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  Quan Xiang,Yiqin Chen,Zhiqin Li,Kaixi Bi,Guanhua Zhang,Huigao Duan Nanoscale, 2016,8, 19541-19550
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  Bo Cao,Yin Wei Chem. Commun., 2018,54, 2870-2873
• 3. Alumina grafted SBA-15 sustainable bifunctional catalysts for direct cross-coupling of benzylic alcohols to diarylmethanes?
  Chandran Rajendran,Govindaswamy Satishkumar,Charlotte Lang,Eric M. Gaigneaux Catal. Sci. Technol., 2020,10, 2583-2592
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• Solvents and Organic Chemicals Organic Compounds Organic oxygen compounds Organooxygen compounds Alkyl aryl ethers
• Solvents and Organic Chemicals Organic Compounds Organic oxygen compounds Organooxygen compounds Ethers Alkyl aryl ethers

Comprehensive Guide to 3-Ethoxypyridazine (CAS No. 62567-44-6): Properties, Applications, and Industry Insights

3-Ethoxypyridazine (CAS No. 62567-44-6) is a specialized organic compound belonging to the pyridazine family, a class of heterocyclic compounds with a wide range of applications in pharmaceuticals, agrochemicals, and material science. Its molecular structure, featuring an ethoxy group (–OCH₂CH₃) attached to the pyridazine ring, imparts unique chemical properties that make it valuable for synthetic chemistry and industrial processes. This article delves into the physical and chemical characteristics, synthesis methods, and emerging applications of 3-Ethoxypyridazine, while addressing trending topics like green chemistry and AI-driven molecular design.

The growing interest in heterocyclic compounds like 3-Ethoxypyridazine is driven by their versatility in drug discovery and crop protection. Researchers frequently search for terms such as "pyridazine derivatives in medicine" or "ethoxy-substituted heterocycles", reflecting the demand for innovative bioactive molecules. With a molecular formula of C₆H₈N₂O and a molar mass of 124.14 g/mol, this compound exhibits moderate solubility in polar solvents, making it suitable for reactions under mild conditions—a key consideration for sustainable synthesis.

Recent advancements in computational chemistry have shed light on the electronic properties of 3-Ethoxypyridazine, particularly its role as a building block for pharmaceutical intermediates. Studies highlight its potential in modulating enzyme activity, a topic gaining traction in precision medicine forums. The compound’s stability under physiological pH conditions also makes it a candidate for prodrug development, aligning with the industry’s focus on targeted drug delivery systems.

In agrochemical applications, 3-Ethoxypyridazine derivatives are explored for their pesticidal activity, coinciding with global searches for "eco-friendly crop protection". Its structural motif is often incorporated into molecules designed to combat resistant pests, addressing the urgent need for sustainable agriculture solutions. Regulatory databases like the EPA’s Chemical Search provide safety profiles, ensuring compliance with environmental standards—a priority for modern manufacturers.

The synthesis of 3-Ethoxypyridazine typically involves nucleophilic substitution reactions, where 3-chloropyridazine reacts with sodium ethoxide. Optimizing this process for atom economy and reduced waste resonates with the principles of green chemistry, a hot topic in academic and industrial circles. Analytical techniques such as HPLC and NMR spectroscopy are critical for purity assessment, ensuring reproducibility—a frequent concern cited in research publications.

From a commercial perspective, suppliers of 3-Ethoxypyridazine emphasize batch-to-batch consistency and scalability, responding to queries like "bulk pyridazine suppliers". The compound’s shelf life and storage conditions (typically 2–8°C under inert gas) are also common FAQs, underscoring the importance of handling protocols in procurement decisions. Market analyses predict steady demand growth, linked to expanding R&D in small-molecule therapeutics.

Innovations in catalytic processes further enhance the relevance of 3-Ethoxypyridazine. For instance, palladium-catalyzed cross-coupling reactions enable the introduction of diverse functional groups, expanding its utility in high-throughput screening libraries. Such methodologies align with the pharmaceutical industry’s push toward fragment-based drug discovery, a trending search term among medicinal chemists.

Environmental impact assessments of 3-Ethoxypyridazine highlight its biodegradability under aerobic conditions, a feature increasingly scrutinized in ESG reporting. This aligns with consumer searches for "safe chemical alternatives", reflecting broader societal shifts toward eco-conscious manufacturing. Lifecycle analyses suggest that advanced oxidation processes can effectively degrade the compound in wastewater, mitigating ecological risks.

In conclusion, 3-Ethoxypyridazine (CAS No. 62567-44-6) exemplifies the intersection of traditional chemistry and modern innovation. Its multifaceted applications—from drug design to agrochemicals—coupled with its compatibility with sustainable practices, position it as a compound of enduring significance. As AI-powered platforms like Reaxys and SciFinder accelerate molecular exploration, the future of pyridazine chemistry promises even greater breakthroughs.

• 61690-60-6(3-ethoxy-6-phenoxy-Pyridazine)
• 748141-89-1(3-Propoxypyridazine)
• 19064-65-4(3-Methoxypyridazine)
• 4603-59-2(3,6-Dimethoxypyridazine)
• 4322-49-0(Pyridazine,3,6-bis[2-(dimethylamino)ethoxy]- (6CI,7CI,8CI))
• 16105-55-8(3,5-diethoxy-1H-Pyrazole)
• 90915-02-9(1-ethoxy-Phthalazine)
• 19064-72-3(1,4-diethoxy-Phthalazine)
• 58667-92-8(3-ethoxy-6-methoxy-Pyridazine)
• 89770-36-5(Pyridazine, 3-butoxy-)