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Dimethyl (R)-(+)-Methylsuccinate

    • Product Name Dimethyl (R)-(+)-Methylsuccinate
    • Alias (R)-(+)-Dimethyl Methylsuccinate
    • Einecs EINECS 265-995-8
    • 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
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    Specifications

    HS Code

    441200

    Product Name Dimethyl (R)-(+)-Methylsuccinate
    Cas Number 17828-53-2
    Molecular Formula C6H10O4
    Molecular Weight 146.14
    Appearance Colorless to pale yellow liquid
    Purity Typically ≥98%
    Optical Rotation [α]D20 +10° to +14° (c=1 in CHCl3)
    Boiling Point 196-198°C
    Density 1.13 g/mL at 25°C
    Refractive Index n20/D 1.419
    Smiles COC(=O)C(C)C(C)=O
    Storage Temperature Store at 2-8°C
    Solubility Soluble in organic solvents (e.g., ethanol, ether)

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

    Packing & Storage
    Packing Dimethyl (R)-(+)-Methylsuccinate, 25g: Supplied in a sealed amber glass bottle with tamper-evident cap and clear hazard labeling.
    Shipping Dimethyl (R)-(+)-Methylsuccinate is typically shipped in sealed, chemical-resistant containers to ensure safety and integrity. It should be stored in a cool, dry, and well-ventilated area, protected from moisture and incompatible substances. During transportation, compliance with relevant safety regulations (such as DOT, IATA) is required to avoid spills or exposure.
    Storage Dimethyl (R)-(+)-Methylsuccinate should be stored in a tightly sealed container, in a cool, dry, and well-ventilated area, away from heat and sources of ignition. It should be kept away from incompatible substances such as strong oxidizers and acids. Avoid moisture and direct sunlight. Ensure proper labeling and follow local regulations for chemical storage and handling.
    Application of Dimethyl (R)-(+)-Methylsuccinate

    Applications of Dimethyl (R)-(+)-Methylsuccinate in Industrial Manufacturing

    As a specialized manufacturer of Dimethyl (R)-(+)-Methylsuccinate, we supply quality-controlled material to downstream users who integrate this chiral intermediate into advanced synthesis processes across several industrial sectors. Below, we detail verified end-use segments, including compliance expectations, formulation guidelines, process incorporation, and typical finished goods.

    1. Chiral Pharmaceutical Intermediate for Active Pharmaceutical Ingredients (APIs)

    Pharmaceutical companies use this compound as a key chiral building block in the asymmetric synthesis of β-lactam antibiotics and other drugs requiring high stereochemical purity. Its enantiomeric form ensures consistent stereoselectivity, supporting regulated synthesis series under cGMP conditions. End-users integrate this material at the early or intermediate stages of complex API pathways, boosting the efficiency of enantioselective steps and enabling scalable industrial manufacturing of targeted pharmaceuticals.

    Industry compliance standards

    • ICH Q7 Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • FDA 21 CFR Part 211 Current Good Manufacturing Practice
    • European Pharmacopoeia (Ph. Eur.) purity requirements for intermediates
    • USP General Chapter <1043> Ancillary Materials for Cell, Gene, and Tissue-Engineered Products (when applicable)

    Typical usage ratio

    • 0.5–2.5 molar equivalents relative to parent nucleophile in creating chiral intermediates; adjustment depends on specific process yield and target molecule scale.

    Downstream process integration

    • Enters as a chiral synthon in multi-step chemical syntheses before the final API coupling or ring closure stage.

    Final product types

    • Enantiopure β-lactam antibiotics (e.g., carbapenem derivatives)
    • Specialty API chiral fragments for cardiovascular and CNS drugs
    • Advanced pharmaceutical intermediates used by formulation partners

    2. Monomer for Polymeric Biodegradable Materials

    Manufacturers of specialty biodegradable polymers incorporate this dicarboxylate-derived ester into condensation polymerization routes to create resin backbones with precise stereochemistry. This raw material supports downstream environmental compliance by introducing labile links for controlled hydrolytic degradation. The chiral nature also influences polymer tacticity, critical for product performance in regulated sustainable packaging and medical device applications.

    Industry compliance standards

    • EU Regulation (EU) No 10/2011 on plastic materials and articles intended to come into contact with food
    • ISO 14855 Biodegradability Testing for Plastics
    • ISO 10993 Biological Evaluation of Medical Devices (for resorbable materials)
    • FDA 21 CFR 177.1520 Olefin polymers for food packaging (as applicable)

    Typical usage ratio

    • 5–30 wt% as a comonomer in polycondensation reactions; formulation adjusted for targeted degradation profile and mechanical strength.

