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DL-Amphetamine

    • Product Name DL-Amphetamine
    • Alias racemic amphetamine
    • Einecs 200-175-3
    • 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

    162752

    chemical_name DL-Amphetamine
    cas_number 300-62-9
    molecular_formula C9H13N
    molecular_weight 135.21 g/mol
    appearance White crystalline powder
    melting_point 97-98°C
    solubility_in_water Freely soluble
    chirality Racemic mixture (contains both dextro and levo isomers)
    usage CNS stimulant; precursor in pharmaceutical synthesis
    storage_conditions Store at room temperature, away from light and moisture

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

    Packing & Storage
    Packing White, opaque plastic bottle labeled “DL-Amphetamine, 25 grams,” featuring a red hazard symbol and manufacturer details, with a tamper-evident seal.
    Shipping DL-Amphetamine is shipped in compliance with hazardous materials regulations, using secure, tamper-evident packaging to ensure safety and prevent contamination. The shipment includes all required documentation, such as safety data sheets (SDS), and is transported by certified carriers with tracking. Delivery is restricted to authorized, licensed recipients only.
    Storage DL-Amphetamine should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from incompatible substances such as oxidizers and acids. Protect it from light and moisture. Store at room temperature and keep out of reach of unauthorized personnel. Ensure proper labeling and secure storage to prevent theft or misuse, as it is a controlled substance.
    Application of DL-Amphetamine

    Applications of DL-Amphetamine in Industrial Manufacturing

    DL-Amphetamine serves specialized functions in pharmaceutical and chemical synthesis sectors. Its applications are strictly regulated and tightly controlled, with production and downstream integration subject to detailed pharmacopoeial standards and chemical handling protocols. Below, we outline key application sectors where industrial use is documented and allowed by law.

    1. Pharmaceutical Active Pharmaceutical Ingredient (API) Synthesis

    DL-Amphetamine operates as a chiral building block and precursor within certain central nervous system (CNS) stimulant formulations, primarily for authorized research, reference standards, and controlled drug synthesis. Industrial users process this intermediate in GMP-compliant facilities only, focusing on production for authorized pharmaceutical laboratories or as a key reagent for drug discovery workflows. All processes are documented with batch traceability and output undergoes strict validity checks under pharmaceutical regulations.

    Industry compliance standards

    • United States Pharmacopeia (USP) for API manufacture
    • European Pharmacopoeia (Ph. Eur.) monographs
    • Current Good Manufacturing Practice (cGMP) regulations (21 CFR Parts 210/211)
    • DEA/EMA precursor handling protocols with record-keeping for controlled substances

    Typical usage ratio

    • Ranges from 0.5% to 5% of total batch composition, optimized based on target API potency, molecular conversion rates, and pathway yield; adjusted according to specific research or manufacturing targets

    Downstream process integration

    • Incorporated during early-stage synthetic organic reactions or amidation steps, followed by purification and assay; integrates directly into chemical reactors with validated process analytical technology (PAT) for reaction monitoring

    Final product types

    • Prescription CNS stimulants (produced for strictly regulated medical indications)
    • Reference materials and certified analytical standards for clinical or research use
    • Research compounds for authorized pharmacological studies
    • Intermediate stocks for further derivatization under industrial contract synthesis

    2. Certified Analytical Standards Production

    DL-Amphetamine is processed by manufacturers into certified reference standards for use in clinical, forensic, and laboratory analytical workflows. These standards are critical for calibrating analytical instruments, verifying method specificity, and supporting regulatory compliance in analysis laboratories. Manufacturing these standards requires precise quantitative blending, high-purity isolation, and documentation aligned with international measurement standards.

    Industry compliance standards

    • ISO 17034:2016 for reference material producers
    • ISO/IEC 17025:2017 methods validation for testing laboratories
    • FDA regulations for analytical reference material use in pharmaceuticals
    • Controlled Substances Act (21 U.S.C. § 801 et seq.) for handling and traceability

    Typical usage ratio

    • Amounts typically range from 0.1 mg to 100 mg per ampoule or vial, concentration verified via HPLC or GC-MS; final quantity depends on customer calibration protocols and measurement requirements

    Downstream process integration

    • Material enters automated filling and ampoule sealing lines after final purification step, followed by QA/QC batch release and associated certificate of analysis (CoA) documentation

    Final product types

    • Certified reference standards for mass spectrometry analysis
    • Calibration solutions for forensic toxicology applications
    • Quality control samples for medical diagnostics laboratories
    • Primary standards for regulatory submissions and assay validation

    3. Precursor for Synthesis of CNS-Active Derivatives (Research Use Only)

    Industrial chemical manufacturers use the compound as a precursor in research-scale synthesis of novel amphetamine analogues for authorized laboratory evaluation. Applications are restricted to institutions with explicitly granted licenses for handling controlled precursor chemicals. These syntheses support structure-activity studies, metabolic pathway research, and patented molecular development, always under local legal allowances.

