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Benzyl Glycinate Hydrochloride

    • Product Name Benzyl Glycinate Hydrochloride
    • Alias H-Gly-OBzl·HCl
    • Einecs 629-658-7
    • 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

    502575

    Chemical Name Benzyl Glycinate Hydrochloride
    Molecular Formula C9H12ClNO2
    Molecular Weight 201.65 g/mol
    Cas Number 4456-00-4
    Appearance White to off-white crystalline powder
    Solubility In Water Soluble
    Melting Point 178-182°C
    Purity Typically ≥98%
    Storage Conditions Store at 2-8°C, protected from light and moisture
    Ph Of 1 Solution Approximately 2.0-3.0

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

    Packing & Storage
    Packing Benzyl Glycinate Hydrochloride, 100g, supplied in a sealed amber glass bottle with tamper-evident cap and detailed safety labeling.
    Shipping Benzyl Glycinate Hydrochloride is typically shipped in tightly sealed containers to protect against moisture and contamination. The product should be stored and transported at room temperature, away from direct sunlight and incompatible substances. Shipping must comply with relevant regulations for non-hazardous chemicals, ensuring proper labeling and documentation for safe handling and delivery.
    Storage Benzyl Glycinate Hydrochloride should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from direct sunlight and sources of ignition. Protect from moisture and incompatible substances such as strong oxidizing agents. Recommended storage temperature is 2-8°C (refrigerated). Proper labeling and handling should be ensured to prevent contamination and accidental exposure.
    Application of Benzyl Glycinate Hydrochloride

    Applications of Benzyl Glycinate Hydrochloride in Industrial Manufacturing

    Benzyl Glycinate Hydrochloride serves as a key intermediate in several tightly regulated downstream industries. As a manufacturer with expertise in process optimization, we supply this material to integrated production lines requiring consistent quality and high purity for chemical synthesis. Below, we detail real-world scenarios and specific application practices across diverse sectors.

    1. Pharmaceutical Intermediate for Peptide Synthesis

    This raw material acts as a protected glycine derivative for solid-phase peptide synthesis, especially when synthesizing custom peptide drugs and research peptides. Its hydrochloride form ensures enhanced reactivity and solubility in the coupling stages. Efficient deprotection and robust reactivity allow downstream producers to achieve high-purity sequences for investigational medicinal products and active pharmaceutical ingredients. Regulatory demands stipulate traceability and safety from raw material to peptide product batch release.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • Pharmacopoeias: USP, EP, JP for related peptide drug substances
    • GMP certification in synthesis plant and supply chain
    • REACH and local chemical registration for handling

    Typical usage ratio

    • 0.5–5.0 equivalents relative to amino acid chain elongation step
    • Adjustment based on target sequence length and protection group profile

    Downstream process integration

    • Direct feed into N-terminal protection steps of solid-phase peptide synthesis (SPPS) reactors
    • Parallel amino acid addition for combinatorial library synthesis
    • Solubilization in dimethylformamide or similar solvents prior to coupling
    • Deprotection and purification aligned with GMP protocols

    Final product types

    • Investigational peptide pharmaceuticals
    • API for synthetic peptide drugs
    • Custom peptide sequences for diagnostics
    • Reference peptides for analytical labs

    2. API Intermediate for Specialty Amino Acid Derivatives

    In the manufacture of specialty amino acid derivatives, this compound provides a stable benzyl-protected glycine source. It is used by API manufacturers for producing custom glycine esters and related compounds where selective deprotection is required. Process repeatability and minimization of side reactions are critical due to stringent impurity profiles demanded by regulatory audits. High batch-to-batch consistency is essential for downstream pharmaceutical registration.

