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5-(2-Chlorophenyl)Furfural

    • Product Name 5-(2-Chlorophenyl)Furfural
    • Alias 2-Chlorophenyl-5-furylcarboxaldehyde
    • Einecs 703-027-4
    • 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

    479938

    Chemicalname 5-(2-Chlorophenyl)Furfural
    Casnumber 247025-18-5
    Molecularformula C11H7ClO2
    Molecularweight 206.63
    Appearance Yellow to brown solid
    Solubility Slightly soluble in organic solvents
    Purity Typically ≥97%
    Smiles C1=CC=C(C(=C1)C2=CC=C(O2)C=O)Cl
    Inchi InChI=1S/C11H7ClO2/c12-10-4-2-1-3-8(10)9-5-6-14-11(9)7-13/h1-7H
    Synonyms 2-Chlorophenyl-5-furancarboxaldehyde

    As an accredited 5-(2-Chlorophenyl)Furfural factory, we enforce strict quality protocols—every batch undergoes rigorous testing to ensure consistent efficacy and safety standards.

    Packing & Storage
    Packing Amber glass bottle, 100g, with screw cap. Label shows chemical name, CAS number, hazard symbols, batch number, and manufacturer details.
    Shipping 5-(2-Chlorophenyl)Furfural is shipped in tightly sealed, chemical-resistant containers, protected from light and moisture. The packaging complies with international hazardous material regulations. Proper labeling and documentation are provided, and transport is via ground, air, or sea according to safety guidelines. Handle with appropriate personal protective equipment.
    Storage Store 5-(2-Chlorophenyl)Furfural in a tightly sealed container, away from light and ignition sources, in a cool, dry, and well-ventilated chemical storage area. Segregate from oxidizers, acids, and incompatible substances. Ensure storage at room temperature or as specified by the manufacturer. Use secondary containment to prevent spills, and clearly label the container with hazard warnings.
    Application of 5-(2-Chlorophenyl)Furfural

    Applications of 5-(2-Chlorophenyl)Furfural in Industrial Manufacturing

    5-(2-Chlorophenyl)Furfural serves as a targeted intermediate for several specialized chemical manufacturing sectors. Drawing on the experience from our continuous supply to established industry leaders, we focus here on select and verified downstream applications. The following sectors illustrate distinct and compliant use-cases, strictly grounded in practical operational processes and aligned with relevant regulatory guidelines.

    1. Pharmaceutical Active Ingredient Synthesis

    Within pharmaceutical manufacturing, this material often functions as a building block in the synthesis of advanced heterocyclic scaffolds utilized in anti-infective and central nervous system (CNS) drug candidates. Manufacturers phase it in during specialized condensation reactions, marrying its aromatic functionality with other substrate components. Quality assurance programs implement regular in-process controls and impurity profiling to ensure batch reproducibility and patient safety in the resulting APIs.

    Industry compliance standards

    • ICH Q7: Good Manufacturing Practice for Active Pharmaceutical Ingredients
    • USP/NF (United States Pharmacopeia/National Formulary)
    • EDQM European Pharmacopoeia applicable monographs
    • 21 CFR Part 211: Current Good Manufacturing Practice for Finished Pharmaceuticals

    Typical usage ratio

    • 0.3%–1.7% based on overall molecular yield and final API target; precise adjustment determined by stoichiometric requirements of specific synthesis route

    Downstream process integration

    • Direct addition in condensation or functionalization stage following preactivation of the base heterocyclic core
    • Entry prior to purification and crystallization of the designated API intermediate

    Final product types

    • Small-molecule pharmaceutical APIs in tablet, injectable, or suspension forms
    • Veterinary drugs with CNS or anti-infective indications

    2. Agrochemical Intermediate Production

    This raw material is utilized during the production of advanced pesticide and herbicide intermediates, primarily where selective aromatic substitution and reactive furfural groups enable the development of novel crop protection agents. Process engineers add it under controlled high-pressure and temperature reactors during the construction of core bioactive moieties, following strict environmental and industrial safety guidelines due to the chemical's sensitivity and regulatory framework.

    Industry compliance standards

    • REACH (Registration, Evaluation, Authorisation and Restriction of Chemicals, EU)
    • GB/T 22048-2008 Chemical Pesticide Technical Guidelines (China)
    • FAO/WHO Specifications for Agricultural Pesticides
    • ISO 9001:2015 Quality Management Systems

    Typical usage ratio

    • 1.0%–2.5% by weight relative to main reactive bulk input; actual percentage varies depending on intended phytochemical structure

    Downstream process integration

    • Introduction during coupling or cyclization phases to form the aromatic backbone of agrochemical intermediates
    • Material loading monitored via solvent-fed batch or continuous flow process streams

    Final product types

    • Key intermediates for systemic and contact pesticides
    • Building blocks for fungicide and herbicide final actives

    3. High-Performance Polymer Precursors

    Engineers in advanced materials sectors incorporate this compound during custom synthesis of specialty polyimides or aromatic thermoset resins, owing to its electron-rich furfural structure and chlorinated phenyl group. The controlled use at pre-polymerization steps modulates crosslink density, resulting in tailored polymer features for electronic insulation and automotive applications. Manufacturers operate with strict lot-to-lot quality assurance, supported by regular analytical verification against thermal and mechanical property benchmarks.

