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HS Code |
367436 |
| Name | (R)-(-)-2-Phenylglycine Chloride Hydrochloride |
| Cas Number | 1607-29-4 |
| Molecular Formula | C8H10Cl2NO2 |
| Molecular Weight | 222.08 |
| Appearance | White to off-white crystalline powder |
| Melting Point | 166-170°C |
| Optical Rotation | [α]D20 = -75° to -82° (c=1, H2O) |
| Purity | ≥98.0% |
| Solubility | Soluble in water |
| Storage Conditions | Store at 2-8°C, protected from light and moisture |
As an accredited (R)-(-)-2-Phenylglycine Chloride Hydrochloride factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.
| Packing | A 25g amber glass bottle with a secure screw cap, labeled clearly: (R)-(-)-2-Phenylglycine Chloride Hydrochloride, hazard warnings. |
| Shipping | (R)-(-)-2-Phenylglycine Chloride Hydrochloride is shipped in a tightly sealed container, protected from moisture and light. It is handled as a hazardous chemical, with all relevant safety and regulatory guidelines followed. The packaging complies with standard shipping regulations for chemicals, ensuring safe transport and delivery to laboratories or industrial locations. |
| Storage | (R)-(-)-2-Phenylglycine Chloride Hydrochloride should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area. Keep it away from direct sunlight, moisture, and incompatible substances such as strong bases and oxidizing agents. Store at room temperature, and ensure the container is clearly labeled. Follow all relevant safety and regulatory guidelines for chemical storage. |
Applications of (R)-(-)-2-Phenylglycine Chloride Hydrochloride in Industrial ManufacturingAs a specialized raw material manufacturer, we supply (R)-(-)-2-Phenylglycine Chloride Hydrochloride to various industries where high-purity chiral amine intermediates are critical for advanced synthesis. Below are verified downstream application scenarios, precisely documented for compliance, formulation, integration point, and finished products. 1. Active Pharmaceutical Ingredient (API) Stereoselective SynthesisGlobal pharmaceutical manufacturers employ this intermediate in enantioselective synthesis routes, especially for the production of non-proteinogenic amino acid-based APIs. Its role in asymmetric induction is crucial for manufacturing chiral drugs where enantiomeric purity directly impacts biological activity and meets stringent international requirements for drug safety and efficacy assessments. Our customers value the predictable reactivity and stereoselectivity during peptide coupling, where batch-to-batch consistency in raw material quality remains a regulatory focus. Industry compliance standards
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2. Peptide Manufacturing for Research ReagentsBiotechnology and life science research facilities incorporate this raw material in solid-phase peptide synthesis (SPPS), particularly for peptides with specific chirality requirements. The hydrochloride salt form enables rapid dissolution and compatibility with resin-based automated flow synthesizers. The material’s application directly impacts peptide sequence fidelity and post-synthesis purification, reducing the risk of misincorporation of non-canonical amino acid residues. Industry compliance standards
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3. Chiral Auxiliary in Agrochemical SynthesisMajor agrochemical manufacturers utilize the chiral pool approach with this hydrochloride for stereospecific synthesis of advanced pesticide intermediates. Its precise stereochemistry is essential for maintaining selectivity and regulatory-compliant environmental profiles in crop protection compounds. Adjusting molar ratios allows for tight control over isomer distribution, affecting downstream biological assessment and environmental risk evaluations. Industry compliance standards
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4. Fine Chemical Intermediate for Chiral Ligand SynthesisIn catalytic research and high-value fine chemical synthesis, chemical producers use this intermediate as a building block for the production of chiral ligands, catalysts, and related specialty compounds. The ability to generate ligands with precise enantiopurity enables downstream partners to achieve selectivity in transition-metal catalyzed transformations, which are foundational in the synthesis of flavors, fragrances, and advanced materials. Industry compliance standards
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5. Complex Amino Acid Derivative Manufacturing for Diagnostic KitsManufacturers supplying OEM diagnostic kit components incorporate this material in the targeted synthesis of complex amino acid derivatives used in trace level detection assays, such as clinical or food safety testing. The enantiopurity of the raw material affects assay specificity and analytical reliability. Its solubility and reactivity allow integration into multi-step modification processes for stable labeling or conjugation. Industry compliance standards
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6. Specialty API Intermediate for CNS Drug Research PipelinesFine chemical and pharmaceutical research teams utilize this chiral intermediate for preparative-scale syntheses of CNS-active compounds targeting neuroreceptor modulation. By selecting precise addition points, researchers achieve very high regioselectivity in advanced intermediate formation, which is fundamental to developing drug candidates with defined pharmacodynamics in early-stage R&D and preclinical validation. Industry compliance standards
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Stepping into the lab has shown us that real value in chiral building blocks stems from reliability and consistent performance, not just theoretical data sheets. Our (R)-(-)-2-Phenylglycine Chloride Hydrochloride, often known for its role as a key intermediate in pharmaceutical synthesis, results from years of refining both our process know-how and in-house technical standards. Unlike common commodity-grade options, we keep a tight focus on reproducibility between batches, knowing that fluctuation in enantiomeric purity or trace impurity profiles undermines downstream chemistry and business trust alike.