    Industry compliance standards

    • US FDA 21 CFR Part 210/211 for drug substance manufacturing
    • Good Distribution Practice (GDP) for raw material supply
    • Certificate of Suitability to the Monographs of the European Pharmacopoeia (CEP)
    • ISO 9001:2015 certified quality management systems

    Typical usage ratio

    • 1.0–2.0 equivalents per carboxylation or alkylation reaction
    • Adjusted per targeted yield and impurity level specified by QC

    Downstream process integration

    • Charged to synthesis reactors in the protection phase
    • Used in stepwise formation of benzyl-protected glycine derivatives
    • Coupled through acid-catalyzed or base-catalyzed conditions
    • Precursor for downstream hydrolysis, hydrogenolysis, or amide bond formation

    Final product types

    • Benzylglycine esters for further API synthesis
    • Specialty intermediates for active drug substances
    • Amino acid-based building blocks for custom synthesis labs
    • Reference standards for amino acid derivative analytics

    3. Chiral Synthesis for Fine Chemical Production

    Chemical manufacturers integrate this material as a chiral source or auxiliary in the synthesis of optically active compounds. Its benzyl and glycine segments allow production of non-racemic molecules used in catalysts, ligands, and advanced synthetic intermediates. Supply partners demand high stereochemical purity and minimal contamination from related amino acid by-products. Production lines implement real-time monitoring and cleaning validation for downstream stages.

    Industry compliance standards

    • ISO 9001 for quality management in fine chemical synthesis
    • REACH Annex VII compliance for hazardous chemicals
    • Local chemical handling permits for bespoke chiral syntheses
    • Internal QC protocols for chiral purity and trace metal content

    Typical usage ratio

    • 0.2–1.0 molar equivalents per asymmetric synthesis batch
    • Tunable according to catalyst load and target product requirements

    Downstream process integration

    • Introduction in early-stage enantioselective coupling reactions
    • Applied as chiral ligand or auxiliary in catalytic reactions
    • Crucial for stepwise resolution or kinetic resolution processes
    • Continuous analytical verification post-reaction for chiral outcome

    Final product types

    • Chiral ligands for asymmetric catalysis
    • Stereospecific pharmaceutical intermediates
    • Optically active fine chemicals
    • Building blocks for agrochemical research

    4. Cosmetics and Personal Care Ingredient Synthesis

    Downstream suppliers use this intermediate in the synthesis of functional amino acid-based compounds for active cosmetic ingredients. Cosmetic manufacturers require documented sourcing and traceable quality for all chemical feedstocks. Typical applications include synthesis of conditioning agents, antioxidant peptides, and customized skin care actives. Ability to integrate into water-based and emulsion-based formulations is key. All processing steps must conform to applicable regional cosmetic regulations and banned substance lists.

    Industry compliance standards

    • EU Cosmetic Regulation (EC) No 1223/2009
    • ISO 22716:2007 Cosmetics GMP
    • IFRA Standards for fragrance and ingredient purity
    • REACH registration for cosmetic-use raw materials

    Typical usage ratio

    • 0.1–0.8% w/w in precursor solution relative to active ingredient batch size
    • Adjustment based on targeted claim levels and permitted maximum inclusion under local regulations

    Downstream process integration

    • Charged into synthesis vessels for peptide or active ingredient formation
    • Dissolved or dispersed in aqueous phase of personal care formulation
    • Purified prior to blending into bulk cosmetic bases
    • Documented via batch record for finished cosmetic actives

    Final product types

    • Amino acid-derived skin conditioners
    • Antioxidant peptide ingredients
    • Peptide-based anti-aging actives
    • Hair conditioning agents for premium formulations

    5. Industrial Research Chemicals and Analytical Reference Standards

    Contract research organizations and analytical labs use this material as a qualified reference standard or reactant for chemical characterization, assay validation, and trace impurity determination. Accurate content and purity documented by the manufacturer facilitate reliable calibration across diverse analytical platforms. End-users require supporting analysis certificates and stability data when incorporating the compound into method development or proficiency testing. Supply requires comprehensive documentation to meet the requirements of international research institutions.