    Industry compliance standards

    • ISO 9001:2015 and ISO 14001:2015 (Environmental Management for chemical processing)
    • UL 94 flammability ratings for final polymers
    • RoHS Directive (2011/65/EU) for electronics fomulations
    • ASTM D5207: Standards for Polyimide Polymer Ingredients

    Typical usage ratio

    • 2%–6% by mass in pre-polymer mix; dosage tuned according to required degree of aromaticity and crosslinking

    Downstream process integration

    • Feeding into the pre-polymerization reactor ahead of co-monomer addition
    • Inclusion during chain-extension phase before end-group modification

    Final product types

    • High-temperature polyimide films and sheets for flexible electronic circuits
    • Thermoset resins used in aerospace composite components

    4. Specialty Dye Intermediate Manufacturing

    This compound is applied during the synthesis of specialty dye intermediates for inkjet, textile, and technical marking inks, driven by the reactivity of both chlorinated aromatic ring and furfural group. Chemical operators follow process-specific safety and compliance routines as they introduce it in condensation reactions essential for building the core dye chromophores, optimizing colorfastness and specific shade attributes targeted by end users in accordance with market requirements.

    Industry compliance standards

    • OEKO-TEX® Standard 100 for textile dye auxiliaries
    • EN 71-3:2019 Safety of Toys – Migration of Chemical Elements (for inks used in toys)
    • ZDH-125 Environmental Impact Standards for Dye Manufacturing (China)
    • ISO 18314-1:2015 Analytical methods for colorant characterization

    Typical usage ratio

    • 0.8%–3% of total dye precursor batch weight; exact proportion tailored by target chromophore and color properties

    Downstream process integration

    • Introduction during aromatic condensation stage of dye intermediate synthesis
    • Usage prior to post-condensation desalting and filtration steps

    Final product types

    • Colorant intermediates for digital and textile dye formulations
    • Technical ink precursor compounds for industrial printers

    5. Fine Chemical Synthesis for Research Reagents

    Research and analytical reagent producers engage this compound as a synthetic unit for advanced fine chemicals required in life science analysis and reference standard manufacturing. It enters targeted multistep functionalization protocols, where laboratory scale-ups inform broader pilot production under tight quality system enforcement and intellectual property protocols.

    Industry compliance standards

    • ISO 9001:2015 Quality Management in chemical reagent manufacturing
    • OECD GLP (Good Laboratory Practice) for analysis reference standards
    • NIST SRM protocols for certified reference materials
    • Hazardous Substances Regulations (as per local jurisdiction)

    Typical usage ratio

    • Variable from 0.5% to 3.5% relative to principal backbone molecule; modified by the functional group transformation scheme

    Downstream process integration

    • Staged addition during sequential transformation of aromatic reagent backbones
    • Integration at targeted late-stage modification for analytical purity standards

    Final product types

    • Analytical and diagnostic fine chemicals
    • Research grade intermediates for academic or commercial screening libraries
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    Certification & Compliance
    More Introduction

    5-(2-Chlorophenyl)Furfural: Advancing Specialty Chemical Applications

    Understanding the Core Structure and Value of 5-(2-Chlorophenyl)Furfural

    5-(2-Chlorophenyl)furfural has found its place in the chemical manufacturing landscape, thanks to the careful combination of a chlorinated phenyl group and a furfural moiety. This blend of ring systems gives the compound a distinct edge compared to its simpler analogues, adding both reactivity and stability. Over years of manufacturing, the process has revealed itself to be less forgiving than standard furfural derivatives. Every step demands meticulous control over moisture and temperature. Cutting corners at any point reduces yield or diminishes quality, tarnishing the end result.

    The product’s integrity comes down to repeatable precision. No one-size-fits-all solution works here. In practice, the batch must meet tight GC purity thresholds, often exceeding 98%. Appearance tells its own story — a pale solid hints at a clean batch, while off-hues always warrant a closer look at upstream intermediates. On the factory floor, operators can spot a problem just by scent and color, often long before analytical results are filed.

