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DL-2'-Methylphenylalanine Hydrochloride

    • Product Name DL-2'-Methylphenylalanine Hydrochloride
    • Alias DL-β-(2-Tolyl)alanine hydrochloride
    • Einecs 241-272-4
    • 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

    547163

    Product Name DL-2'-Methylphenylalanine Hydrochloride
    Cas Number 101849-23-6
    Molecular Formula C10H13NO2·HCl
    Molecular Weight 215.68 g/mol
    Appearance White to off-white solid
    Solubility Soluble in water
    Purity Typically >98%
    Melting Point 230-235°C (dec.)
    Storage Temperature 2-8°C
    Synonyms DL-2-Methylphenylalanine hydrochloride
    Optical Activity Racemic mixture (DL)
    Chemical Structure Contains an α-amino acid backbone substituted with a 2'-methylphenyl group
    Hazard Statements May cause irritation to skin, eyes, and respiratory tract
    Usage Intermediate for chemical synthesis and pharmaceutical research

    As an accredited DL-2'-Methylphenylalanine Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The packaging features a sealed amber glass bottle labeled "DL-2'-Methylphenylalanine Hydrochloride, 5 grams," with hazard and safety information displayed.
    Shipping DL-2'-Methylphenylalanine Hydrochloride is shipped in tightly sealed containers to prevent moisture absorption and contamination. It is typically transported at room temperature, away from direct sunlight, heat, and incompatible materials. Appropriate labeling and safety data sheets are included to ensure compliance with regulations for handling and transporting hazardous chemicals.
    Storage DL-2'-Methylphenylalanine Hydrochloride should be stored in a tightly sealed container, away from light and moisture, at room temperature (15–25°C). Keep the chemical in a cool, dry, and well-ventilated area, isolated from incompatible substances. Ensure proper labeling and restrict access to authorized personnel only. Follow all applicable safety guidelines and local regulations for chemical storage.
    Application of DL-2'-Methylphenylalanine Hydrochloride

    Applications of DL-2'-Methylphenylalanine Hydrochloride in Industrial Manufacturing

    DL-2'-Methylphenylalanine Hydrochloride serves as a specialized intermediate for advanced synthesis, valued in select industrial supply chains requiring tailored amino acid derivatives. We manufacture this material to meet the demands of precise technical applications where standard phenylalanine analogues cannot provide the required end-use functionalities.

    1. Peptide Pharmaceutical Synthesis

    Major pharmaceutical companies use this compound as a building block for complex peptide APIs, especially in development of receptor-targeting compounds and peptide analogues for CNS, oncology, or metabolic routes. Asymmetric synthesis routes demand strict chiral purity, and our continuous process controls support reliable batch-to-batch manufacturing. Integration in solid-phase or solution-phase peptide coupling delivers downstream products with enhanced hydrophobic character and unique metabolic profiles for investigational and clinical pipelines.

    Industry compliance standards

    • ICH Q7 (Good Manufacturing Practice for Active Pharmaceutical Ingredients)
    • USP/NF Monograph Inclusion for Peptide-Related Substances
    • EMA/CHMP Quality Module 3 for IMPDs
    • FDA 21 CFR Part 210/211 (cGMP)

    Typical usage ratio

    • Ranges from 0.5 to 3.0 molar % of amino acid units, depending on peptide sequence length and functional requirements
    • Adjusted by solid-phase resin loading and coupling efficiency in process optimization studies

    Downstream process integration

    • Charged during amino acid elongation cycles in automated peptide synthesizers
    • Introduced as a specialty residue at defined position for SAR studies, post-synthetic modifications, or endpoint conjugation

    Final product types

    • Peptide therapeutics (investigational or clinical stage)
    • Diagnostic peptide markers
    • Custom bioactive peptide libraries
    • Peptide-drug conjugates for targeted delivery

    2. Chiral Intermediate for Active Drug Ingredient (API) Manufacturing

    Our material enables synthetic routes to APIs in the fields of neurological and metabolic disorders. The methylated aromatic structure is essential to generate analogues with increased receptor selectivity or altered pharmacokinetic behavior. Large-scale API plants apply this intermediate in both linear and convergent synthesis flows, with robust analytical support for impurity profiling and chiral resolution. Documented process validation ensures compliance and batch reproducibility.