Starting from select precursors guarantees that the chiral center remains unaltered throughout synthesis. Chiral amines such as this form the foundation for a range of APIs, peptidomimetics, and organocatalysts. Once chemists scale up initial route scouting to kilogram or tonnage batches, unexpected impurities in an intermediate can ripple through to the final compound, introducing headaches and wasted investment just before the finish line. Our decades of bench work with (R)-(-)-2-Phenylglycine Chloride Hydrochloride revealed that careful control of crystallization, drying, and packaging steps means tangible peace of mind for process chemists and formulation teams downstream.
Handling this compound exposes the crucial differences between well-prepared solid and material that’s been rushed through an impersonal supply chain. Fine, free-flowing powder aids accurate measurement at the scale-up stage. We dial in particle size for consistent blending and reduced static, which proves essential for dispensing in dry rooms or transferring under controlled conditions. Tight locking lids and lined drums limit exposure to air and moisture—there’s nothing more frustrating than opening a drum to find clumped, degraded crystals.
Naming a ‘model’ doesn’t capture what counts. On the production line, purity and consistent stereochemistry drive value. Our usual benchmark for (R)-(-)-2-Phenylglycine Chloride Hydrochloride sits at enantiomeric excess values above 98%. In analytical runs, HPLC and polarimetry back up recorded rotations. NMR tracking, combined with residue-on-ignition and moisture measurements, keeps every lot accountable. Over time, our choice not to cut corners here has shielded our partners from batch-to-batch headaches that unsettle scale-up projects or GMP qualification. Actual analysis sheets always accompany shipments, along with detailed explanations of test methodology performed for that lot.
In practice, (R)-(-)-2-Phenylglycine Chloride Hydrochloride shines for medicinal chemists tasked with building out stereospecific synthons. In our own collaborations, the compound often features in the production of advanced cephalosporin intermediates, asymmetric ligands, and as a precursor for chiral auxiliaries. Custom peptide synthesis—and by extension, numerous modern macromolecular drugs—leans on this type of building block for both backbone assembly and functionalization steps. Rapid access to high-purity, reliable chiral amines directly shapes innovation timelines in drug development and materials research.
Working on the manufacturing floor, we see the distinctions between true producer and various trading operations. Direct manufacturer supply eliminates risk of untraceable re-packaging, cross-contamination on reseller lines, or quiet substitutions lurking behind a private label. We keep a line open with our users, allowing feedback after dozens or hundreds of batches actually run in reactors—not just in a spreadsheet cell. With every lot, we document the exact time and conditions of crystallization and QC, supplying photos and trace evidence rather than vague batch numbers.
A dry catalog page never tells the story of real-world interruptions in supply. Raw material shortages, logistics bottlenecks, or regulatory changes can halt an entire synthesis campaign mid-flow. By managing our upstream stockpiles and backup production capability in-house, we’ve seen how essential it is to remain agile. When global events or customs changes suddenly narrow material flows, being a full-process manufacturer makes the difference between delivering on a timeline and apologizing to frustrated partners. We watch over custom specs requested by clients in new drug applications or fine-tuned for emerging synthetic chemistry, knowing that a flexible mindset means no project gets stalled for lack of a single intermediate.
In the landscape of chiral intermediates, (R)-(-)-2-Phenylglycine Chloride Hydrochloride holds a singular position compared to, say, unsubstituted phenylglycine, the (S) stereoisomer, or various protected derivatives. Stereochemistry flips can seem subtle—at a molecular level, the mirror image makes or breaks biological signaling. Only the right isomer performs in certain cephalosporin or peptide syntheses, locking in the needed pharmacological behavior. Chloride hydrochloride provides a salt form that resists moisture and offers improved solubility over plain hydrochloride, supporting alternative reaction schemes, and making it a safer bet in pilot plant equipment or with sensitive coupling agents.
From our vantage point, purity runs deeper than a number on a COA. The true test arises at the next synthesis stage: do unwanted stereoisomers clog separation columns, force extra purification runs, or tank overall yield? Over a decade, case after case has reinforced that fastidious attention on enantioselectivity during production translates into higher project ROI for clients. Many labs learned that cheaper intermediates frequently carry hidden costs in extra waste processing, lost time, or unexplained QC hiccups found only after an expensive final product run. By keeping chiral integrity and thorough analytical transparency non-negotiable, both sides of the table see longer production cycles and robust partnerships.
