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4-Chloro-M-Tolueneboronic Acid

    • Product Name 4-Chloro-M-Tolueneboronic Acid
    • Alias 4-Chloro-3-methylphenylboronic acid
    • Einecs 697-403-2
    • 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

    465887

    Product Name 4-Chloro-M-Tolueneboronic Acid
    Cas Number 934366-84-8
    Molecular Formula C7H8BClO2
    Molecular Weight 170.41 g/mol
    Appearance White to off-white solid
    Melting Point 246-250 °C
    Solubility Slightly soluble in water; soluble in organic solvents
    Purity Typically ≥97%
    Smiles B(C1=CC(=C(C=C1)Cl)C)(O)O

    As an accredited 4-Chloro-M-Tolueneboronic Acid factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing The 25g package of 4-Chloro-M-Tolueneboronic Acid comes in a sealed amber glass bottle with a tamper-evident cap and detailed labeling.
    Shipping 4-Chloro-M-Tolueneboronic Acid is shipped in securely sealed containers to protect against moisture and air exposure. Packaging complies with chemical safety regulations and includes clear labeling. Shipping typically requires standard hazardous materials handling, with temperature and transit time monitored to maintain product integrity during transportation. Safety data sheets accompany every shipment.
    Storage 4-Chloro-m-tolueneboronic acid should be stored in a tightly closed container, in a cool, dry, and well-ventilated area, away from sources of moisture and incompatible materials such as strong oxidizing agents. Protect from light and avoid excessive heat. Store under inert gas (e.g., nitrogen) if possible, to prevent degradation, and follow all appropriate safety and handling guidelines.
    Application of 4-Chloro-M-Tolueneboronic Acid

    Applications of 4-Chloro-M-Tolueneboronic Acid in Industrial Manufacturing

    As a direct chemical manufacturer, we supply 4-Chloro-M-Tolueneboronic Acid to integrated production lines in fine chemicals, pharmaceuticals, agrichemicals, and advanced materials. Below we outline actual downstream applications where our material is specified as a vital intermediate, including compliance standards, main use levels, process entry points, and the real end products delivered by our industrial customers.

    1. Pharmaceutical API Synthesis (Aryl Substitution for Oncology Medicines)

    Pharmaceutical manufacturers use 4-Chloro-M-Tolueneboronic Acid during Suzuki-Miyaura cross-coupling in the synthesis of Aryl-substituted intermediates for targeted cancer therapies. This compound supports precise molecular modification when producing kinase inhibitors and other high-value APIs that demand strict impurity profiles and trace contaminant controls.

    Industry compliance standards

    • ICH Q7 and Q11 GMP for API production
    • US FDA 21 CFR Parts 210/211 for finished pharmaceuticals
    • Ph. Eur. monographs if applicable to API class
    • ISO 9001/14001 quality/environmental management systems

    Typical usage ratio

    • 0.95–1.2 equivalents versus halogenated arene substrates
    • Adjusted by API target yield, molecular complexity, and scale-up factors

    Downstream process integration

    • Dosed into Suzuki coupling reactor after halogenated arene charge-in and prior to catalyst addition
    • Strict moisture and oxygen exclusion maintained at this stage
    • Followed by crystallization and chromatographic API purification

    Final product types

    • Small-molecule targeted cancer drugs (e.g., kinase inhibitors)
    • Intermediate building blocks for advanced generic APIs
    • Custom NCEs under contract synthesis

    2. Agrochemical Intermediate Manufacture (Herbicide and Fungicide Synthesis)

    Major agrochemical producers use this boronic acid as a key coupling partner to synthesize phenyl-based intermediates essential for selective herbicides and systemic fungicides. The process requires stringent batch-to-batch traceability to prevent unwanted cross-contaminants, especially for products exported to regulated markets such as Europe and North America.