    Industry compliance standards

    • ISO/IEC 17025 for chemical testing labs
    • GLP (Good Laboratory Practice) Guidelines
    • Traceability according to NIST reference material standards
    • Accreditation for supplier reference sample support

    Typical usage ratio

    • 5–50 mg per assay calibration or method validation run
    • Dependent on instrument sensitivity and detection limit required

    Downstream process integration

    • Used to prepare standard solutions for chromatography and spectroscopy
    • Applied in spiking studies for method development
    • Integrated into quality control panels for impurity profiling
    • Incorporated into SOPs for routine content and purity verification

    Final product types

    • Analytical reference standards
    • Certified calibration solutions
    • QC validation samples
    • Research-use-only chemical arrays
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    Certification & Compliance
    More Introduction

    Benzyl Glycinate Hydrochloride: Product Introduction from a Chemical Manufacturer’s Perspective

    Understanding Benzyl Glycinate Hydrochloride in Everyday Manufacturing

    In the chemical industry, every product we bring forward carries knowledge built over years of hands-on synthesis and process improvements. Our Benzyl Glycinate Hydrochloride demonstrates that tradition fully. The compound comes to us through rigorously refined techniques aimed at consistent purity and reproducibility, which manufacturers and formulators rely on across different sectors.

    Our team has spent years learning what production variables actually affect the quality of amino acid derivatives, especially in the production of Benzyl Glycinate Hydrochloride. Every step—from raw material sourcing to the reaction itself—affects the final product. We’ve seen firsthand how even subtle changes in reaction pH or temperature can shift the impurity profile, so we don’t leave such controls to chance. The result: a material ready for downstream conversion, free from residual solvents and unreacted precursors.

    Model and Specifications: Real-World Application Drives Design

    In the lab, Benzyl Glycinate Hydrochloride is often simply called “BG-HCl.” Our production lots maintain a purity specification suitable for fine chemical and pharmaceutical synthesis, with controlled water content and a well-characterized particle size distribution. The batches run from kilogram scales up to several metric tons, depending on customer needs. We maintain typical identity by NMR and IR, keep chloride content within industry standards, and guarantee traceability from starting amino acids onwards.

    We understand from years of feedback that material that cakes or picks up moisture during shipment causes delays at the end-user’s plant. Our finished Benzyl Glycinate Hydrochloride passes tests for free-flowing performance. Packs always use polymer liners and sealed drums to resist moisture uptake, especially during humid-season transport. This protects the product’s chemical integrity right up to moment of use, reducing scrap and batch variation in customer hands.

    How This Product Is Used on Production Lines

    Most customers take Benzyl Glycinate Hydrochloride into advanced synthesis steps. The structure fits especially well in peptide synthesis workflows, where the benzyl group protects the glycine backbone, avoiding side reactions. Our colleagues in pharma appreciate that, since it lowers the possibility of manufacturing failures related to byproducts.

    Other buyers turn to this product in specialty fine chemical manufacture, since benzylated derivatives behave reliably under a range of catalytic hydrogenation and substitution conditions. We see real savings for customers who use this product to protect labile amines or create building blocks for custom APIs. The hydrochloride salt form simplifies handling, too. Chloride is a familiar counter-ion in most plants, and operators appreciate not facing dangerous dust or unpredictable pH swings.

    From our own experience, switching from a base form to a hydrochloride salt cleaned up several persistent issues in our own pilot lines: crystallization steps finished faster, filtration rates rose, and we no longer saw unplanned yellowing in final drying. These aren’t just marginal gains—each has cut costs for us and in turn for customers, particularly by reducing the need for costly repurification.

    Field Test Results and Insights We’ve Gathered

    Living in the chemical industry for decades, the small details stand out. That includes how Benzyl Glycinate Hydrochloride performs in demanding environments and how it interacts with other raw materials. We track how it functions in batch processing, continuous lines, and even under pressure-driven flow reactors. One customer in Japan, for example, reported smoother operation during esterification when using our product compared to a Chinese competitor’s. They noticed fewer filtration problems and shorter runtime, which they passed on as cost savings to their own clients.

    We’ve sent technical staff on-site to troubleshoot downstream reactions and noticed how the way Benzyl Glycinate Hydrochloride dissolves touches efficiency in the whole process. Some think of dissolution simply as a routine step, but in our field, poor solubility can cause micron-scale clogging or uneven reaction rates. Over the years, we tuned our drying process and grind profiles to maximize both dispersibility and stability during storage. As a result, customers see faster mixing and fewer undissolved particles, streamlining everything from laboratory trials to full-scale manufacturing.