    Industry compliance standards

    • Local chemical precursor registration under UN CND regulations
    • National precursor chemical law (e.g., EU Regulation (EC) No 273/2004 for amphetamine-type substance control)
    • Institutional biosafety and chemical management documentation
    • Internal SOPs for authorized research chemical development

    Typical usage ratio

    • In research synthesis, usage may range from 1 mmol to 100 mmol per batch; scale depends on target molecule output and risk assessment documentation

    Downstream process integration

    • Introduced in small-molecule synthesis setups, reacted with functional groups to create novel derivatives; monitored and documented by authorized laboratory technical staff

    Final product types

    • Candidate CNS-active molecules for pharmaceutical pipeline research
    • Reference intermediates for medicinal chemistry studies
    • Isolated analogues for in vitro assay development
    • Metabolite markers for biological pathway mapping

    4. Forensic Toxicology and Proficiency Testing Material Manufacturing

    DL-Amphetamine is processed in certified facilities to supply blinded spiking reagents and test materials for forensic laboratory external quality assessment (EQA). Manufacturers produce these materials to support the ongoing validation of laboratory testing accuracy in drug screening, anti-doping, and post-mortem toxicology programs. Stringent documentation and reference tracking are required at all steps, with production root-cause safety files and regulatory chain-of-custody.

    Industry compliance standards

    • ISO 17043:2010 for proficiency testing providers
    • ISO/IEC 17025 accreditation of participating laboratories
    • DEA/EU precursor control registration and secure shipment tracking
    • WADA (World Anti-Doping Agency) testing guidelines for compound sourcing

    Typical usage ratio

    • Spiking concentrations set in range of 0.5 ng/mL to 1000 ng/mL for biological and synthetic matrix samples; prepared to international test regime specifications

    Downstream process integration

    • Material added into certified human biofluids or synthetic reference matrices; undergoes batch-specific cross-verification and stability testing prior to customer dispatch

    Final product types

    • Proficiency test panels for forensic science laboratories
    • Blinded quality control samples for toxicological screening validation
    • Calibration kits for on-site and remote analytical instrument assessment
    • Benchmarking matrices for accreditation of forensic service providers
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    Certification & Compliance
    More Introduction

    Understanding DL-Amphetamine from the Manufacturer’s Bench

    DL-Amphetamine: More than a Name on a Label

    DL-Amphetamine brings together both dextrorotatory and levorotatory forms of amphetamine. In manufacturing, this means the powder doesn’t just deliver stimulant properties; it recognizes that not all applications thrive when isolates dominate the mix. Over decades of work in custom synthesis, running reactors and purifying products, we’ve seen how combining both enantiomers can affect interaction in formulations used for research and industrial studies. Our experience with this compound has developed through responding to customer feedback—how the physical properties suit consistent delivery in production and provide predictable results batch to batch.

    Chemical Characteristics and Handling Insights

    Our DL-Amphetamine appears as a stable, fine crystalline solid, distinguished by its off-white coloration. Handling in our production area stays straightforward, without generating excessive dust or requiring elaborate protection like more volatile substances. We engineer this material to maintain steady melting and solubility characteristics under normal storage and transport. Regular users within our facility point out the ease of weighing and transferring the material, given its flow and packing density, which doesn’t clump under average conditions.

    The specification for DL-Amphetamine in our lineup targets a balance suitable for applied research and chemical synthesis, matching what we observe clients demanding from pharmaceutical and analytical labs. Typical purity exceeds 99%, determined by GC and HPLC, confirmed batch by batch, not extrapolated from theory. Our team monitors moisture content during drying to make sure the final product won’t introduce variability. Some manufacturers cut cycles or push yields; from the bench to the drum, we don’t shortcut purification or documentation, knowing it costs time but saves rework and reputation.

    Comparing DL-Amphetamine with Related Products

    Some chemical producers and researchers unfamiliar with the nuances might conflate DL-Amphetamine with its single-enantiomer counterparts, such as d-amphetamine alone. We frequently field questions about this. D-amphetamine (dextroamphetamine) yields a stronger stimulant profile, so some applications require its exclusive use, especially in clinical environments. The racemic DL mix contains both left- and right-handed molecules, providing a less intense but broader effect. For chemical processes that depend on stereochemistry, such as intermediate production for APIs or studies in neurotransmitter research, this matters. You won’t see the same uptake or metabolic behavior with racemic material as with the single-isomer compound.