    Industry compliance standards

    • ICH Q11: Development and Manufacture of Drug Substances
    • Japanese Pharmacopoeia (JP) requirements for amino acid derivatives
    • Pharmaceuticals and Medical Devices Agency (PMDA) DMF regulations
    • Active Substance Master File (ASMF) protocols for EU submission

    Typical usage ratio

    • Employed at 10–15% w/w of the starting material mass in key coupling steps
    • Adjusted after route scouting and scale-up optimization for intermediate yield

    Downstream process integration

    • Introduced as a coupling unit in amidation or acylation steps
    • Undergoes chiral separation prior to final salt formation and purification

    Final product types

    • Active pharmaceutical ingredients (APIs) for CNS, oncology, or metabolic disease
    • Small-molecule drugs with selective aminophenyl structural motifs
    • Chiral building blocks for further derivatization
    • High-value pharmaceutical intermediates

    3. Specialty Chemical Synthesis for Research Reagents

    Chemical research companies and reagent catalog vendors utilize this compound to create specialty chemicals for screening libraries, chemical biology probes, and niche analytical standards. The defined hydrochloride salt supports consistent batch dispensing and reliable weighing in high-throughput setups, and we provide validated Certificate of Analysis and full traceability for downstream laboratories requiring GLP-grade inputs.

    Industry compliance standards

    • ISO 9001:2015 Quality Management for Laboratory Chemicals
    • OECD Principles of Good Laboratory Practice (GLP)
    • REACH Annex VII (for research-only use and registration requirements)
    • GHS labeling requirements for research chemicals

    Typical usage ratio

    • Weighed between 0.01 to 1.0 mmol scale reactions in synthesis campaigns
    • Adjusted by research project throughput and combinatorial library size

    Downstream process integration

    • Incorporated as a unique aromatic amino acid handle in small molecule scaffold synthesis
    • Used for late-stage functionalization in custom reagent development

    Final product types

    • Reference standards for analytical LC/MS or NMR workflows
    • Specialty reagents for chemical biology tools
    • Screening libraries for pharma and biotech R&D
    • Peptidomimetic research probes

    4. Fine Chemical Production for Biochemical Assays

    Biotech assay kit manufacturers include this material as a unique substrate or inhibitor in enzyme test panels and receptor binding experiments. Our controlled manufacturing delivers precise specifications for purity and counterion content, supporting batch-to-batch reproducibility in high-content screening or mechanistic studies involving amino acid analogues. Stability and solubility under aqueous assay conditions are consistent with regulatory documentation for raw materials in diagnostic manufacturing.

    Industry compliance standards

    • ISO 13485:2016 (Quality management for medical devices and IVDs)
    • FDA 21 CFR 820 (Quality System Regulation for IVD reagents)
    • CLSI Document C24 (Statistical Quality Control for Quantitative Measurement)
    • EN ISO 18113-1 (Information supplied by manufacturer of IVD reagents)

    Typical usage ratio

    • Formulated at 0.02–0.5 mg/mL in enzyme assay buffers
    • Dosing varies by target biomolecule’s Km and required detection sensitivity

    Downstream process integration

    • Dissolved directly into assay kit buffers during batch compounding
    • Aliquoted into single-use or multiwell format for packaged IVD test kits

    Final product types

    • Enzyme activity and inhibition assay kits
    • Diagnostic test kits for research-use-only (RUO) and regulated applications
    • Fluorescent or chromogenic assay panels
    • Automated screening platforms for pharmaceutical discovery
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    Certification & Compliance
    More Introduction

    DL-2'-Methylphenylalanine Hydrochloride: Insights from the Manufacturer’s Perspective

    Building on Years of Experience in Chiral Amino Acids

    Working at the intersection of science and industry, our direct handling of amino acid analogues such as DL-2'-Methylphenylalanine Hydrochloride gives us unique insight into the needs of research, pharmaceutical, and fine chemical production environments. Through hands-on experience, continual feedback from our partners, and a robust approach to process quality, we approach every batch of this specialized material as an opportunity to improve real-world outcomes for formulators and chemists grappling with challenging targets.