We regularly help research and process development labs sidestep stumbling blocks with open technical support and decades of cumulative knowledge. Realistically, most scientists contact chemical manufacturers not just for material, but for insight on peculiar behavior seen in solution, reaction blending, or end-use application. Our teams work to provide honest feedback on storage conditions, reactivity predictions, and solvent compatibilities handed down from years of troubleshooting unexpected blips in process runs. That kind of institutional knowledge, built batch after batch, can’t be replaced by spreadsheet procurement systems or one-off promotional samples.
For (R)-(-)-2-Phenylglycine Chloride Hydrochloride, handling protocols stretch well beyond standard PPE. We build production to minimize any risk of cross-contamination or accidental exposure during weighing, charging into reactors, or packaging. Modern filtration, dust containment systems, and precise dosing setups help keep workers safe and output reliable. All washing and neutralization effluent passes through internally developed waste handling systems designed to curb both emissions and direct discharge. A conscious focus on environmental responsibility started long before tightening regulations, spurred instead by the simple observation that clean, responsible practice ensures the company’s longevity and community trust.
Most customers don’t need to see the inside of a reactor to know that transparent, accountable manufacturing is a two-way street. Today, we share real-time updates on production progress, delays, and new analytical data through secure digital platforms accessible to procurement teams worldwide. When an urgent change in project scope arises, our direct material control permits batch reallocation or expedited QA clearing, smoothing bumps before they become crisis points.
Not every synthesis can rely on standard specs. Many advanced projects in both biotech and materials science call for tweaks in salt form, particle character, or packing volume. Working with us, customers relay these needs directly to chemists and production managers, eliminating miscommunication and delay. Our flexible batch facility swings between gram and multi-ton output, driven not by rigid campaign planning, but by real-time client schedules and downstream demand. Scale transition support often proves decisive; our share of direct manufacturer-led tech transfer meetings lets project managers skip compatibility mysteries and move directly from bench chemistry to kilo-lab or full-scale output.
Over the years, news of unpredictable deliveries or unexplained product failures from less transparent sources has filtered back to us. Routes passing through multiple intermediaries struggle to preserve every detail of chain-of-custody. Differences in purity level, packaging integrity, and analysis tracking compound, creating weak links in the supply line—a risk that becomes critical in stringent pharmaceutical environments. As a direct manufacturer, we’ve built protocols so that every lot number ties back to origin, process sheet, and raw material source. These supply pipelines stretch beyond episodic transactions; for some of our partners, trust built up over a decade of consistent shipments now underpins entire business models.
From watching the evolution of pharmaceutical outsourcing, some patterns stand out. Commodity chemical pricing pressure has tempted many buyers to shop by spreadsheet cell rather than actual batch consistency or manufacturing transparency. It pays to remember that regulatory audits, scale-up qualification, and the demands of new synthetic campaigns can overturn assumptions about lowest price. For (R)-(-)-2-Phenylglycine Chloride Hydrochloride, the drive for new chiral process routes and faster time-to-market in drug discovery means procurement teams prize stability and company-wide technical backup. Our role as manufacturer doesn’t end at shipping a drum; it means committing to years of technical backup, rapid feedback to research pivots, and an open-book relationship when regulatory environments shift.
While many chemical intermediates move quietly through industry channels, the best partnerships form with real human contact. Phone calls at odd hours, video trouble-shooting sessions with bench chemists, and in-depth post-delivery follow-up all reinforce the conviction that chemistry is built on relationships, not just molecules. That sense of mutual investment shows in quality reports, shipment accuracy, and the everyday conduct of technical teams. It pays dividends each time a client’s new drug or advanced material reaches the finish line on time, built on reliable, fully characterized intermediates.
As chiral chemistry continues to advance, (R)-(-)-2-Phenylglycine Chloride Hydrochloride grows ever more critical as a safe, selective building block. We continuously review synthetic methods, green chemistry metrics, and process scalability to ensure the route stays as efficient as possible while maintaining low waste and minimal solvent load. Practical investments in recovery systems, process automation, and knowledge-sharing platforms have already delivered both performance and environmental gains. Attention to these evolving demands keeps both our clients and our production organization competitive and resilient.
Sourcing (R)-(-)-2-Phenylglycine Chloride Hydrochloride directly from a committed manufacturer unlocks advantages in reliability, technical feedback, and long-run value that stand apart from generic catalog offerings or rebottled bulk. Every enhancement to production, handling, and support contributes to real-world outcomes in laboratory, pilot plant, and full-scale synthesis. The close interplay between manufacturing rigor, scientific understanding, and ongoing client engagement defines performance for advanced intermediates—most of all for those, like (R)-(-)-2-Phenylglycine Chloride Hydrochloride, that underpin next-generation medicines and materials.