Tengfei Creation Center,55 Jiangjun Avenue, Jiangning District,Nanjing admin@sinochem-nanjing.com 3389378665@qq.com
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(+)-Baclofen

    • Product Name (+)-Baclofen
    • Alias Lioresal
    • Einecs 250-974-9
    • 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

    539979

    IUPAC_name (RS)-4-Amino-3-(4-chlorophenyl)butanoic acid
    CAS_number 1134-47-0
    Molecular_formula C10H12ClNO2
    Molar_mass 213.66 g/mol
    Synonyms Lioresal, Gablofen, Kemstro
    Melting_point 206-208 °C
    Appearance White crystalline powder
    Solubility_in_water Slightly soluble
    Pharmacological_class Muscle relaxant, GABA_B receptor agonist
    Optical_activity (+)-enantiomer

    As an accredited (+)-Baclofen factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The packaging for (+)-Baclofen (1 gram) features a sealed amber glass vial with a tamper-evident cap and a printed product label.
    Shipping (+)-Baclofen is shipped in secure, compliant packaging designed to protect the chemical from light, moisture, and physical damage. The container is clearly labeled with relevant safety and handling information. Shipment follows all applicable regulations for pharmaceutical and research chemicals, ensuring prompt, temperature-controlled delivery to maintain product integrity.
    Storage (+)-Baclofen should be stored in a tightly closed container at room temperature, typically between 20–25°C (68–77°F), away from direct sunlight, moisture, and incompatible materials. It should be kept in a dry, well-ventilated area, and protected from excessive heat. Proper storage ensures chemical stability and minimizes degradation or contamination. Always follow local regulations and institutional safety guidelines.
    Application of (+)-Baclofen

    Applications of (+)-Baclofen in Industrial Manufacturing

    As an original manufacturer, we supply (+)-Baclofen for select industrial applications in pharmaceutical synthesis and specialized chemical production. The following sections outline the practical industrial downstream uses, aligned with current global compliance requirements and actual production practices.

    1. Active Pharmaceutical Ingredient (API) Production for Neuromuscular Pharmaceuticals

    Pharmaceutical enterprises use (+)-Baclofen as an essential Active Pharmaceutical Ingredient (API) in the assembly of centrally acting muscle relaxants targeting spasticity disorders. The material requires compliance with pharmacopeial identity, purity, and impurity controls, following strict GMP protocols from raw material charging through granulation, compaction, and tableting. Quality assurance teams apply validated in-process analysis at critical stages to address batch-to-batch consistency and pharmacological safety. Final dosage forms include film-coated tablets and oral suspensions designed for controlled release profiles targeting adult and pediatric patient populations.

    Industry compliance standards

    • United States Pharmacopeia (USP)
    • European Pharmacopoeia (Ph. Eur.)
    • China Pharmacopoeia (ChP)
    • ICH Q7 GMP for APIs
    • US FDA 21 CFR Part 211

    Typical usage ratio

    • API concentration constitutes 5-10% w/w of solid dosage formulations.
    • Formulation varies on finished dose strength (10 mg, 25 mg tablets or equivalent per regulatory label claim).
    • Suspension preparations standardize concentration to 5 mg/mL, adjusted for age-specific weight-based dosing.

    Downstream process integration

    • Introduced at blending stage after audit-verified API receipt.
    • Dispersion and uniform distribution achieved via high-shear granulation.
    • Processed with excipient addition for direct tableting or encapsulation.
    • Subjected to in-process and final QC testing per validated methods.

    Final product types

    • Oral film-coated tablets (various strengths)
    • Oral suspensions (5 mg/mL and custom pediatric concentrations)
    • Immediate-release and extended-release formulations
    • Prescription medications registered in major regulated markets

    2. Pharmaceutical Intermediates for Enantiomeric Differentiation Research

    Research-based pharmaceutical manufacturers employ the product as a chiral intermediate for reference standard synthesis and bioactivity differentiation analytics, including the development of enantiomerically pure analogs targeting novel neuromodulatory pathways. Quality units conduct stereo-specific purity analysis via HPLC and chiral GC as per pharmacopoeial or project-specific protocols. Typical application includes scale-up in process development labs preparing regulatory submission batches for early-phase clinical trials or for comparative pharmacological studies of enantiomeric drug candidates.

