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(2-Chlorophenyl)Phenyl-Methanone

    • Product Name (2-Chlorophenyl)Phenyl-Methanone
    • Einecs 202-708-7
    • 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

    974241

    Iupac Name (2-Chlorophenyl)phenylmethanone
    Molecular Formula C13H9ClO
    Molar Mass 216.67 g/mol
    Cas Number 301-02-0
    Appearance White to off-white crystalline solid
    Melting Point 49-53°C
    Boiling Point 343.1°C at 760 mmHg
    Density 1.22 g/cm³
    Solubility In Water Slightly soluble
    Smiles ClC1=CC=CC=C1C(=O)C2=CC=CC=C2
    Pubchem Cid 88968
    Flash Point 162.8°C
    Refractive Index 1.631

    As an accredited (2-Chlorophenyl)Phenyl-Methanone factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing 250g of (2-Chlorophenyl)Phenyl-Methanone is supplied in a sealed amber glass bottle with tamper-evident cap and chemical hazard labeling.
    Shipping (2-Chlorophenyl)phenyl-methanone is shipped in tightly sealed, chemical-resistant containers to prevent leakage or contamination. Packaging complies with local and international regulations. The chemical is handled by trained personnel, labeled as hazardous, and transported with appropriate documentation, ensuring safety during transit and storage. Temperature and handling instructions are clearly indicated.
    Storage (2-Chlorophenyl)phenyl-methanone should be stored in a tightly closed container in a cool, dry, and well-ventilated area, away from direct sunlight, ignition sources, and incompatible substances such as strong oxidizers. The storage area should be secure, clearly labeled, and comply with all relevant chemical safety regulations. Use appropriate secondary containment to prevent leaks or spills.
    Application of (2-Chlorophenyl)Phenyl-Methanone

    Applications of (2-Chlorophenyl)Phenyl-Methanone in Industrial Manufacturing

    As a direct manufacturer of (2-Chlorophenyl)Phenyl-Methanone, we supply this raw material to downstream sectors where advanced fine chemical synthesis plays a critical role. The following application scenarios reflect established, large-scale usage in specialty and performance chemical industries, with a focus on regulated processing stages, strict quality controls, and high-value end products. All information is provided based on real-world industrial adoption and compliant practice.

    1. Pharmaceutical Intermediate for Benzophenone-Derived APIs

    Major pharma companies rely on this compound as a key building block in the synthesis of several benzophenone-type Active Pharmaceutical Ingredients (APIs), particularly for nonsteroidal anti-inflammatory drugs and neurological medications. Stringent purity, traceability, and batch-to-batch consistency are essential throughout the API pipeline.

    Industry compliance standards

    • Current Good Manufacturing Practice (cGMP) (ICH Q7)
    • Ph. Eur. and USP monographs for pharmaceutical intermediates
    • 21 CFR Part 211 (US FDA)
    • REACH Regulation for chemical safety

    Typical usage ratio

    • Used at 0.8–1.6 molar equivalents relative to amine reactants, with batch size determined by target API output; adjustments based on route efficiency and impurity profile.

    Downstream process integration

    • Enters during the initial acylation or condensation step; refined through successive purification and transferred to closed-reactor synthesis lines; subject to in-process QC sampling.

    Final product types

    • Pharmaceutical intermediates for NSAIDs (e.g., diflunisal)
    • Precursors for CNS-active drugs
    • Benzophenone-derivative bulk APIs

    2. Advanced Agrochemical Intermediate Synthesis

    The compound serves as an essential aromatic building block for selective herbicide and insecticide active compounds, where precision in substitution patterns ensures target-specific activity and environmental breakdown characteristics. Agrochemical processors demand robust traceability and synthesis control to meet regulatory frameworks.

    Industry compliance standards

    • ISO 9001:2015 Quality Management for agrochemical manufacturing
    • Global GAP for supply chain traceability
    • European Commission Regulation (EC) No 1107/2009 for plant protection products
    • China GB 2763—National Food Safety Standard for pesticide residue limits

    Typical usage ratio

    • Forms 10–25% of the precursor blend in the synthesis stage depending on the crop protection chemical’s final concentration; adjusted for route efficiency and solvent selection.

    Downstream process integration

    • Utilized as the aromatic acyl component in Grignard or Friedel-Crafts reactions; typically added after initial solvent charging and metallic catalyst introduction; downstream purification via solvent extraction.

