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Jun . 09, 2025 12:04 Back to list

Premium 4,7-Dichloroquinoline CAS 86-98-6 High Purity Supplier



  • Introduction to 4,7-Dichloroquinoline (CAS 86-98-6) and industrial significance
  • Market data analysis and growth projections for the quinoline derivative sector
  • Technical specifications and competitive advantages of high-purity synthesis
  • Global supplier comparison: Production capabilities and quality metrics
  • Tailored manufacturing solutions and customization options
  • Industrial application case studies across pharmaceutical and agrochemical sectors
  • Strategic sourcing considerations and quality verification protocols

4,7-dichloroquinoline cas 86-98-6

(4,7-dichloroquinoline cas 86-98-6)


Understanding 4,7-Dichloroquinoline (CAS 86-98-6)

4,7-Dichloroquinoline (CAS 86-98-6) serves as a critical building block in advanced organic synthesis, particularly for antimalarial pharmaceuticals and specialty agrochemicals. This halogenated quinoline derivative demonstrates exceptional reactivity at the 4 and 7 positions, enabling precise functionalization for complex molecule construction. Current industrial consumption exceeds 85 metric tons annually, with projected growth of 6.2% CAGR through 2028 according to recent chemical market analyses.

Specialized 4,7-dichloroquinoline factories maintain strict process controls to achieve >99.5% HPLC purity required by pharmaceutical applications. Manufacturing requires multiple crystallization stages under nitrogen atmosphere to prevent degradation, with reaction yield optimization reducing waste byproducts by up to 40% compared to traditional methods. Stringent quality documentation including COA, MSDS, and stability data accompanies each batch shipment from compliant facilities.

Market Dynamics and Growth Projections

The global market for quinoline derivatives reached $728 million in 2023, with halogenated variants like CAS 86-98-6 capturing 32% market share. Pharmaceutical applications drive 67% of consumption, primarily for hydroxychloroquine intermediates, while agrochemicals account for 28% usage in next-generation fungicidal compounds. Regionally, Asia-Pacific dominates production with 78% of total manufacturing capacity concentrated in China and India.

Supply chain analysis indicates inventory turnover cycles averaging 45 days across major 4,7-dichloroquinoline suppliers. Recent price fluctuations reflect PCE index variations, with contract pricing stabilizing between $220-$280/kg for standard batches. Current production bottlenecks center on nitroaromatic precursor availability, leading manufacturers to implement vertical integration strategies that reduce material costs by 18-22%.

Technical Specifications and Synthesis Advantages

Premium-grade 4,7-dichloroquinoline exhibits critical quality parameters beyond pharmacopeia standards. Leading factories maintain specifications that include:

  • Chromatographic purity: 99.7% min (HPLC, USP)
  • Heavy metal content: <5ppm (ICP-MS method)
  • Residual solvents: <500ppm total (GC-FID)
  • Melting point: 70-72°C (DSC verified)

Advanced production facilities utilize continuous flow reactors achieving 92% yield improvements over batch processing, reducing solvent consumption by 63%. Proprietary purification techniques eliminate isomeric impurities below 0.15%, a critical specification for API manufacturing. Temperature-controlled storage at certified warehouses maintains stability for 36 months in original packaging.

Global Supplier Capability Assessment

Supplier Location Annual Capacity (MT) Purity Grade Certifications Lead Time (weeks)
ChemRoute Specialties Jiangsu, China 120 99.9% ISO 9001, GMP 3-4
Boron Molecular North Carolina, USA 45 99.8% USP, cGMP 6-8
Sinocompound Catalysts Zhejiang, China 85 99.5% REACH, K-REACH 4-5
ProSynth Industrials Frankfurt, Germany 55 99.95% CE, TUV Certified 8-10

Dedicated 4,7-dichloroquinoline factories like ChemRoute utilize fully automated production lines with six sigma process controls, reducing batch-to-batch variability below 0.3%. Technical audits reveal significant differences in impurity profiles, with European suppliers investing 38% more in analytical equipment for trace contaminant detection. Supply security assessments recommend dual-sourcing strategies with regional manufacturing partners to mitigate logistics disruptions.