    Industry compliance standards

    • REACH registration for import to the European Union
    • EPA regulations for raw materials in pesticide production (40 CFR 180, 158)
    • OECD guidelines for industrial chemical safety and traceability
    • ISO 9001 quality audits for agrochemical plants

    Typical usage ratio

    • 0.85–1.05 equivalents per halogen-substituted precursor
    • Varies with batch size and targeted active molecule purity

    Downstream process integration

    • Added in the main coupling step after base and solvent charge
    • Integrated into continuous stirred-tank reactors (CSTR) for high-volume synthesis
    • Downstream purification by distillation or crystallization

    Final product types

    • Phenyl-based herbicide active ingredients
    • Triazole or strobilurin class systemic fungicides
    • Registered crop protection intermediates

    3. OLED and Display Materials Synthesis

    Advanced material manufacturers specify 4-Chloro-M-Tolueneboronic Acid for creating functionalized aryl frameworks during the multi-step build-up of organic light-emitting diode (OLED) emitter and host molecules. Precise substitution at the meta-position enhances electronic properties and device stability, making this intermediate essential for reproducible panel quality and luminous efficiency.

    Industry compliance standards

    • RoHS (Restriction of Hazardous Substances Directive) for electronic components
    • IEC 62474 declarable substance guidelines
    • ISO 14001 for environmental management in material production
    • Custom QC protocols for electronic grade raw materials

    Typical usage ratio

    • 1.0 equivalent per aryl halide coupling partner for emitter molecule synthesis
    • Adjustable for scale of batch and purity requirements

    Downstream process integration

    • Charged post-solvent addition in Suzuki cross-coupling workup
    • Critical step preceding device precursor condensation
    • Downstream purification by column chromatography for high optical purity

    Final product types

    • OLED emitter molecules
    • Host materials for display panels
    • Organic semiconductors and functional pigment precursors

    4. Specialty Chemical Synthesis for Liquid Crystal Materials

    Producers of liquid crystal mixtures incorporate 4-Chloro-M-Tolueneboronic Acid into aryl extension reactions to tailor molecular polarity and alignment within LCD and LC display mixtures. Manufacturing requires validated trace containment and robust process analytics, as even minor by-products can disrupt downstream optical performance and batch certification.

    Industry compliance standards

    • IEC 61249-2-21 for halogen-free materials in displays
    • ISO 9001 and ISO 14001 for specialty chemical manufacturing
    • Customer-specific purity audit/certification processes
    • Strategic compliance with major display brand engineering standards

    Typical usage ratio

    • 0.75–1.1 equivalents per aryl halide precursor
    • Fine-tuned by downstream optical calibration targets and blend composition

    Downstream process integration

    • Metered into high-purity reactor system post-aniline or equivalent core charge-in
    • Involved in multi-stage synthesis prior to blending into final LC mixtures
    • Followed by precision filtration and contaminant screening

    Final product types

    • Advanced liquid crystal display (LCD) mixtures
    • Tunable LC intermediates for flexible and high-resolution panels
    • Specialty aryl compounds for next-generation optical films

    5. Chemical Synthesis of Photoinitiators for UV-Curing Systems

    Manufacturers of photoinitiator compounds select 4-Chloro-M-Tolueneboronic Acid as a meta-substituted building block in the preparation of aryl ketones and diaryl phosphine oxides for use in high-performance UV curing of adhesives, inks, and coatings. Stringent statistical process control is required to ensure that downstream UV performance and curing speed parameters remain within tight customer specifications.

    Industry compliance standards

    • REACH/CLP compliance for initiator registration in EU
    • ISO 10993-5 for biocompatibility in medical device inks/coatings
    • ASTM D4236 for art material safety (when relevant)
    • ISO 9001-certified batch release protocols

    Typical usage ratio

    • 0.85–1.2 equivalents relative to aryl halide partner
    • Proportion set by UV absorption wavelength and reactivity targets

    Downstream process integration

    • Introduced after solvent and base charging in cross-coupling reactors
    • Key input to diaryl phosphine oxide and benzophenone synthesis
    • Downstream distillation isolates the final photoinitiator

    Final product types

    • UV-curable photoinitiators for industrial inks
    • Photoinitiators for adhesive and coating formulations
    • Specialty additives for 3D printing resins
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    Certification & Compliance
    More Introduction