    Final product types

    • Herbicide active ingredient intermediates
    • Insecticidal intermediate agents
    • Precursor components for customized crop-specific pesticides

    3. UV-Curable Resin and Specialty Coating Precursor

    Manufacturers in surface coatings and advanced materials leverage this compound for delivering enhanced UV stability and improved chemical resistance in specialty resins. Producers focus on strict control of monomer ratios to balance performance needs across electronics, optical, and automotive applications.

    Industry compliance standards

    • ISO 14001 Environmental Management for coatings
    • ASTM D7767 UV-curable coating test method
    • RoHS Directive 2011/65/EU for electronics applications
    • JIS K 5600 standardized performance test for paint and coatings

    Typical usage ratio

    • Introduced at 1–8 wt% in oligomer and prepolymer blends; variation determined by targeted gloss, hardness, and UV-blocking capacity for the final resin.

    Downstream process integration

    • Added during monomer blending stage prior to photo-initiator introduction; thorough wet-milling follows for resin uniformity before downstream curing or extrusion.

    Final product types

    • UV-blocking optical coatings
    • Scratch-resistant automotive clear coats
    • Specialty resin base for touch panel electronics

    4. Fragrance Ingredient Precursor in Fine Chemicals

    Major fragrance and aroma chemical producers use this compound to synthesize aromatic ketones that contribute stabilizing and fixative properties to complex perfumery formulations. QC testers emphasize consistent GC profiles and minimum impurity carryover, essential for end-use sensory performance.

    Industry compliance standards

    • IFRA (International Fragrance Association) Safety Standards
    • ISO 9001:2015 for aromas and flavors
    • REACH Annex XVII restrictions for industrial fragrances
    • US FDA 21 CFR 172.515 for synthetic flavoring substances

    Typical usage ratio

    • Present at 2–12% of key intermediates, with final usage based on aromatic intensity required by branded end formulations; process chemists adjust loading for volatility and base note persistence.

    Downstream process integration

    • Reacted in acetophenone or benzoin condensation steps, generally following pH-controlled catalyst addition; targeted for downstream vacuum distillation to isolate aromatic ketones.

    Final product types

    • Fine fragrance fixatives
    • Aromatic intermediates for industrial perfumery
    • Synthetic musks and woody aroma molecules

    5. Photoinitiator Precursor in Electronic Imaging Chemicals

    In the electronics industry, this material functions as a backbone component for synthesizing custom photoinitiators used in microfabrication, PCB imaging, and 3D printing. Precision batch control and contaminant management are required to deliver downstream chemicals that meet stringent microelectronics yield criteria.

    Industry compliance standards

    • IEC 61249 for printed circuit board base materials
    • SEMI S2 for chemical safety in semiconductor manufacturing
    • RoHS 3 (EU 2015/863) for restricted substances
    • ISO 14644-1 cleanroom standards for imaging processes

    Typical usage ratio

    • Used at 5–15% by weight in the photoinitiator synthesis mixture; proportion selected based on desired photoreactivity and downstream photoresist composition.

    Downstream process integration

    • Blended during photo-latent catalyst assembly and followed by controlled temperature condensation; product filtered for ultra-low impurity levels prior to delivery for imaging material production.

    Final product types

    • Microelectronic photoresist agents
    • Custom photoinitiators for PCB lithography
    • Photocurable adhesives for precision electronics
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    Certification & Compliance
    More Introduction

    (2-Chlorophenyl)Phenyl-Methanone: A Manufacturer’s Perspective

    Introducing the Product

    As a manufacturer with years of hands-on experience in aromatic ketones production, we understand the significance of (2-Chlorophenyl)Phenyl-Methanone, also known as 2-Chlorobenzophenone. This compound occupies a distinctive place in the aromatic ketone series. Behind every drum or bag that leaves our facility, there’s attention poured into both the chemistry and the application needs of our clients.

    The molecular structure draws chemists for good reason. The presence of the chlorine atom on the 2-position of the phenyl ring makes it a unique intermediate for synthesis. Over the years, clients across pharmaceutical, agricultural, and specialty chemical sectors have persisted in their demand for a clean, stable supply of this ketone, not just because it fits technical outlines, but also because it consistently delivers results in downstream chemistry.

    Molecular Model and Purity

    In production, our focus does not stop at just achieving a nominal assay; it pushes toward minimizing trace side products that can derail sensitive reactions later. Our typical lot achieves a purity of 99.5% or higher, based on rigorous HPLC and GC analysis conducted batch by batch. Impurity profiles, especially residual unreacted starting materials and ortho/para isomers, get minimized during distillation and crystallization steps on-site.