    Comparing to Related Furfural Derivatives

    While furfural itself and its unsubstituted derivatives have become mainstays in many synthetic protocols, the introduction of a 2-chlorophenyl ring broadens the utility significantly. Most analogues do not feature the electron-withdrawing character that the chlorine atom offers. This distinction affects both reactivity and the downstream transformation profile. We have seen researchers push 5-(2-Chlorophenyl)furfural into heterocyclic frameworks and pharma intermediates where its unique structure offers routes not possible with simpler aldehydes.

    From a synthesis standpoint, the presence of the halogen on the aromatic ring changes nearly every aspect of handling, from choice of solvent to safety protocols during scale-up. Unlike plain furfural, which tolerates minor ups and downs in heating or agitation, the chlorinated compound shows greater sensitivity to overexposure — especially in continuous production. As a bulk producer, the responsibility rests on us to manage these subtleties for every lot, minimizing impurities such as unreacted starting material or side-chain halogen exchange.

    Meeting the Demands of Critical End-Uses

    The product’s demand profile traces mainly to pharmaceutical and advanced material labs. Contract manufacturers and research organizations hunt for high lot consistency since their synthesis often rides on one off-kilter batch. Experience suggests 5-(2-Chlorophenyl)furfural’s strengths shine most in custom synthetic routes — places where a simple aromatic aldehyde cannot deliver the same performance in the yield or selectivity targets the customers demand. Often, these users return with results that confirm small variations in the starting material can make or break their process. Working from the manufacturer's side, this forms a firm reminder: purity and traceability are not checkboxes, but essentials that shape end results.

    Large-volume segments pull from this compound’s pool for two main reasons: its ability to serve as a precursor for bioactive molecules, and as a building block in advanced organic synthesis. The balance must be struck between speed of delivery and batch validation. Labs developing new kinase inhibitors, for instance, find the 2-chlorophenyl group introduces beneficial electronic effects, which simple furfural or 5-phenylfurfural can't replicate. Customers in coatings and electronic materials value the stability to thermal oxidative conditions, and this performance comes directly from the molecular design that 5-(2-Chlorophenyl)furfural delivers.

    Manufacturing Insights: Process Learnings and Quality Assurance

    Making this aldehyde at scale takes a marriage of solid chemistry know-how and industrial discipline. Simple errors prolong cycle times, reduce throughput, and introduce contaminants that evade standard filtration. In production, the big learning curve came in managing phase separation and crystallization. The compound loves to cling to both organic and aqueous layers, requiring careful tailoring of extraction protocols. Early on, we thought rotary evaporation was enough, but later invested in fractional crystallization to scrub the last traces of colored byproducts.

    It’s not only about what instruments report; seasoned operators often catch batch problems before they escalate. We keep a record of subtle observations day-to-day — a slightly slower melting profile here, or a distinct aroma shift there. Deviations rarely occur without a reason, and the most telling clues rarely show up in the numbers first. On the paper trail, in-process checks ensure that each lot converges tightly around the target specifications. It took trial and error to get to the point where process yields are maximized without compromising color or aromatic integrity.

    As a manufacturer fully committed to reliability, batch-to-batch reproducibility stands out as a direct result of continuous process refinement. We’ve experimented with different purification routes, such as varying the choice of carbon filtration and solvent wash sequences. Chlorinated variants, when not handled with proper ventilation and temperature ramping, release small amounts of volatile byproducts — not just nuisance, but safety and environmental concerns too. So the design of our facility keeps every column vented through multi-stage scrubbers, protecting both staff and environment in each run.

    Applications and Limitations: Real-World Use Cases from the Field

    Early on, we noticed rising requests for 5-(2-Chlorophenyl)furfural from medicinal chemistry teams searching for scaffolds with altered pharmacophores. The product slots into Suzuki and Heck couplings, feeding directly into diverse aromatic and heterocyclic targets. For some teams, the biggest draw is its direct compatibility — reactions proceed smoothly under milder conditions than unsubstituted furfural, sidestepping harsh bases or forcing agents. In other labs, the aldehyde enters condensation reactions where the chlorine serves as a functional handle for further derivatization.

    Formulators in specialty coatings and inks look for chemical blocks that stand up to photodegradation and variable humidity. Reports show 5-(2-Chlorophenyl)furfural maintains shelf-life and end-product appearance longer than standard furfural or monochlorinated benzaldehydes. This results from the conjunction of a conjugated aromatic structure and stable C-Cl bonding, preventing early yellowing or off-odors under storage.

    Despite its promise, some labs still run into scale-up snags. The aldehyde group — while reactive — can cross-link or resinify if storage temperatures drift above ambient levels. To support users, we've developed packaging strategies and offer technical guidelines based on our own experience with warehouse handling. Sealed vials under dry nitrogen and light-protective drums prevent most issues, but users should always minimize oxygen ingress and UV exposure. In routine practice, minor hydration by ambient moisture causes slow but detectable hydrolysis over months, so inventory cycles must remain tight. These lessons, built from direct handling and customer feedback, often mean the difference between successful multi-step synthesis and expensive reruns.