    4-Chloro-M-Tolueneboronic Acid: Practical Insights from a Manufacturer

    Introduction to Our Product

    At our production facility, we focus on developing aromatic boronic acids that meet real-world demands in the laboratory and on the production floor. Among our specialty line, 4-Chloro-M-Tolueneboronic Acid stands out as a reliable choice for both research and industrial synthesis. As experienced chemical manufacturers, we've observed the growing demand for versatile intermediates in organic chemistry, especially in cross-coupling reactions. This product often fills the niche for Suzuki-Miyaura reactions where both the methyl and chloro substituents bring unique reactivity and selectivity advantages.

    Why 4-Chloro-M-Tolueneboronic Acid Matters

    Every day, chemists aim to streamline operations, cut waste, and improve yields. From our years of making and testing boronic acids, we see how compounds like 4-Chloro-M-Tolueneboronic Acid play a key part in the assembly of complex molecules. Its structure—with a boronic acid pin stabilizer, methyl group on the meta position, and chlorine on the para site—shapes both its physical properties and reactivity profile. These features influence solubility, coupling efficiency, and downstream product purity. Researchers favor this compound due to its stability in air and ease of handling in standard moisture conditions, setting it apart from more sensitive alternatives.

    Model and Specifications

    We produce 4-Chloro-M-Tolueneboronic Acid with a focus on batch consistency. Under controlled temperatures and monitored atmospheres, our technicians refine the process to ensure the highest possible purity. Pure, white to off-white crystalline powder typifies the material we deliver, keeping water and impurities tightly controlled below critical thresholds. Each lot goes through gas chromatography and NMR checks. The product’s melting point sits comfortably in the typical range for substituted arylboronic acids, so it stores well under cool, dry conditions, with minimal caking or degradation.

    Suitability and Uses

    Some products only work for a single reaction type. In contrast, 4-Chloro-M-Tolueneboronic Acid fits into multiple reaction sequences. Big-name pharmaceutical companies incorporate our product to build biaryl frameworks, agrochemical groups use it as a bridge in complex active ingredient synthesis, and fine chemical producers have moved away from tin-based organometallics in favor of this cleaner boronic route. This molecule’s double-site activation—thanks to the electron-withdrawing chloro and the electron-donating methyl—lets synthesis teams dial in selectivity. Post-coupling transformations respond well, leading to higher batch purities and fewer by-products, a difference we’ve confirmed in both our in-house runs and client feedback.

    Handling Practicalities

    Lab techs and operators appreciate the ease of weighing and dissolving this boronic acid, which doesn’t clump or stick even after months of storage, as long as it’s kept dry. Spillages clean up with basic sweep-up and solvent rinse procedures—no unusual hazards compared to similar boronic acids. From experience, workers mention a neutral to faint odor, far less intrusive than lower-value analogs. Disposal procedures align with standard protocols for aromatic boronic acids, supporting safe, mainstream waste handling without the need for expensive neutralization steps.

    Performance in Synthesis

    Suzuki coupling is the arena where this compound shines. The chlorine atom directs the reaction and can later serve as a handle for further functionalization. Unlike unsubstituted tolylboronic acids, this version allows for more controlled sequential coupling, especially under palladium catalysis. Our chemists have put this to the test, running scaled-up couplings that consistently reach high conversion rates and isolated yields of over 90%. This reliability doesn’t just show in our own facilities. We regularly hear from customers that switching from alternative methylboronic acids, or from bromo- or iodo- derivatives, didn’t require catalyst overloading or special degassing setups. Less catalyst burnout means lower costs over time and fewer purification headaches.

    Real-World Differences vs. Other Boronic Acids

    It’s tempting to see all arylboronic acids as interchangeable, but we’ve learned that the details matter. The methyl group on the meta position of this product gives it different reactivity and downstream compatibility compared to para- or ortho-methyl variations. Technicians chasing a cleaner work-up generally favor this version, since by-product formation drops. We’ve tracked lower tar formation and easier filtration steps in prep-scale setups, which matters when workdays could otherwise be lost on troubleshooting.