    Downstream process integration

    • Introduced during the monomer feed step in melt-phase or solution polycondensation, directly contributing to the main chain formation at the esterification or transesterification stage.

    Final product types

    • Biodegradable packaging films and food containers
    • Resorbable surgical sutures and scaffolds
    • Agricultural mulch films
    • Specialty controlled-release capsules

    3. Intermediate for Agrochemical Synthesis

    Leading crop protection companies utilize this chiral diester as a platform intermediate when producing certain advanced fungicides and insecticides. It enables downstream synthesis routes for select active substances where control of enantiomeric form affects biological activity, regulatory registration, and field performance. The ester’s participation in chiral pool synthesis routes improves yield control and process efficiency at commercial plant scales.

    Industry compliance standards

    • FAO/WHO Specifications and Evaluations for Agricultural Pesticides
    • REACH Regulation (EC) No 1907/2006 for chemical safety in the EU
    • US EPA Pesticide Registration requirements (40 CFR Part 152, 158)
    • ISO 9001:2015 Quality Management for chemical synthesis facilities

    Typical usage ratio

    • 0.8–1.2 equivalents relative to targeting aldehyde or amine in the core synthesis step; ratio varies by crop protection molecule specification.

    Downstream process integration

    • Introduced during the chiral precursor condensation or cyclization stage, often preceding key functionalization steps of the active molecule.

    Final product types

    • Chiral selective herbicide or fungicide actives (as defined by WHO/FAO)
    • Enantio-enriched insecticidal compounds
    • Registered technical-grade agrochemical intermediates

    4. Flavor and Fragrance Ingredient Precursor

    Flavors and fragrances manufacturers employ this optically active diester as a building block for synthesizing specialty aroma compounds where chirality influences sensory attributes. Its integration favors formation of natural-identical flavor molecules with desired olfactory properties. Strict compositional controls and food safety quality systems guide its application for materials entering edible use or fine perfumery formulations.

    Industry compliance standards

    • FEMA GRAS (Flavor and Extract Manufacturers Association—Generally Recognized As Safe)
    • EU Regulation (EC) No 1334/2008 on flavorings and certain food ingredients
    • ISO 9001:2015 Quality Management for flavor and fragrance ingredients
    • US FDA 21 CFR 172.515 Synthetic flavoring substances

    Typical usage ratio

    • 0.2–1.0 wt% in aroma chemical synthesis batches; final inclusion rate refined for purity requirements and batch yield constraints.

    Downstream process integration

    • Used in initial synthesis reactions for chiral lactone or ester flavorants before purification, or functional group modification, and blending steps in the fragrance compounding process.

    Final product types

    • Optically pure flavoring agents for food and beverage
    • Chiral fragrance intermediates for high-end perfumes
    • Spice extract imitations where chirality is critical to aroma perception
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    Certification & Compliance
    More Introduction

    Dimethyl (R)-(+)-Methylsuccinate: Meeting Precision with Purity

    The Purpose Behind Producing Optically Pure Intermediates

    Every batch of Dimethyl (R)-(+)-Methylsuccinate reflects a hard-earned expertise and genuine focus on precision. As a manufacturer deeply involved with chiral intermediates, we recognize how much projects can hinge on enantiopure compounds, especially across pharmaceuticals and fine chemicals. Stereochemistry matters—sometimes, the vitality of an active pharmaceutical ingredient changes entirely with molecular configuration. Laboratories investing years into asymmetric synthesis processes demand building blocks that don’t introduce doubt at the very first step. Consistency and a commitment to rigorous controls underpin each delivery.

    The compound, with its chiral methylsuccinate backbone, offers an (R)-configuration favored in multiple synthetic routes where selectivity leads development. We supply it as a colorless liquid or crystalline solid, typically boasting >99% enantiomeric excess and proven GC/HPLC data. Molecular formula C6H10O4, CAS 19121-12-1, and a molar mass of about 146 g/mol—while these numbers are listed on any batch report, they’re only part of the bigger story. Real utility rests in how the chemical performs and affirms its value in scale-up and R&D.