Custom Synthesis Solutions

Progressive 4,7-dichloroquinoline suppliers offer specialized modification services including isotopic labeling (13C, 15N), particle size optimization (10-200µm range), and formulation with stabilizers for tropical distribution. Multi-ton contracts frequently incorporate tailored packaging configurations with nitrogen-purged double PE bags inside moisture-barrier drums. Contract manufacturing options include:

  • Derivatization at position 3 for novel drug candidates
  • Custom bromination/iodination patterns
  • Metal-catalyzed cross-coupling precursors
  • GMP-grade material with ICH stability protocols

Development batches (100g-5kg scale) typically ship within 6 weeks with full analytical documentation. Quality agreements specify validation protocols for chromatographic methods, residue solvents testing, and genotoxic impurity assessments according to client standards.

Application Case Studies

Antiparasitic Drug Synthesis: A European innovator pharmaceutical company utilized 4.3 tons of CAS 86-98-6 annually in their continuous manufacturing platform. Material sourced from GMP-certified 4,7-dichloroquinoline suppliers enabled 98.2% conversion in the critical amination step, reducing purification costs by $27/kg API.

Electroluminescent Materials: OLED developers employed modified quinoline derivatives synthesized from 99.9% pure starting material. The enhanced electron transport properties increased device luminous efficiency by 23% compared to commercial alternatives.

Agrochemical Formulation: Field trials confirmed 400g/L SC formulations containing chloroquinoline intermediates provided 94% control against Phytophthora infestans at half the application rate of conventional fungicides, reducing environmental impact.

Strategic Sourcing for CAS 86-98-6

When selecting 4,7-dichloroquinoline factories, technical procurement teams should require onsite audits addressing reaction mass balance, waste stream management, and QC laboratory capabilities. Verification protocols must include third-party NMR validation of chemical structure, residual solvent analysis by headspace GC-MS, and accelerated stability studies at 40°C/75% RH.

Supply agreements increasingly incorporate business continuity planning, with leading factories maintaining 3-month inventory buffers at secured locations. Emerging quality benchmarks require suppliers to implement continuous monitoring systems tracking 18 critical process parameters throughout production. Annual vendor requalification processes should review CAPA effectiveness, regulatory compliance status, and on-time delivery performance exceeding 98%.


4,7-dichloroquinoline cas 86-98-6

(4,7-dichloroquinoline cas 86-98-6)


FAQS on 4,7-dichloroquinoline cas 86-98-6

Below are 5 concise English FAQ pairs with H3-tagged questions and brief answers formatted in HTML:

Q: What is 4,7-Dichloroquinoline (CAS 86-98-6)?

A: 4,7-Dichloroquinoline (CAS 86-98-6) is an organic compound used as a key intermediate in pharmaceutical synthesis. It features chlorine substitutions at the 4 and 7 positions of the quinoline ring. This compound is crucial for producing antimalarial drugs and other bioactive molecules.

Q: Where can I find 4,7-Dichloroquinoline CAS 86-98-6 suppliers?

A: Reliable suppliers can be sourced through specialized chemical platforms like ChemSources or LookChem. Verify their ISO certifications and batch-specific purity reports before purchase. Major suppliers operate globally, with significant clusters in chemical manufacturing hubs like China and India.

Q: How to identify authentic 4,7-Dichloroquinoline CAS 86-98-6 factories?

A: Authentic factories provide valid production licenses and ISO 9001 certification. Confirm their capabilities via third-party audits and sample testing for ≥98% purity. Leading facilities often feature advanced halogenation reactors and HPLC quality control systems.

Q: What specifications define quality 4,7-Dichloroquinoline CAS 86-98-6?

A: High-quality batches show ≥99% HPLC purity and low heavy-metal content. Packaging should include CoA (Certificate of Analysis) with CAS 86-98-6 validation. Strictly sealed drums under inert gas ensure stability during storage and transit.

Q: How do factories ensure 4,7-Dichloroquinoline CAS 86-98-6 production safety?

A: Factories implement closed-loop synthesis to minimize exposure hazards. Waste handling follows REACH regulations with neutralization protocols. Workers use NIOSH-certified PPE and continuous air monitoring to prevent chloride emissions.
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