    The Crucial Role of DL-2'-Methylphenylalanine Hydrochloride

    Our product, DL-2'-Methylphenylalanine Hydrochloride, serves as a building block for researchers and developers working on synthetic projects where a subtle balance between structural similarity to natural phenylalanine and functional diversity matters. Its methylated aromatic ring, coupled with the racemic nature, extends the compound’s application envelope beyond ordinary amino acids. This isn’t just another basic building block; it brings nuanced properties that deliver value in both experimental and scale-up protocols.

    Through small changes in structure, such as the methyl addition at the 2’ position, chemists revisit side chain interactions and tune biological or chemical pathways. Feedback from partners in peptide research indicates that modifications at this position can influence folding, solubility and enzyme resistance—especially when compared to unmodified phenylalanine or other regiospecific analogues. For those developing peptide-based APIs, stability and activity sometimes hinge on just such subtle substitutions.

    Understanding the Model and Specifications

    Over long hours in production and the lab, one message comes through clearly: consistency and traceability matter more than grand claims. We maintain strict batch homogeneity for our DL-2'-Methylphenylalanine Hydrochloride offering, working to pin down purity above 98%, as confirmed by HPLC and NMR. Moisture content is tracked continuously, since conversion to the hydrochloride salt brings increased hygroscopicity. This lets downstream users minimize error in dosing and synthetic yields.

    Material we provide typically presents as a white to off-white crystalline powder, flowing well and not lumping under standard storage. For those scaling up from research to production, this material behavior reduces downtime and simplifies handling. We supply batch-specific documentation, and our staff answers technical queries directly, drawing on bench-level familiarity with the chemistry.

    Our standard model size—commonly in 25g, 100g, and kilo-scale options—reflects the needs of universities, start-ups, and large producers consistently working at differing scales. Routinely audited process controls track the origin and fate of every precursor. Each container ships with detailed COA and reference spectra, so those adopting new synthetic schemes know exactly what they put into circulation.

    Applications: Shaping Research and Industry Progress

    Over the past decade, we’ve seen this methyl-substituted derivative taken up in a growing slate of research projects. Our customer base points out the advantages of introducing such analogues into custom peptide libraries. For those chasing SAR (structure-activity relationship) data, swapping in DL-2'-Methylphenylalanine sheds light on how methyl groups tweak binding pockets or receptor recognition.

    Several academic labs draw on this material to map out enzymatic selectivity in vitro, using its steric and electronic features as probes. Peptidomimetic chemists report it as a tool to slow proteolysis or alter hydrophobic surface interactions. Those in diagnostics have described uses in the design of molecular recognition tools or tracers, where fine-tuning interactions means fewer false positives.

    Some teams reach out for custom packaging or purity profiles, especially those in the pharmaceutical pipeline needing to comply with increasingly rigorous trace impurity standards. Since we operate the manufacturing line, we accommodate process adjustments from gram- to multi-kilogram scale. Batch reactivity and performance then become part of a feedback loop, guided by chemists actually performing the synthesis, not just reading a data sheet.

    Key Differences from Other Phenylalanine Analogs

    Direct manufacturing lets us see firsthand why DL-2'-Methylphenylalanine Hydrochloride wins out over other modifications in specific contexts. The methyl group at the ortho-position—near the alpha amino group—brings a set of consequences you can track both at the bench and in outcomes. Increased steric hindrance might slow certain enzymatic cleavages or change aggregation patterns in peptides, a phenomenon we’ve discussed repeatedly with peptide engineers and medicinal chemists.

    Compared to meta- or para-methyl analogues, the ortho substitution places more electronic density adjacent to key reaction centers, which can shift reactivity in both expected and surprising ways. Direct conversations with peptide scientists reveal a clear trend: this regioisomer supports investigations into backbone torsion angles and side chain packing, with genuine leverage in optimizing for solubility or target interaction.