    Looking over the white crystalline powder as it comes off the final drying line, the quality becomes apparent even without sophisticated instrumentation. We watch for off-odors, discoloration, and any irregular crystal size, because buyers have taught us that even small changes can affect dissolution and compound handling.

    Each lot receives a standard particle size distribution test. While some buyers opt for a coarser material to suit bulk blending processes, others request finer milled grades. Meeting these needs has taught us to treat each order with attention to physical form, not just chemical composition.

    Usage and Industry Applications

    Over time, (2-Chlorophenyl)Phenyl-Methanone has carved a niche in several application fields. In pharmaceutical R&D and production, chemists rely on high-purity material to build complex molecular scaffolds. Many modern medicinal compounds use ketone intermediates like this as a functional handle for further transformations, such as Grignard additions, amine condensations, or reductions to secondary alcohols.

    Agricultural chemistry teams also turn to (2-Chlorophenyl)Phenyl-Methanone during synthesis of crop-protection agents. Here, raw material consistency matters, since any variance may introduce inconsistencies in final active ingredient yields. In the world of electronic materials, where reliability and traceability matter, small differences in residual solvents can cause out-of-spec product performance in finished devices. Our feedback loops with formulators and innovation teams have led us to deliver batches with limited moisture and solvent residue, with quantified data routinely shared along with shipments.

    Custom requests come in from fragrance and specialty materials segments as well, especially for unique building blocks not widely available. Some labs value our experience in scaling up non-standard orders, especially those requiring deviations in solvent system, crystal form, or trace impurity limits.

    Comparing (2-Chlorophenyl)Phenyl-Methanone with Related Ketones

    Many customers ask how 2-Chlorobenzophenone stacks up against closely related compounds such as unsubstituted benzophenone, 4-chlorobenzophenone, or alkoxy-substituted benzophenones. Having worked with all of them on the line, some basic trends stand out.

    The ortho-chlorine substitution brings a degree of chemical reactivity not seen with the unsubstituted or para-chloro isomers. For instance, in nucleophilic aromatic substitution or reduction protocols, the 2-position chlorine can be selectively targeted, offering routes toward regioselective transformations that are harder to achieve with symmetrical compounds.

    From a processing standpoint, certain properties differ. 2-Chlorobenzophenone has a slightly higher melting point and displays distinct solubility compared to the trio of unsubstituted and meta/para-chloro versions. These differences translate into practical choices: a formulation designed for high-temp melt processing needs to know about these shifts. Similarly, if a customer aims for solvent crystallization recovery, they should expect slightly different yields and crystal forms based on substitution position.

    Safety teams, too, ask about comparative toxicity or regulatory frameworks. Chlorinated aromatics have a different risk profile compared to their non-halogenated cousins. Having worked through REACH and other statutory requirements, we carry knowledge of necessary documentation, traceability, and tracking systems for audits, all built on years of experience in compliance. For users accustomed to standard benzophenone, switching to the 2-chloro variant means considering labeling, packaging compatibility, and effluent handling, since the waste profile carries subtle differences.

    Production Practices and Continuous Improvement

    Running a chemical plant involves juggling theory with reality, especially when scaling reactions from lab glassware to full reactors. Strong process control separates routine producers from those who ship reliable (2-Chlorophenyl)Phenyl-Methanone, lot after lot. Our team has invested in process analytics, including in-line monitoring and rapid feedback loops from our QA labs. Real-world production brings challenges like heat transfer bottlenecks or uneven agitation, but years spent on the plant floor have tuned our protocols to address these head-on, not just on paper.

    We’ve added capacity for continuous distillation and advanced crystallization, not as showpieces, but due to clear demand for higher selectivity and tighter impurity constraints. Each upgrade stems from tough situations—scrapped lots, failed audits, or custom requests that forced us to rethink our approach. Those lessons remain built into our SOPs, shaping how we act with each order.

    Feedback from customers has prompted us to enhance packaging lines, especially in dealing with static control for fine powders and tailored moisture-barrier solutions. Over time, we detected that improper packaging caused changes in product appearance and flow, and updated our process. Today, our filling stations enclose each lot in tested liners, slashing contamination and ensuring that the product arriving at your facility matches our own lab samples.

    Transparency and Quality Control

    We value transparency. Customers don’t just receive a certificate; they get a full impurity breakdown, real spectra, and a summary of all tests performed, including those outside standard regulatory scope. Over the years, buyers have told us that’s what builds trust. In supply partnerships, it’s the willingness to show—not hide—every step that convinces R&D and purchasing teams to keep coming back.

    Auditors ask to see how records are kept, how traceability matches from raw material to finished product, and how we address nonconformances. Our production records are available for review, down to the lot number of solvents and packaging, because experience taught us surprises can always occur, and planning for transparency supports faster resolutions.