    Real-World Applications: Where Innovation Relies on Foundation

    Chemists want reliability—whether optimizing an API, producing specialty esters, or seeking intermediates that won’t undermine later purification sequences. The (R)-enantiomer is not just a specification—it is a route to selectivity and downstream value. In our direct conversations with process development teams, topics often range from minimizing racemization to ensuring downstream reactivity proceeds predictably. Dimethyl (R)-(+)-Methylsuccinate enters the conversation when resolving complex chiral centers and allows researchers to avoid additional resolutions or rework. Its core function in asymmetric synthesis, particularly for succinic acid derivatives, makes it an essential ingredient for those constructing advanced organics and pharmaceutical scaffolds.

    Where bulk commodity esters fall short, our product supports intricate syntheses like those found in chiral auxiliary chemistry and the production of enantioselective ligands. Customers value that it unlocks reliable access to downstream synthons—chiral pyrrolidines, succinimides, and more—by being both pure and consistent. We’ve watched researchers save time and materials, avoiding tedious resolution steps and unpredictable losses, thanks to the readiness and reproducibility of this intermediate.

    Producing Value Through Manufacturing Experience

    The difference between a satisfactory intermediate and a truly enabling one traces back to production discipline. Our approach stems from decades of hands-on refinement in asymmetric synthesis—choosing the best chiral catalysts, monitoring temperature profiles, and refusing to compromise in purification. Every run brings a familiar set of challenges: subtle shifts in crystallization, sensitivity to trace moisture, and the real risk of epimerization. By prioritizing analytical controls before packaging, we allow no ambiguity about purity or configuration.

    These standards didn’t appear overnight. We analyze not only the finished ester by chiral chromatography, but also every precursor and lot of catalyst. Process tweaks aim for yield, but never at the expense of clarity in the stereochemical profile. Manufacturing here means a readiness to halt, adjust, and even abandon batches if the optical purity drops below expectations. This attitude, more than any equipment detail, guarantees what arrives is what the chemist intends. Our repeated investments in analytical method development save our partners from guesswork and late-stage failures.

    What Sets Our Dimethyl (R)-(+)-Methylsuccinate Apart

    Industry buzzwords can’t disguise variability or shortcuts. Our product stands out due to its traceable process history, not just a result posted on a datasheet. Many producers rely on off-the-shelf precursors or outsource purification, introducing risks at every stage. We start with high-quality starting materials and maintain hands-on control across every distillation and chromatographic separation. That direct handling gives us confidence in the batch quality, but, more importantly, gives research and production teams the reassurance required for high-stakes projects.

    We understand how even minor contamination affects downstream transformations, particularly with chiral catalysts or enzymes. At scale, a 0.5% impurity can mean days of extra cleanup or lost product. Our operations reflect this reality at every decision point: dedicated equipment for chiral processes, validated cleaning protocols, and transparent lot histories accessible to clients on request. Companies who have turned to us after issues with generic material know the difference: less rework, fewer surprises, smoother transitions into pilot and production stages.

    Not All Esters Meet the Same Standard: The Place of Optical Purity

    Dimethyl (R)-(+)-Methylsuccinate competes with racemic and less-characterized alternatives. Though a racemic dimethyl methylsuccinate may suit basic transformations, pharmaceutical syntheses do not forgive ambiguity. Optical purity moves beyond simple numbers—it means no wasted steps in resolving downstream enantiomers, no surprises in pharmacological testing, and greater confidence across the regulatory process. We see, year after year, how the enormous cost of failed batches dwarfs the price advantage sought from less reliable sources.

    For R&D teams, every impurity or stereochemical misstep means repeat analysis, troubleshooting, and added downstream risk. Our focus on the (R)-enantiopurity connects directly to cost savings and speed. It’s not about an abstract “standard”—it’s about keeping research pipelines moving and pilot scales on track.

    Collaborating with Developers: Solutions from the Production Floor

    Over time, we have seen the practical problems faced by chemists and procurement teams. Bulk sources often lack the documentation, responsiveness, and willingness to engage with process changes that challenging projects demand. Our technical teams do not hide behind generic order forms. They discuss specifics, from lot certificates to modifications in particle size or solvent content. When a client transitions from lab to kilogram scale-up and faces new solubility or crystallization hurdles, we provide advice grounded in actual production experience.

    Feedback from client projects guides our continuous improvement. Adjusting purification to lower residual solvents, introducing new drying steps, or scaling custom lots outside the catalog—each solution echoes direct requests from scientists under pressure to hit milestones. This two-way relationship means the improvements we make don’t just stay in the plant: they translate to fewer problems, reduced troubleshooting, and quicker value in every lab using our intermediates.