    In our plant, we've produced both isomerically pure amphetamine and the racemic DL form. Preparative chromatographers here point out the challenge in maintaining segregation during production. Cross-contamination with d- or l-forms makes regulatory approval and analytical traceability a headache. We enforce strict tank and line changeovers. We see larger batch sizes with DL-Amphetamine since many customers prefer the cost efficiency when pure isomer isn’t required. The process steps look similar at the surface, but the cost per gram dips meaningfully for the racemic, due to fewer separation demands and a smoother synthetic path.

    Applications From the Chemistry Floor

    Within our experience, research institutes and development labs approach us for DL-Amphetamine to run neurochemical assays, synthesize standards, and explore structure-activity relationships—a critical step before narrowing focus on one active isomer. In some regions, regulations for the racemate permit broader experimentation outside restricted drug development. Our experience training new chemists emphasizes the responsibility to track how the racemate performs in every application, not to substitute uncritically or interchange with single enantiomers.

    Pharmaceutical research sometimes assesses DL-Amphetamine for therapeutic development or comparative toxicology. Manufacturing engineers with backgrounds in pilot plant scale-up note that racemic mixtures scale with fewer regulatory hurdles early on, due to less stringent chiral compliance. Researchers sometimes require the DL form specifically to compare effects, establish baselines, or differentiate biological activities. No experienced formulator substitutes d-amphetamine with the racemate for final therapeutic blends without running complete panels of stability and performance tests—an area we support by sharing batch data, process records, and impurity profiles.

    Operational Lessons: Quality In, Quality Out

    The reliability of DL-Amphetamine in chemistry projects only holds up if upstream controls stay tight. From years working in production, we've learned the pain of loose controls: let the reaction parameters stray or skip a check on key reagents, and purity falters. Each process in our line relies not just on automation, but on operators who understand the material. They know that temperature ramp rates affect byproduct levels, that washing steps cannot be rushed, and that documentation is the only defense if a batch fails review months later.

    Users in both academic and industrial environments press for a consistent impurity profile, and we keep a close eye on trace secondary amines, unresolved chiral residues, and solvent carryovers. In real terms, this means running extra QA cycles, not just the minimum. We support labs by supplying chromatograms, spectra, and full material history without delay, not after days of internal requests. We've found many customers—especially those under audit pressure—value immediate transparency over market promises of purity alone.

    Risk Management and Industry Compliance

    Dealing with DL-Amphetamine, we encounter strict regulatory frameworks. Our facility keeps logs on every batch, with traceability down to reagent lot numbers and storage conditions. Anyone familiar with these controls recognizes their necessity. Packaging for this product adheres to all transport regulations for controlled and monitored chemicals, reflecting national and international mandates. Inspection teams expect real-time access to batch records and chain-of-custody logs. We train all staff, lab to warehouse, to recognize unauthorized diversion attempts, and rotate compliance drills each quarter.

    Sometimes, clients new to this compound underestimate reporting and inventory requirements. Our supply staff spend time walking users through notification systems, quota applications, and required documentation. Our approach grew out of necessity; years back, delays caused by incomplete regulatory filings frustrated customers and threatened contracts. The lesson: transparency in regulatory support must flow as readily as samples from the batch reactor.

    Sustainability and Responsible Manufacturing

    Modern chemical producers must address both ethics and the environment. For DL-Amphetamine, our commitment doesn’t end at the property line. Early waste streams from amphetamine synthesis contained solvents tough to recover, and less care for effluent quality. Our plant managers now invest in solvent recovery units, batch water purification, and emission monitoring. They work with local authorities to validate disposal routes and regularly upgrade containment for both raw materials and finished chemicals. These systems require capital and training, but the payoff appears in our environmental audits and the relief expressed by local communities.

    Our staff also advocate for safer working environments—closed-system handling minimizes operator exposure, and updated PPE guidelines evolve with available data. By prioritizing occupational health, we see lower incident rates and higher staff retention among synthetic chemists and warehouse operators. DL-Amphetamine may be a commodity on supply sheets, but for those inside the manufacturing chain, its stewardship touches every shift, job safety briefing, and equipment check.

    Supply, Demand, and Market Realities

    Seasoned procurement managers know DL-Amphetamine’s supply ebbs and flows. Media coverage, policy changes, and shifts in scientific demand can dry up stocks or spike prices overnight. Our purchasing department builds reserves of precursor chemicals and maintains close contact with vetted suppliers, never relying on spot purchases or undocumented sources. Shortcuts, we’ve seen, lead to out-of-specification batches, regulatory troubles, or even forced downtime. Trusted clients often ask for supply guarantees extending several quarters out. We offer those when possible, but stay frank about global pressures—customs delays, import/export rule changes, and political instability.