    Industry compliance standards

    • Good Laboratory Practice (GLP)
    • ICH Q11: Development and Manufacture of Drug Substances
    • ISO/IEC 17025 accreditation for analytical reference labs
    • National regulatory review (FDA IND, EMA IMPD) for clinical research materials

    Typical usage ratio

    • 1-3 mmol scale for analytical research or reference standard synthesis
    • 500 mg – 10 g per batch during process optimization
    • Adjustments made for batch scale and downstream synthetic requirements

    Downstream process integration

    • Weigh-in occurs post-analytical acceptance and traceability checks
    • Incorporated in chiral resolution or further organic modification pathways
    • Material monitored for enantiomeric excess at each process step
    • Final product purified and analyzed for regulatory dossier inclusion

    Final product types

    • Enantiomeric reference standards (R- and S- isomers)
    • Characterized pharmaceutical intermediates
    • IMP (Investigational Medicinal Product) substances for clinical research
    • Certified analytical samples supporting method validation

    3. Precursor for Specialty CNS Drug Analog Synthesis

    Advanced pharmaceutical manufacturers utilize the material as a key precursor in custom synthesis pathways for analogs and derivatives focused on targeted central nervous system (CNS) indications. Regulatory filings require tight control of synthetic impurity profiles and documentation of traceability from starting material through each synthetic transformation. Engineering and QC personnel oversee filtration, recrystallization, or protection/deprotection steps optimizing for yield and chemical stability. Output supports bulk API delivery or supply of molecular candidates for further downstream pharmacological evaluation in the CNS drug pipeline.

    Industry compliance standards

    • ICH Q3A/B guidelines on impurities
    • Current Good Manufacturing Practice (cGMP) for chemical synthesis
    • REACH registration for manufacture/import in the EU
    • Safety Data Sheet (SDS) aligned with UN GHS

    Typical usage ratio

    • Starting material load: 50–500 g per batch in kilo-lab scale-up
    • Adjusted depending on desired analog output and overall synthetic yield (control from 60–90%)
    • Continuous monitoring dictates feed and work-up volumes

    Downstream process integration

    • Entry point: Initial condensation or activation step in CNS analog synthesis
    • Subsequent integration with amination, esterification, or cyclization based on target structure
    • Product isolation via preparative chromatography or crystallization at pilot scale
    • Impurity profiling and residual solvent removal per regulatory expectations

    Final product types

    • Novel CNS-active analogs (proprietary pipeline substances)
    • Advanced intermediates for new chemical entities (NCEs)
    • Batch samples for pharmacology or toxicology studies
    • Registered or investigational CNS-active APIs

    4. Reference Standard and Quality Control Material for Pharmaceutical Analysis

    Industrial analytical laboratories and pharmaceutical QC departments demand this raw material as a calibration and verification reference standard in routine batch-release testing. Compliance with international reference standard guidelines is mandatory, requiring assignment of certified purity and systematic documentation for audit purposes. Laboratories use certified reference samples in validated HPLC, NMR, and mass spectrometry protocols to assure the active ingredient content and identity in both in-process and finished dosage analyses, underpinning regulatory product filings and batch certification.

    Industry compliance standards

    • ISO 17034: General requirements for reference material producers
    • USP Reference Standards Program
    • European Directorate for the Quality of Medicines (EDQM) CRS guidelines
    • 21 CFR Part 211: Subpart I - Laboratory Controls

    Typical usage ratio

    • Standard solution concentration: 1–100 μg/mL in routine LC or GC calibration
    • Batches prepared on an as-needed basis, typically 10–100 mg aliquots
    • Ratio determined by analytical method sensitivity and analytical batch size

    Downstream process integration

    • Received under chain-of-custody and stored in QC-controlled conditions
    • Diluted for use in analytical assay calibration, system suitability, and stability studies
    • In-process QC for both raw material and finished pharmaceutical analysis
    • Results entered into electronic batch records as per regulatory guidelines

    Final product types

    • Certified reference standards (for internal QC use)
    • External QC proficiency testing materials
    • Documentation packages for regulatory dossier submission
    • Analytical standards for method validation and routine batch release
    Free Quote

    Competitive (+)-Baclofen prices that fit your budget—flexible terms and customized quotes for every order.

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    Certification & Compliance
    More Introduction

    Introducing (+)-Baclofen from a Manufacturer’s Perspective

    Understanding (+)-Baclofen and Why Chirality Matters

    Pharmaceutical markets often ask us about the difference between racemic Baclofen and its single-enantiomer forms—particularly the (+)-isomer. There’s a reason for the heightened interest in producing and supplying enantiopure (+)-Baclofen. As chemists and engineers with decades on the plant floor and lab bench, we see how the interplay between molecular structure and human health turns from theory to batch records. Handling Baclofen at scale, we've seen what subtle shifts in stereochemistry mean for downstream applications and patient outcomes.

    (+)-Baclofen, known chemically as (R)-4-amino-3-(4-chlorophenyl)butanoic acid, steps apart from the racemic product by the arrangement of its atoms in three-dimensional space. This difference might seem trivial to some, but for those of us immersed in stereochemistry, the impact is anything but. Medicines and materials based on chiral molecules show varied performance due to these arrangements. The human body also interacts with stereoisomers in distinctly different ways.

