked for domestic and global pharmaceutical partners invested in reliable sourcing.

    We rarely see formaldehyde or acetone impurities above internal limits, due to a combination of efficient distillation and in-process monitoring. Where generic suppliers often report a broader range of side-products, our careful control over the methyl esterification step reduces byproduct complexity. The resulting downstream chemistry in a client’s hands proceeds with greater predictability. We have seen more than one project salvaged by switching to our material when inconsistent feed-stock derails precision synthesis.

    Real-World Reliability: The Value of In-House Bulk Production

    Making and selling Methyl D-Valinate Hydrochloride in an industry filled with third-party brokers has taught us the pitfalls of disconnected supply chains. Our clients value direct contact with the plant floor and the opportunity to discuss raw materials, traceability, and test methods at length. Unknowns arise less often in true manufacturing environments, where staff take routine pride in change control and transparency. It isn’t just about meeting regulatory milestones but the security of knowing that every synthesized gram has a clear, auditable path.

    End-users who come to us cite a need for more than just certificates: they request certificates verified by raw spectroscopic data, batch records, and stability reports issued by our own technical team. We support these requests with our own experience – during the pandemic, disrupted shipping and surging demand forced many competitors to water down quality or ration grades. Customers who committed to our supply found that we honored every agreement, increasing batch sizes and running extra shifts. No shortcut replaces years of hands-on process stability.

    Who Relies On True Manufacturer Expertise?

    Peptide synthesis groups and medicinal chemistry researchers know how even minor impurities in amino acid derivatives can trigger miscoupling or incorrect chain elongation. Pharmacy teams building custom APIs or defensible research products need their raw materials to meet stringent chiral purity specs. Biotech startups often operate under lean budgets, yet the expense and delay caused by failed coupling or false positives during QC far exceed a small upfront investment in well-made starting materials.

    Clients often ask about comparisons between our hydrochloride version and alternative forms such as free bases or methyl L-valinate analogs. Each presentation lends itself to different synthetic needs. The hydrochloride salt stands out for its enhanced stability in open air and during short-term storage, important for those who work in batch-scale reactions. In our experience, the methyl ester’s tendency to hydrolyze is better controlled in the hydrochloride form, lowering risk of methyl group loss before intended.

    Academic researchers with limited time to characterize each new batch find that our predictable results shave weeks from project timelines. Where others receive material with unexplained odor or color drift, our consistently clean, white solid earns trust through presentation alone. This reliability has made the hydrochloride salt version a favorite among those seeking confidence at every project step, from sequence assembly to documentation submission.

    Specification Driven by Experience – Not Just Paper Targets

    Longstanding partnerships shape our internal specifications for Methyl D-Valinate Hydrochloride. We have iterated our product profile through upward feedback: as client projects revealed new demands for higher chiral purity, we pushed optical purity to greater than 99.5% by rotatory and chromatographic analysis. As certain global partners moved to solvent-free peptide synthesis, we lowered residual solvents to below 200 ppm, using more stringent GC/MS procedures. This stepwise improvement follows no catalogue playbook – it stems from conversations on the shop floor, weekly quality meetings, and direct feedback from scientists who test our product beyond our walls.

    Typical chemical write-ups avoid mentioning the human effort in hitting narrow melting range targets (generally between 186°C and 190°C) or tamping down odor sources during storage. For us, every parameter carries a story: the shift from open pan drying to vacuum tray drying improved color and cut down subtle sour notes caught by senior staff during manual checks. Each adjustment responded to real findings in stability trials.

    Handling and User Experience: Learnings From Every Batch

    Feedback from experienced users led us to shift packaging away from generic bulk bags to double-sealed pouches and tamper-resistant, HDPE drums. Some buyers require sub-kilo packaging, others order hundreds of kilos at a time. We respond by keeping modular stock, never shuffling bags or splitting batches after the fact. Users have told us that this careful approach reduces cross-contamination and makes traceability a non-issue.

    Ease of dissolution in buffer solutions, key to peptide chemistry, varies with minor shifts in crystal structure. We focus on producing microcrystalline material with minimal fine dust. This leads to cleaner dissolution, less foaming, and reduced waste during work-up. An observation we picked up during on-site visits showed that sticky or clumped product slows down workflow, worsening batch-to-batch results. This lesson shaped our drying and sieving strategy early on, an advantage those further downstream notice as time saved.

    Challenges in Manufacturing and Industry Expectations

    Making Methyl D-Valinate Hydrochloride involves more than just following USP or EP guidelines. Each source of starting material, each vessel wash, each recalibration of automated lines brings with it a risk of cross-contamination or human error. We control these variables through a training ethic that puts new hires side by side with senior technicians, and by running mock recalls and impurity spike tests to keep everyone sharp. During our busiest months, the entire management team joins the floor, reviewing logs, inspecting packaging, and looking for the little things that build or break credibility.

    We have invested in continuous feedback loops with clients, encouraging them to share analytical results and any unexpected outcomes. They contribute practical fixes. Years ago, frequent requests for documentation on residual solvent levels led us to modify our GC/MS reporting to highlight all solvents, not just those flagged by regulators. Later, repeated questions about microbial limits drove us to add routine endotoxin and bioburden checks, strengthening our own safety and quality ethos. As direct manufacturers, these lessons feed directly into day-to-day process improvement.

    Supporting the Future of Safe, Reliable Synthesis

    The list of applications for Methyl D-Valinate Hydrochloride only grows: solid-phase peptide synthesis, custom oligo design, and esoteric building blocks for bioconjugation. Academic labs experimenting with new side-chain linkages or looking for noncanonical amino acid analog program their syntheses with confidence when they rely on input that is not just well-documented on paper, but tightly controlled in production. Those who develop active pharmaceutical ingredients or next-generation reagents understand that dependable starting materials often mark the difference between failed validation and real product registration.

    As regulations climb and market conditions shift, we continue to stand by the commitment to direct manufacturing. The open line between our chemists and those in the field means every product improvement or troubleshooting exercise closes a feedback loop that traders, brokers, or faceless catalogue vendors simply cannot match. Our employees take ownership of every lot – not only because it bears our facility’s stamp, but because reputation is a tangible commodity that lasts far longer than a spreadsheet metric.

    What Experience Has Taught Us – And Why It Matters

    By making Methyl D-Valinate Hydrochloride ourselves, we participate in a material chain that starts at the raw L-valine tank and runs through every crystallizer, dryer, and QC instrument. We have learned that tight control over both raw materials and final product gives researchers, developers, and manufacturers the assurance to move quickly and reliably in science. Our journey with this compound, marked by persistent refinement and customer feedback, gives us a grounded perspective. Manufacturing isn’t just about meeting a published standard – it’s about solving real problems, batch after batch, for those who trust you with their science.