    Contrast this with L-phenylalanine hydrochloride. There, the chirality and lack of additional ring substitution limit its ability to disrupt normal bioactivity. DL-2'-Methylphenylalanine Hydrochloride opens new windows for selectivity studies because the racemic mixture provides both enantiomers. We find this particularly relevant to teams interested in mirroring, screening, or blocking natural ligands. By maintaining absolute confidence in our batch specs, we allow synthetic efforts to progress without the distraction of isomeric or chiral ambiguity.

    Streamlining Downstream Synthesis and Manufacturing

    From repeated conversations with both researchers and scale-up specialists, tiny deviations in physico-chemical properties cause big disruptions during complex syntheses. One team working on solid-phase peptide synthesis mentioned that inconsistent salt content led to variable resin loading—a costly setback. To preempt such headaches, we tightly regulate hydrochloride salt formation, double-checking assay by chloride titration and offering technical consulting on adaptation to each user workflow.

    Our quality system, shaped by real-world production runs, supports continuous improvement. Based on user feedback, we implemented closed-loop filling and controlled humidity environments for packaging. Consistent solubility, dispersibility and ease of measurement make a real-world difference when someone is preparing a hundred resin couplings each day.

    Some early clients struggled with competition-supplied samples that lumped under ambient conditions or exhibited low flow, leading to inefficiency. Tweaks to our final drying steps and packaging protocols mean users now report far fewer issues. Through such iterative changes, our product aligns with the operational realities that chemists face on a daily basis.

    Navigating Regulatory and Analytical Demands

    Working as a direct supplier, we support laboratories as they face increasingly stringent requirements around traceability, identification and documentation. Our knowledge of synthetic origins, thorough traceability records, and analytical transparency streamline compliance with institutional or regulatory audits. This depth of documentation reduces administrative burden for our users and keeps projects moving rapidly through approval gates.

    We maintain a standing commitment to upgrading detection capabilities. Our in-house team routinely updates analytical protocols, ensuring impurity profiling keeps pace with the evolving standards. For buyers in the pharma pipeline or contract synthesis, this provides peace of mind and a platform for smooth technology transfer. Our position as an actual manufacturer means we have the agility and technical backbone to support custom requests—whether it’s non-standard purity grades, documentation, or tailored supply chain solutions.

    Lessons from the Factory Floor

    Long experience producing specialized amino acid derivatives teaches lessons not captured in textbooks. Seasonal humidity swings, equipment tolerances, staff turnover—most chemical operations run right at the edge of control. Yet, predictable output and reliable product quality are not optional extras. For DL-2'-Methylphenylalanine Hydrochloride, the fine line between pharmaceutical-grade and research-use-only lies in hands-on operational diligence. Our best gains in product consistency have come from empowering trained operators to stop the line at any anomaly and pushing for root-cause investigations, not just patches.

    Our technical team often sits in on customer calls, sharing not just data points but stories about past process improvements. This exchange of practical knowledge reinforces supplier-user trust and leads to continuing refinement in both upstream chemistry and downstream integration. We keep learning from every batch, every query, and every challenge pushed our way.

    Tackling Supply Chain and Sourcing Challenges

    Direct manufacturing gives us leverage over the full breadth of sourcing, scheduling, and risk management. A couple of years ago, shifts in the global availability of base chemicals put real strain on the ability of external traders to fulfill time-sensitive orders. By holding control of precursor streams and investing in raw materials storage, we insulate downstream users from knock-on effects.

    Those working on tight development timelines have shared stories of unexpectedly long lead times when sourcing through a chain of distributors. By keeping production and supply in-house, we maintain more predictable schedules and can quickly inform partners of any changes or upgrades. That level of supply certainty has helped multiple collaborators keep to product launch timelines.

    Our sourcing team continually evaluates supplier credentials, tracks batch-specific lot numbers, and upholds a robust incoming QC regime. These practices aren’t about bureaucracy—they ensure uninterrupted flow and confirmed consistency once material enters the production line. When issues in global logistics arise, we can respond with agility unattainable to those without direct manufacturing capacity.