    We also spent time comparing traditional crystallization solvents to greener alternatives. It took dozens of trials in pilot kettles before we landed on a process that reduced residual solvent and yielded a product matching rigorous purity specs. We’ve moved toward greener solvents to protect both worker health and the downstream water system. Every change here is something we’ve adopted ourselves—lessons learned on our own line, not just in the literature.

    Differences That Matter: Benzyl Glycinate Hydrochloride vs. Other Glycine Derivatives

    Comparing Benzyl Glycinate Hydrochloride with other glycine-based intermediates reveals some points that often get overlooked. The benzyl protection isn’t just a trivial structural tweak. It changes the reactivity profile—safeguarding the alpha-amino group from unwanted side reactions until the right deprotection moment. In peptide synthesis, this makes the difference between high selectivity and unwanted contamination.

    We’ve handled cases where customers tried to use unsubstituted glycine hydrochloride instead. The results? Reduced yields, troublesome byproducts, and occasional batch failures, all of which meant wasted time and raw materials. The benzyl group in Benzyl Glycinate Hydrochloride acts as a reliable temporary guardrail. It allows for stepwise assembly with strong yields, then releases cleanly under typical hydrogenation without leaving behind stubborn residues.

    Looking at other protection schemes—such as t-butyl or carbobenzoxy (Z)—we’ve had customers ask about cost or ease of removal under process conditions. Benzyl protection offers a simpler deprotection pathway by catalytic hydrogenation—a step most plants can handle with in-house capability. This lends predictability to scale-up and can cut costs. Each time we’ve compared in-process analytics, benzyl groups come off efficiently, reducing post-reaction clean-up work.

    Why Manufacturers Invest in Quality Standards

    One thing that sets our Benzyl Glycinate Hydrochloride apart traces back to rigorous in-process checks and batch tracking. We don’t just test finished product; our QC lab pulls samples at every major milestone, running NMR, HPLC, and Karl Fischer tests that map onto both in-house criteria and pharmacopoeial reference standards when applicable. If an outlier appears, we hold the batch until we resolve it, no matter the production schedule. This principle has guided our operations from the earliest days, and while it sometimes slows us, it has saved us and our customers from costly rework or product recalls.

    Every customer batch comes with a detailed certificate. We keep retain samples for every shipment for years, which means we’re equipped to respond if questions or regulatory checks arise in the future. We’ve faced spot inspections and regulatory audits and have always found that meticulous documentation carries as much weight as analytical technique. Transparency and accountability are built into the way we run every vessel and every dryer.

    Part of our quality assurance comes from choosing reliable raw material suppliers. Not every amino acid supplier performs to the same standard, especially as sourcing has globalized and competitive pressures mount. We stick with proven vendors, running spot checks on every incoming lot for both assay and impurity profile. This approach has guarded us against the kinds of batch failures that can undermine a customer’s confidence.

    Process Reliability and Knowledge Transfer

    In our field, formulas often get published, but the little tricks and pitfalls usually don’t make it into journals. That’s where experience on the shop floor proves its worth. We’ve hosted many customers who send their chemists for joint trials or process troubleshooting. This real-world training helps catch issues that pure theory might miss—like dust behavior during weighing or minor variables that affect cooling crystallization yields.

    We build knowledge by sharing learning at every stage. We have internal debriefs on finished projects, looking at not just technical yield, but waste stream volume, handling loss, and even how minor tweaks improved workload for our own operators. Manufacturing isn’t just chemistry; it’s the sum of small process improvements earned by every team member.

    We work with technical buyers, process chemists, and sometimes R&D teams who are scaling up from grams to multi-ton lots. They ask for stability data, impurity pathways, and sometimes even on-site support during their first couple of runs. Our own technical support team steps in with practical recommendations—what kind of solvent systems we’ve found cause trouble, which agitation speeds reduce clumping, or why staggered addition beats rapid charging for this particular molecule.