    Compared to more common phenylboronic acid, which lacks any functional substituents, this product offers added flexibility for sequential derivatization. The chloro group enables further transformations—nucleophilic substitution, for example—without requiring harsh conditions that destroy the boronic acid. Chemists save time by cutting out protecting group manipulations. In pilot projects with bulk users, reactions reached endpoint without requiring additional suppressants for deboronation; yields kept stable, and chromatography steps shortened.

    Examining Purity and Consistency

    Every manufacturer faces the challenge of batch-to-batch repeatability, especially as order sizes grow. Our process control systems trace each batch from raw material sourcing straight through drying, milling, and packing. Regular feedback cycles between lab and production mean quick tweaks for early crystal formation or unexpected color development. Unlike traders moving variable goods, our team makes the adjustments in-house, so customers aren’t caught off guard by shifting appearance or performance. Repeat clients report that our 4-Chloro-M-Tolueneboronic Acid holds up during scale-up, a direct result of the investments put into analytical tracking and hands-on quality control.

    Reducing Downtime and Cost

    Production managers in pharmaceutical, materials, or agrochemical fields routinely struggle with line stoppages from off-grade inputs. Over the past decade, direct feedback shows that stable boronic acids like ours drive down batch rejection rates. Moisture sensitivity is one area where our formulation stands apart, acting less hygroscopic than some close relatives. Operators don’t lose hours drying slushy powders before feeding reactors. Lower water content reduces side reactions, dropping formation of boronic acid anhydrides, so process flow improves and solvent stripping steps shrink. The result isn’t just a smoother run—it also means reduced usage of precious-palladium catalysts per batch.

    Supporting Process Scale-Ups

    R&D chemists pivot from gram-scale tests to full-scale tonne runs with confidence because our production methods scale linearly. Heterogeneous reaction performance holds steady, even when operators pump up stirrer speeds or push rig heating cycles. Process engineers regularly confirm that this predictability makes it easier to tune downstream purification, particularly extractions and crystallizations. Competition boronic acids sometimes stall at the filtration step or force post-process solvent exchanges. Our team has run extended stability studies so that clients can schedule manufacturing calendars with confidence that their scheduled starting materials retain their specification.

    Addressing Key Challenges in Arylboronic Acid Use

    The biggest headaches in arylboronic acid use revolve around purity loss, unwanted polymerization, and sensitivity to atmospheric moisture. A decade back, we invested in refining our synthetic process so that hydrolysis—common in boronic acids—became a rare exception instead of a rule. We flush and dry all reactors before boronation, and we run analytic checks at multiple points. This disciplined approach cuts customer complaints on clumping, color formation, or reduced solubility. It also means that Suzuki couplings, even in rapid throughput projects, rarely face catalyst dropout or project slowdowns.

    It’s easy for smaller traders to overlook these day-to-day issues. As a manufacturer, we field direct questions from both experienced buying managers and hands-on bench chemists, so we see what happens after delivery. That feedback loop has led us to invest in moisture barrier packaging and tighter QC over the long haul.

    Future Directions and Sustainable Practices

    The world of synthetic chemistry is shifting toward greener, safer processes. Many of our large-scale clients have asked for boronic acids that don’t throw off-tar or require toxic solvents for work-up. Our commitment to continuous improvement shows through in how we approach waste minimization. Raw material sourcing favors supply chains that trace back to environmentally responsible origins, and any process solvent is recovered and reused. Stockpiles for our 4-Chloro-M-Tolueneboronic Acid keep on-site emissions low, since no chlorinated emissions escape our scrubbers; post-reaction waste meets all local disposal and recovery standards.

    Our technical specialists work directly with clients to troubleshoot questionable results or collaborate on new coupling strategies. We're keen to bridge the gap between lab theory and production practicality. There’s no substitute for a producer willing to tweak the process in light of emerging needs—whether that's shifting melting points, customized particle sizing, or support in auditing analytical paperwork.