    Forecasting remains a team effort: sales, R&D, production, and compliance convene regularly to review projections and rerun risk scenarios. Historically, the most severe crunches stemmed from changes in precursor availability triggered by upstream disruptions or evolving international regulations. We work to buffer those shocks with strategic stockpiles and priority access contracts, but acknowledge the inherent unpredictability in chemical supply chains. Our pragmatic stance: honest communication beats overpromise and risk.

    Traceability, Documentation, and Client Collaboration

    We recognize that buyers of DL-Amphetamine need robust records and responsive service more than slick marketing. Each batch ships with a complete documentation set: lot analysis, QA records, process notes, and chain-of-custody logs. When issues or questions arise—a discrepancy in assay results, a damaged drum, or new purity requirements—clients reach our QA and technical staff directly. We hold technical review sessions for those transitioning to new processes, flagging recurring challenges and translating them into operation improvements.

    Client chemists gain from direct links to our process engineers. Our people routinely tackle practical questions: how will storage at elevated temperatures affect stability? What container lining best prevents product loss in humid climates? What minimum batch size keeps variation negligible, yet stays responsive to rapid order changes? Cooperative troubleshooting helps us optimize the next production run while delivering insight that ripples upstream and downstream in the supply chain.

    Supporting the Research and Healthcare Fields

    DL-Amphetamine’s value for many customers lies in its role as a starting material for wider studies. Research scientists evaluate it for bench-scale screening, bioassay calibration, and as a control in behavioral pharmacology projects. Our role as manufacturer extends beyond simple supply. We assemble technical briefs on observed performance in standard analytical protocols, identifying how external variables—containerization, residual solvents, or microcrystalline differences—may influence reproducibility.

    We respect the weight of regulatory compliance in research and healthcare. Our internal controls reflect the scrutiny our clients face during audits or publication submissions. Quality managers oversee full retention sampling and chain-of-custody records, remaining accessible if researchers or QA auditors circle back months after delivery. The chemical industry draws constant public attention; we view collaboration as a shield against error and misunderstandings that can arise in R&D environments.

    Continuous Improvement From Real Feedback

    Product improvement grows out of daily interaction with those actually using DL-Amphetamine. We review feedback from lab staff, technical directors, and procurement officers. Process tweaks—extra filtration, tighter granule size distribution, or more robust packaging—stem directly from these partnerships. Our shift supervisors know that proposing incremental changes brings both challenges and pride, since improvements lift our performance and client satisfaction together.

    Years ago, after several reports of caking under high-humidity shipping conditions, our logistics staff spearheaded upgrades to drum liners and warehouse dehumidification. Efforts like these focus not on overengineering, but on genuine pain points relayed from the field. Each challenge becomes an opportunity to refine protocols and share lessons learned across the entire manufacturing team. Operators and executives see that customer concerns influence investment in new analytical tools, batch tracking upgrades, and ongoing staff education.

    Knowledge Sharing Across the Community

    As a producer, we believe our role includes dispelling misconceptions about DL-Amphetamine through open knowledge sharing. Misunderstandings about racemate versus pure isomer, or the impact of minor impurities on research results, persist outside specialist circles. We’ve organized technical seminars and on-site training for client labs, helping to close information gaps about proper storage, safe handling, and analytical testing. We support scientific outreach programs and share anonymized summary findings so the broader community benefits from our experience without disclosing proprietary or sensitive client information.

    Prioritizing education does not replace core product stewardship, but it helps prevent downstream misuse, hazardous exposure, or research setbacks. Transparent conversation with regulators, academic groups, and industrial partners bolsters responsible use, counters misinformation, and builds lasting trust. In these efforts, we see knowledge transfer as essential as any certificate of analysis.

    Future Directions: Anticipating the Role of DL-Amphetamine

    Industry needs around DL-Amphetamine keep evolving, influenced by shifts in therapeutic research, changes in regulatory landscapes, and scientific advances in stereochemistry. We invest in upgraded analytics, new process control software, and expanded documentation protocols to keep pace. Our site engineers evaluate emerging synthetic routes for energy and feedstock efficiency. We collaborate with national and international partners to track trends and anticipate demand surges or disruptions early.

    Those working in chemical manufacturing recognize that DL-Amphetamine isn’t a static entry on a catalog. It evolves as applications, compliance regimes, and customer priorities shift. From plant floor to research lab to compliance office, our collective experience speaks to adaptability, transparency, and a long-term commitment to excellence. The chemical industry faces tough observation from regulators and the public. Staying humble, responsive, and deeply involved in every part of the manufacturing chain means DL-Amphetamine continues to support real scientific and industrial progress.