    Global Perspective: Responding to Regional Regulations and Market Needs

    Access to chiral building blocks like Dimethyl (R)-(+)-Methylsuccinate has become more complicated as market requirements shift. Europe, North America, and Asia impose growing constraints on quality, documentation, and environmental impact. Our customers navigate an environment where small gaps between specification and performance can halt entire projects. Regulatory diligence begins with how intermediates are made and extends to traceability and compliance every step of the way.

    Where some suppliers see compliance as an obstacle, we treat it as a core part of manufacturing practice. From batch records to transportation safety documentation, our team has learned that preemptive transparency prevents regulatory headaches and lets our clients respond rapidly to evolving legislation. By controlling our supply chain and in-house synthesis, we minimize gaps, and eliminate the grey zones often found when third-party producers get involved.

    Continuous Improvement and Sustainability

    Long-term production isn’t static. The pressure to reduce waste and improve yield is familiar. In adapting our processes, we have examined waste esterification byproducts, solvent recovery, and energy usage. A practical commitment to these improvements means not only fewer compliance hurdles but also tangible savings for everyone involved. Orders for Dimethyl (R)-(+)-Methylsuccinate reflect this: optimized yields, cleaner effluent, and reclaimed solvents keep costs practical and the environmental load lower.

    Even seemingly minor upgrades can affect a client’s experience. Better packaging prevents leaks and contaminant pickup; stable storage conditions extend product shelf life; investments in high-purity solvents tighten the final specification. Where regulatory and sustainability standards push higher every year, these details give our partners an edge as end-users and regulators apply more scrutiny to every input.

    Learning from Our Customers: Practical Outcomes in Use

    Practical insights often come from where the chemistry meets the application. Process engineers and synthetic chemists have shared, through pilots and production batches, concerns ranging from reaction kinetics to downstream separation. One frequent issue involves the tendency for racemization during thermally intensive transformations. By raising awareness and working with clients to optimize conditions, we’ve helped preserve enantiopurity and improve product yields.

    Another lesson: not every formulation challenge shows up on a datasheet. Sometimes the need for a particular solvent or impurity threshold only emerges during process validation. Our flexibility comes not from a generic promise but from the real possibility to adjust and revalidate at the kilogram or ton scale. The value of this product isn’t limited to what leaves our plant—it grows with each project it supports and each challenge it solves on the customer’s bench.

    Dimethyl (R)-(+)-Methylsuccinate in the Modern Synthesis Toolkit

    As chemists develop new catalysts or explore alternative reaction pathways, the role of stable, optically pure intermediates grows. Dimethyl (R)-(+)-Methylsuccinate features in catalytic hydrogenations, Diels-Alder cycloadditions, and syntheses where selectivity matters. Scalability, coupled with consistent performance under strict conditions, transforms it from merely a starting point into a strategic asset.

    Firms working across pharmaceuticals, agrochemicals, and advanced materials increasingly look for suppliers who do more than ship catalog goods. They look for process partners, and those relationships begin with a simple, transparent, and reliable ingredient that will not become the weak link in a chain of innovation. This compound, produced under thoughtful conditions, consistently meets that expectation.

    Setting Standards by Example

    We have never aimed just to fill a container and move it onward. Instead, each batch aims to embody both our technical expertise and our appreciation for where these molecules will travel—into drug discovery, research tools, or specialty formulations. Customer feedback reinforces a truth we have known since our earliest production: every small advance in optical purity, documentation, and logistical support stands to save someone—somewhere—months of development time and costly missed outcomes.

    Producing Dimethyl (R)-(+)-Methylsuccinate at this level of purity and consistency does not leave room for shortcuts. Over years of direct feedback and continuous analysis, we have refined our methodology to balance output, environmental responsibility, and flexibility. This means end users can focus on their next breakthrough with assurance that the materials in their hands will help, not hinder, the process.

    The Future: Anticipating New Needs

    Research in asymmetric synthesis evolves each year, pushing us to pursue more sustainable reductions, improved catalysts, and smarter downstream separations. We continue investing in analytical systems and bridging our plant routines with changing lab requirements. Whether the future brings higher demand for kilogram lots or calls for ultra-trace analyses, our experience-weathered approach aims to keep us responsive, selective, and ready to solve the next round of challenges.

    Every successful project in industry or academia that passes through our materials reinforces why hands-on manufacturing, and not mere distribution, provides the peace of mind and value that make progress possible. Our work with Dimethyl (R)-(+)-Methylsuccinate reflects a lived, practical knowledge of what real chemistry demands, and we remain committed to supporting scientific advancement, one optically pure batch at a time.