    Real-World Safety Practices and Worker Attention

    Handling Benzyl Glycinate Hydrochloride doesn’t present unique safety challenges, but we still keep a close eye on real conditions. Dust management is a regular issue. We specify humidity-controlled rooms for charging and unpacking, both for operator comfort and for product integrity. PPE remains standard, and training sessions reinforce steps for safe drum opening and transfer.

    We also work to minimize odorous byproduct formation, especially in larger scale reactors. Blocking exposure to air and keeping headspace blanketed with inert gas where feasible keeps nitrile byproducts well below actionable thresholds. We use this approach as much to protect our staff as to ensure downstream customer utility.

    Disposal and effluent are constant priorities. We treat every batch mother liquor to break down organics and neutralize any chlorides in-house before going to the treatment works. This goes beyond regulations—it builds public trust and secures our operating permit in the local area.

    Supply Chain Security and Traceability

    Maintaining reliable supply of Benzyl Glycinate Hydrochloride isn’t about stacking extra warehouse stock; it’s about having a durable process and trusted shipping partners. We saw, especially during global supply chain disruptions, how delays in even a small component could knock out entire downstream schedules. To prevent this, we keep buffer stocks of both starting materials and finished product, and maintain open lines with every transport company that touches material headed to a customer.

    Every batch is tagged and tracked electronically from reactor to warehouse to outbound shipment. If a customer calls with a lot number, we pull its manufacturing record in minutes, including every QC datapoint. This has helped us catch errors early—before finished material ever reaches a customer’s door.

    We’ve seen less reputable suppliers skip these steps, and their failures end up with contracts pulled or renewed at a lower rate. Our goal is to build a record of reliability that guarantees our Benzyl Glycinate Hydrochloride shows up when needed and works as expected—never missing a slot in a Just-in-Time manufacturing schedule.

    Adapting Continually to User Feedback

    Real feedback matters more than any internal assumption. When a pharmaceutical customer reported higher levels of a minor impurity, we pulled the originating batch, ran additional separation steps, and traced the cause to a recently substituted filtration aid. We switched back, informed every customer, and updated our own control documents. Each new project brings another set of user-driven requirements—tighter color limits, even lower bioburden, or alternate packaging sizes.

    Customers in other regions often need documentation supporting regional compliance standards. We keep a repository of regulatory and analytical support files for our key products, and technical staff regularly update and review these. Some users have asked for in-person factory audits or customized validation runs. We treat each of these as new opportunities to both improve and support the trust that keeps us connected to our users.

    Solutions to Market and Process Challenges

    The chemical market doesn’t pause for anyone. Prices of core feedstocks shift, shipping schedules get interrupted, and regulatory demands grow more complex each year. We counteract all three through constant process review. For instance, when faced with interruptions in available glycine supply, we partnered with a secondary supplier, qualified their lots through a full revalidation, and now dual-source all upstream raw materials. This has reduced customer lead time, even under stress.

    On the technical front, we’ve invested in lab-scale reactors that model every major variation—a sort of sandbox for testing how process changes affect Benzyl Glycinate Hydrochloride at pilot scale before they become expensive mistakes. This helps us advise customers about safety margins during scale-up and confirms new lots match previous runs.

    As regulations evolve, especially around hazardous waste and emissions, we preempt issues by working with local regulators and industry groups. We regularly host visitors from these agencies, setting a transparent tone and opening all records. This approach not only builds trust but also speeds up permit renewals and helps ensure our Benzyl Glycinate Hydrochloride production remains future-proof.

    Final Thoughts on Responsible Manufacturing

    Benzyl Glycinate Hydrochloride isn’t just a catalogue entry for us. It’s the result of years of learning what works and what fails, both in process chemistry and in supporting customer programs that depend on reliable, high-quality material. Real value isn’t about just numbers on a spec sheet—it comes from the stability, purity, and safety practices we’ve built into every run, every shipment, and every request for technical support.

    Working as a manufacturer in the chemical industry, we see products through their whole lifecycle—from sourcing to final use on a customer’s line. That context changes how we think about every drum shipped, every feedback call, and every process upgrade we make. We welcome questions, technical challenges, and opportunities for real improvement, because experience in day-to-day manufacturing is the only way to truly strengthen both our own capabilities and those of our partners worldwide.