    From Feedstock to Crystalline Powder – The Manufacturing Journey

    Each batch begins with tight quality controls on incoming precursors, as impurities at the start risk snowballing through the entire process. It’s not enough to rely on conventional synthesis; separating enantiomers with high precision requires strong knowledge in both asymmetric synthesis and chiral resolution techniques. Decades ago, separation methods dragged with low throughput and challenging scale-up. In more recent years, investment in custom chiral catalysts and robust chromatographic equipment enabled us to reproducibly deliver (+)-Baclofen at kilogram-to-tonne scales. The result is a product with optical purities exceeding 99%. We constantly reinforce batch traces with NMR, chiral HPLC, and mass spectroscopic data. Personnel in our plant know that even subtle shifts in reaction parameters can nudge enantiomeric ratios out of specification.

    After synthesis, our teams dry the product under controlled vacuum, then bring powder granules into narrow particle size ranges. Dryness matters—clumped, wet, or dusty batches slow down further processing for our partners in formulation and research. Every step, from drying to packaging, runs with environmental and operator safety front of mind. Years of working with GABA-analogues taught us careful handling isn’t just about compliance—it helps everyone who touches the batch, all the way from process technicians to end-use pharmacists.

    Physical Specifications: The Unspoken Details

    We produce (+)-Baclofen as a fine white crystalline powder. On our line, color, texture, particle size, and smell tell experienced operators as much as test reports do. Any yellowish or off-white tinge signals process drift or contamination—our QC teams catch this early. Material flows, pours, and blends predictably thanks to controlled milling and sieving procedures. Stability studies under different humidity and temperature regimes help us set realistic shelf lives; too many chemicals degrade before use without this planning.

    Our standard batches range from 100g research packs up to multi-kilo drums for pilot and commercial use. The purity, usually above 99% by chiral HPLC, keeps our product in line with analytical and regulatory needs for further conversion or drug development.

    How (+)-Baclofen Differs from Racemic Baclofen

    Racemic Baclofen, which many in the field recognize from classic muscle relaxant therapies, contains both (+)- and (–)-enantiomers in a 1:1 mixture. The two forms are mirror images but are not identical in biological effect. In our manufacturing experience, preparing the single-enantiomer variant addresses a crucial point—the same mass of drug can trigger different levels of activity or produce different side effect profiles, depending on the arrangement of atoms.

    Pharmaceutical scientists and clinicians inform us regularly that (+)-Baclofen exhibits specific activity profiles distinct from the racemic or (–)-forms. Molecular pharmacology studies traced subtle—but real—differences in CNS effects, receptor affinities, and metabolic pathways. Research supplies from our plant power studies that dissect how each enantiomer interacts with GABA-B receptors. In practical settings, single-enantiomer APIs (active pharmaceutical ingredients) offer a cleaner interpretation of clinical results. Adverse events attributed to non-active or counterproductive isomers get minimized, which resonates with both drug developers and the regulatory community. Our job then becomes one of reproducibility, accuracy, and rigorous traceability batch to batch.

    Producing the single active isomer adds additional steps and cost compared to the simpler racemate. These aren't just technical hurdles. Choosing (+)-Baclofen over its racemic cousin reflects a commitment to precision—serving a generation of biopharma projects focused on isomer-specific action. For us, the question isn’t about complicated terminology but about supporting innovative research with a consistently high-quality product.

    Key End Uses and Industry Feedback

    Customers who purchase from our facility come from diverse sectors: academic labs mapping GABA pathways, pharmaceutical innovators testing new indications, and CROs handling scale-up and formulation studies. We routinely consult with R&D groups adopting (+)-Baclofen to probe differences in neurotransmitter modulation. Some seek to compare head-to-head against the classic racemic Baclofen, aiming for improved side effect or efficacy profiles in animal models.

    Clinical teams are not the only ones interested in our work. Regulatory affairs experts often reach out to discuss impurity profiles, stability parameters, and chiral purity data for submissions in North America, Europe, and Asia. Our documentation and batch traceability systems, honed by years of audits, help customers assemble comprehensive CMC (chemistry, manufacturing, and controls) packages that save time and questions during regulatory submission reviews.

    Practical Considerations on Handling and Usage

    On the technical side, our (+)-Baclofen dissolves efficiently in standard research solvents—water, saline, methanol—based on intended procedure. Good solubility helps in preparing injectable or oral formulations during preclinical development. Pharmacologists and analytical chemists, who spend countless hours pipetting, weighing, and blending, value this consistency. For any batch, our certificate of analysis offers melting point ranges, moisture content, chiral purity, and residual solvent data—all derived from real on-site tests. Each unit receives barcoded seals to maintain supply chain transparency. In-process samples from drum to smaller containers help us guarantee the same structural integrity in every lot.