    Supporting Research and Commercial Growth

    As research and commerce intersect in the field of synthetic amino acids, real-time responsiveness and feedback prove critical. We’ve watched our DL-2'-Methylphenylalanine Hydrochloride pass from academic labs into pilot-scale production and then on into commercialized products. The path isn’t always linear—sometimes initial research findings lead to adjustments in purity specification or salt selection. Keeping manufacturing, testing, and documentation integrated allows us to respond in a way that third-party resellers or brokers cannot mimic.

    Research directors value productive dialogue around process optimization. In one recent collaboration, peptide chemists sought out detailed impurity and stability data, prompting us to devise extended stress tests and provide updated analytical results within the week. This level of service, grounded in our first-hand production experience, shortens the learning curve for new applications and lowers the barrier for advancing from benchtop to pilot plant.

    Adapting to Evolving Standards and Applications

    Change comes fast in specialty chemicals. Regulatory guidelines shift, end-user priorities evolve, and analytical expectations only grow stricter. Our ongoing investment in both upstream process control and downstream support ensures continued product relevance. We work daily with those who set higher bars for impurity profiles, batch-to-batch consistency, or technical data transparency.

    One of the sharpest growth areas has been in modified peptide development, both for therapeutic and industrial proteins. As innovation in therapeutic design moves forward, new analogues—such as DL-2'-Methylphenylalanine Hydrochloride—form the vanguard in stability and activity tuning. Custom use cases, spanning from new diagnostic tool development to advanced binding studies, benefit from our willingness to match custom specs and timelines. As the ground keeps shifting, our proximity to both the chemistry and the people using our products remains our strong suit.

    Feedback, Improvement, and Collaboration

    Open, two-way communication with users fundamentally shapes how our manufacturing team operates. Returns and complaints prompt direct investigation, not just apology letters. We keep a log of recurring challenges, whether it’s clumping after long shipping or questions about trace impurity levels, and meet routinely to convert these points into real process changes. Our in-plant analytical facility and robust data tracking make this improvement loop real, not bureaucratic theater.

    One recent change came from peptide R&D contacts who requested improved shelf-stability for longer storage—after joint troubleshooting, we revamped both packaging material and fill gas content. This cycle of adaptation, bolstered by actual user input, sets us apart from less nimble, less experienced operations. Our staff stands ready to discuss not only the fit of DL-2'-Methylphenylalanine Hydrochloride for current protocols, but also how to tweak or optimize supply for future projects.

    Challenges and Solutions: From Plant Floor to End Use

    Nothing substitutes for boots-on-the-ground experience. Each production batch brings fresh challenges—sometimes it’s an unexpected pH drift during crystallization, other times it’s adjusting to a subtle change in input quality. Years on the line have shown us that anticipating issues, rather than simply troubleshooting after the fact, keeps deliveries consistent and users satisfied.

    Several pharma clients require custom documentation for regulatory dossiers, including extended impurity tables or reference spectra. As the actual producer, our analytical chemists can generate those directly and provide full traceability. This approach supports smoother audits and faster market access. In one case, a custom pelletized version enabled automated dispensing in a new drug delivery workflow—developed rapidly and shipped under a tight turnaround because manufacturing and R&D communicated directly.

    Key Takeaways from Manufacture to Marketplace

    Working with DL-2'-Methylphenylalanine Hydrochloride, the difference lies in details only hands-on producers can consistently deliver. A robust process, engaged staff, and real-time integration of lab and factory make innovation and reliability possible—qualities essential for today’s competitive and rapidly shifting landscape.

    Upstream, close control over sourcing and synthesis guards against uncertainties that bedevil outsourcing-dependent supply chains. Downstream, our integration with customer needs keeps the product evolving in response to new application challenges. At every stage, we emphasize feedback, continuous learning, and knowledge transfer—from operator to end-user, from laboratory inquiry to high-volume scale.

    As the needs of researchers and commercial producers evolve, DL-2'-Methylphenylalanine Hydrochloride continues to shape discoveries and enable more refined solutions. With confidence born of experience, we remain committed to supporting every user striving to expand the frontier of peptide science and chemical synthesis.