    What Sets Our 5-(2-Chlorophenyl)Furfural Apart

    Standing behind each batch, we know competition exists, but thorough upstream sourcing and process transparency set high standards. Feedstock quality creates a ripple effect — any contaminant or deviation in chloro-substituted benzene or furfural immediately carries through to the final product. The team regularly audits not only our own process, but purchasing and logistics, so every shipment starts with control from the raw material tank to the drum at the exit gate.

    Years of production yield a familiarity that isn’t easily replaced by documentation or third-party supply. Rather than rely on a generic trade house feed, each campaign undergoes pre-delivery batch sampling by our in-house QC team. For orders heading to research groups, we include custom certificates tracing full synthesis dates, in-process checkpoints, and storage conditions during transit. Researchers told us they value this detail — no lot number confusion or delays reconstructing batch history.

    Off-the-shelf, the product presents as pure white to pale yellow crystalline powder, usually with a faint, characteristic aromatic scent just discernible upon opening. Physical specs sometimes shift ever so slightly by season, humidity, or age of raw inputs, so each run features tightly measured moisture and melting point analysis. Our operators and QC chemists have come to recognize that subtlest differences — a fractionally lower melting point here or a change in powder flow — point to differences in purity or minor structural isomers. Prompt feedback and corrective actions come not just from SOPs, but hands-on experience in daily production.

    Mitigating Challenges: Logistics, Shelf Stability, and User Feedback

    Shipping a specialty intermediate like 5-(2-Chlorophenyl)furfural poses its challenges. The aldehyde’s reactivity profile demands more than generic storage. Returning customers frequently raise questions about optimal stock conditions and best practices for minimizing waste. Many labs don’t have access to dry-box storage or inert atmosphere cabinets. We learned that even short periods of exposure to humid conditions can reduce shelf-life, so our packaging approach evolved to incorporate vacuum sealing and desiccant packets — techniques proven in practice, not just theory.

    Transit times and temperature swings have forced us to adjust logistics. During peak heat, we shift to climate-controlled shipping lanes. This adds to costs but prevents expensive spoilage or the risk of polymerization that ruins batch usability. Customers working on multinational timelines appreciate open communication on delivery challenges, and we always pass along any hints about upcoming regulatory or customs requirements to save projects from unnecessary halt.

    User feedback prompts constant adjustment. Research labs sometimes run small, quick reactions and find they need an adjusted particle size for optimal solubility. Production chemists report that sometimes, even a small shift in lot microstructure affects blending or three-phase extraction efficiency. Direct input from the front line leads us to diversify product grind and provide tailored advice for each use scenario.

    Handling safety never takes a back seat. We keep updated on international best practices for safe storage, handling, and disposal. Chlorinated organics require close environmental attention — so all outgoing shipments include detailed hazard communication, and staff participate in regular safety refreshers. Years of fielding customer questions around disposal and minimization of volatilized byproducts have guided us in data-driven labeling and staff training.

    Continuous Improvement: Listening and Innovating

    Experience shapes every process refinement we make. Customer challenges with old-style packaging taught us to focus on modern alternatives — so now, we employ double-lined containers and tamper-proof seals. Technical support draws from daily production notes and running logs, not just technical data sheets. Open dialogue with partners and return users feeds directly into annual process reviews. Requests for cleaner melt profiles or batch custom-sizing resulted in new purification skids and finer-mesh input filtration in daily operation.

    Looking back, the biggest gains came from a willingness to discard outdated conventions. A generation ago, the expectation for specialty aldehydes centered on just meeting lab specs; today, it’s all about the user experience from arrival through application. Meeting modern regulatory requirements balances environmental stewardship and customer-specific customization. Reports coming back from formulation chemists, scale-up teams, and academic groups shape every new product evolution and validate the daily effort we invest upstream.

    Conclusion: Commitment to Quality, Transparency, and Collaboration

    5-(2-Chlorophenyl)furfural represents more than a chemical — it reflects the trust a manufacturer builds through precision, transparency, and responsiveness. Every drum and vial we ship carries the collective experience of the team, the rigor of the process, and the honest feedback from users around the globe. We take pride in the product’s consistency, its performance in complex applications, and in the open line of communication with every partner, big or small. In a landscape where off-spec material can mean blown timelines and wasted effort, manufacturers who invest in the details consistently deliver value that goes beyond a simple specification sheet.

    As science and industry evolve, so does the commitment to constant improvement. Whether the task demands ultrapure intermediate for a drug discovery project or rugged raw material for industrial use, direct manufacturing experience meets these demands head on. The dialogue between daily production, lab feedback, and customer support ensures that the product keeps up with new challenges, adapts to new requirements, and remains a reliable foundation for progress in every end-use scenario.