    Differences in Sourcing: Manufacturer vs. Trader Experience

    Many customers who switch to direct-from-manufacturer sourcing often remark on traceability and pricing stability as deciding factors. In our case, each kilogram comes with a full lineage printout, pointing back to individual syntheses, so there’s never a mystery if a project manager calls up with questions. Since we aren’t reselling or splitting lots between buyers, order fills stay consistent in both packaging and content. That means even specialized packs for glovebox work or high-throughput screening are filled according to agreed specs, not as afterthoughts.

    We also take pride in the reduced delivery time between production and bench use; chemists do not need to stockpile questionable material as a hedge against unpredictable supplier fill rates. Handling queries on crystallinity, packing density, or trace residual metals is part of what sets a manufacturer’s offering apart from a bulk commodity run handled by a remote third party.

    Impacts on Downstream Applications

    A boronic acid’s quirks often define what is or isn’t possible in modern organic synthesis. 4-Chloro-M-Tolueneboronic Acid, with its paired methyl and chloro substituents, has opened new intermediate pathways for clients working in heterocyclic and polyaromatic arena expansion. These customers look to us for batch sizes that range from gram samples up to hundred-kilogram runs. Small-batch development often pushes the boundaries of purity, while large-scale production prizes process reliability and minimized offcuts. We have found that process tweaking—minor changes to crystallization or drying—can bring a stubborn pilot stage into full commercial reality.

    Pharmaceutical teams utilize this molecule to streamline the introduction of functional groups at defined positions. It saves steps in protecting group strategies, especially when compared to non-chloro or non-methyl substituted boronic acids. Agrochem clients have discovered that this product enables milder reaction conditions that avoid thermal decomposition. Material scientists, looking to assemble advanced polymers, comment that the side functional groups cooperate well in iterative Suzuki cycles, avoiding the product trapping or polymer capping seen with other boronic options.

    Long-Term Customer Collaboration

    As production trends shift and new regulatory frameworks emerge, close producer-to-buyer technical communication makes all the difference. We've rolled out custom purification runs to help clients meet the bar for API-grade or cGMP-level starting materials, tweaking ppm limits for heavy metals or specific organic trace contaminants. In other cases, we've responded to requests for documentation on batch stability post-shipment in overseas transit, running extended controlled temperature studies and reporting the findings directly.

    Our customer care doesn’t end with dispatch. Many of our clients come back to us for assistance setting up in-process checks or even bench-scale workarounds for tricky transformations. Our in-house bench chemists have run side-by-side trials with competitors’ products, documenting not just yield numbers but also ease of work-up and real-world process speeds. This hands-on approach means we know our product—not just in theory, but from the perspective of the people who use it daily.

    Supporting Emerging Research

    Academic and industrial research groups pushing the envelope on new scaffolds frequently seek reliable sources of functionally-substituted boronic acids. We regularly hear from university spin-outs and research consortia that access to stable, high-purity 4-Chloro-M-Tolueneboronic Acid has let them advance, rather than stall, in their total synthesis efforts. New motifs in drug discovery or material science often hinge on predictable coupling behavior, and consistency here saves months in reagent screening or troubleshooting.

    Participating in industry workshops and publishing observations on reaction repeatability help us keep our finger on the pulse of changing expectations. We share non-confidential best practices and learn from feedback, incorporating process tweaks into the next production run. Our staff still remember the era of unreliable boronic acids and spare no effort to verify each new approach in real-world conditions before rolling out process changes.

    Conclusion: Manufacturer Commitment

    Everything we have put into producing and supporting 4-Chloro-M-Tolueneboronic Acid comes down to making practical chemistry safer, more predictable, and easier to master. Real dialogue with chemists at every level means we know the strengths and limits of our product, from benchtop to bulk tank. Routine investments in quality control and production fine-tuning pay off in saved time and improved results for every user—from the smallest lab to the busiest plant.

    True manufacturing credibility comes from experience, reliability, and a willingness to listen. Every lot of 4-Chloro-M-Tolueneboronic Acid that leaves our plant reflects those principles. We offer more than just a reagent; we bring a partner’s perspective to every synthesis.