    Environmental Awareness and Regulatory Alignment

    Manufacturing (2-Chlorophenyl)Phenyl-Methanone brings responsibility. Our process generates organic byproducts, chlorinated waste, and solvent emissions. Years ago, end-of-line scrubbers and closed-loop solvent recovery were just future promises. Today, they are in place, shaped by both regulations and our own commitment to running a viable long-term business. Through independent audits and regular site inspections, we check emission points, waste treatment output, and containment integrity—a direct result of hard lessons learned during past incidents that interrupted production and threatened permits.

    Regulatory standards in key markets continue to evolve. We keep up-to-date with changes to REACH, TSCA, and other frameworks, not just to retain access, but to support downstream users. We encourage customers to ask about compliance documents, supported test data, and shipment tracking, because that back-and-forth helps both sides avoid risk. Our shared aim is not simply to tick boxes, but to maintain a safe and sustainable supply.

    Supporting Research and Development Partners

    Universities, contract research organizations, and new startups come to us with questions about scalability, reproducibility, and impurity impact on exploratory projects. Having supplied lots from grams to metric tonnes, our team has learned how to adapt process parameters for pilot runs, optimize yield for specific impurities, and deliver just-in-time shipment to meet critical project milestones. Academic collaborators highlight the importance of knowing lot history, residual metals, and side product distribution. We worked alongside their teams to troubleshoot, swapping in slight purification variations until desired product characteristics were achieved.

    The flow of information runs both ways. Reports from research labs occasionally flagged subtle differences in product performance—sometimes due to impurity, sometimes batch-to-batch variability. Instead of pushing back, we made those insights fuel continuous improvement back in the plant. Years of running both commercial-scale and laboratory orders gives perspective: every request or complaint is a resource, not a nuisance.

    Managing Global Supply and Risk

    International customers know the risks involved in securing regular shipments over distances ranging from days to weeks, and through conditions as varied as hot summers and frozen winters. We’ve faced the logistics of port closures, customs delays, and climate-related storage issues. That’s why we invest in smart packaging, validated routes, and robust stock buffers at strategic warehouses. Each delayed or damaged lot taught us something, leading to updates in our chain of custody or pre-shipment inspection checks.

    Our goal is to be more than just a distant supplier. Real-world disruptions forced us to build direct channels of communication with shipping partners, develop secondary supply routes, and pre-position safety stock for customers with just-in-time needs. A shortage anywhere along the chain impacts projects and production timelines for everyone involved, so transparency and communication stay central to our operating philosophy.

    Challenges and Solutions for the Future

    Not every step in manufacturing goes as planned. Raw material availability, shifts in regulatory constraints, and demand spikes can strain systems. To minimize those risks, we rely on a diverse network of raw material suppliers, regular forecasting with partners, and close contacts in the international logistics community. Contingency plans feel unnecessary—until they become essential.

    Keeping a production campaign running through unexpected supplier outages, sudden changes in customs procedures, or new technical requirements has kept our team sharp. These situations built the discipline to track not just process yields, but also potential bottlenecks, upcoming equipment maintenance, and staff training cycles. As regulations around chlorinated organics change, our plant and development team stay ahead with research into greener solvents, improved neutralization procedures, and reduced-waste final isolation steps.

    Years in this business have proven that customer trust comes from consistent results and honest, direct answers. If a buyer’s process runs into trouble, our goal is to provide support—not lay blame. For a compound as versatile as (2-Chlorophenyl)Phenyl-Methanone, support can mean technical troubleshooting, rapid re-certification, or quick-turnaround special batch production.

    Final Thoughts on (2-Chlorophenyl)Phenyl-Methanone Supply

    Having supplied (2-Chlorophenyl)Phenyl-Methanone to R&D outfits, global pharmaceutical players, and specialty chemical blenders, our perspective grows with every shipment and feedback loop. This product’s value arises from more than just a technical spec: it’s the result of process mastery, open communication with clients, and hard-earned lessons from years of real-world production runs.

    Every drum or package we send out represents not a commodity, but the accumulated experience and quality standards of the workers, chemists, and analysts who stand behind it. We’re committed to keeping that trust strong, making improvements when needed, and building partnerships that respond to changing industry needs. At heart, we treat each customer’s use-case as unique, matching real product characteristics to the demands of real-world application.

    Any questions about product performance, compliance details, or optimization for a new application? Our team stands ready to talk shop, share best practices, and help bridge the gap from batch records to better results in your lab or plant.