    The Imperative of Reliable Supply and Collaboration

    No chemical line runs perfectly without feedback from real-world users. We build relationships with scientific partners, often inviting them to examine our facilities, review synthesis methods, and audit certificates. Years in the field taught us that selling chemicals isn’t just about pouring powders into drums; it’s about solving logistical challenges together. Sometimes this means adjusting the granularity of powders for automated feeders. Other times, feedback guides us to offer batch-specific documentation or rush deliveries before upcoming grant submission deadlines.

    Bioanalytical contract labs investing in new method validation or preclinical studies often need rapid turnaround and documentation flexibility. We accommodate these with special labeling, extra analytical verification, or tailored lot sizes. These arrangements aren’t theoretical—they stem from dozens of regular phone calls and technical emails shaping how our product travels from synthesis flask to use case.

    Chiral Resolution: Complexity and Solutions

    Moving from racemic to single-enantiomer outflow takes experience with both process scale chiral chromatography and custom catalytic systems. Early on, problems like column fouling, low recovery rates, or inconsistent reagent quality haunted our attempts at reliable, scaleable (+)-Baclofen production. Persistence and iterative improvement, not textbook solutions, offered ways forward. Over years, we resourcefully tuned solvents, pressure, and catalysts—measured not just in R&D yield but in line stability, operator exposure, and cost-effectiveness.

    Partnering with colleagues in academia and industry helped us stay ahead. University collaborators often shared insights on emerging enantioselective technologies, and we brought their methods up to pilot scale, feeding back what worked and what didn’t once batch sizes increased. Every viable idea—whether a new resin, additive, or temperature ramp—gets tried on small batches internally before full production.

    Quality Assurance, Compliance, and Traceability

    Batch quality doesn’t arise from paperwork—it comes from rigor at every junction. Every stage—reactor, filter, dryer, packer—sees internal checks designed to catch non-conformance before problems snowball. In-process validation, combined with post-production analytics, builds confidence among our regulatory and pharmaceutical partners. We routinely audit ourselves, challenging both process flow and final documentation for gaps. Our staff understands that every kilogram of (+)-Baclofen carries expectations for purity and safety—failures in traceability or confirmations aren’t just clerical errors but can trigger costly recalls or, worse, harm to downstream research.

    Traceable materials management ensures source integrity. Input logs, batch flows, deviation investigations, and electronic batch records guarantee completeness for audit trails. Customers tap into this backbone, leveraging our transparent approach as a foundation for their own regulated development efforts.

    Environmental Sustainability and Safety

    Solvent use and process waste in chiral separations always pose challenges. Traditional routes relied on resource-heavy solvents, driving up both waste streams and operational risk. Investing in closed-loop recycling systems and vapor recovery helps us lower emissions and solvent costs. Teams designed waste minimization strategies from the ground up, equipped with feedback from years spent handling hazardous streams. Many plant modifications—custom in-line filtration, real-time pH monitoring on effluent, or improved air handling in cleanrooms—arose from on-site observation, not only regulatory mandates. Our plants comply with environmental regulations, but the goal stays broader: keeping our coworkers and local community safe.

    Operator safety receives equal priority. Training modules, annual refresher courses, and real-world scenario drills keep incident rates low. Every incident, even near-misses, funnel into our continuous improvement system—building safer practices batch after batch.

    Looking Ahead: The Future of (+)-Baclofen and Chiral APIs

    Growing demand for highly specific therapies—especially neurological and pain-related research—positions (+)-Baclofen as a preferred research building block. Projects arriving at our inbox today stretch across neurodegenerative disorders, addiction studies, and rare disease research. Scientists and product developers rely on our ability to scale, robustly and transparently, aligning chemistry to tomorrow’s demands.

    Our approach combines empirical experience on the plant floor with openness to new ideas emerging from journals, collaborators, and even competitors. We listen to customer feedback—method validation challenges, storage quirks, formulation trial setbacks—and adapt our processes to help them succeed. Future investments point toward greener, higher-throughput resolutions and improved process automation, minimizing both cost and waste. If history has shown the chemical manufacturing field anything, it’s that listening on both sides of the delivery dock matters as much as the science in the flask.

    Value in Choosing a Proven Manufacturer

    In our work, we’ve seen cheap shortcuts in chiral chemistry invite setbacks—lost batches, regulatory snags, or irreproducible research. Trusting a supplier isn’t about paperwork gloss. It’s about delivering on every batch, every time, without surprises. Our years in the trenches remind us that reliability builds projects, not speculative promises. Institutions, contract manufacturers, and startups alike turn to us for this reason, feeding their innovation pipelines with single-enantiomer Baclofen they can trust—and trace back to a source that stands behind every specification.

    Our daily job isn’t just manufacturing a molecule, but supporting the millions of downstream activities it enables—formulation research, method validation, clinical investigation, and the search for safer, more targeted treatments. That journey starts at the manufacturing line. We’re proud to be part of it, batch after batch, challenge after challenge.