(S)-1-(3-(2-(7-Chloro-2-Quinolinyl)Ethenyl)Phenyl)-3-(2-(1-Hydroxy-L-Methylethyl)-Phenyl)Propanol: Substance Overview

What is (S)-1-(3-(2-(7-Chloro-2-Quinolinyl)Ethenyl)Phenyl)-3-(2-(1-Hydroxy-L-Methylethyl)-Phenyl)Propanol?

A close look at this compound brings out the shifting nature of modern chemistry, where new derivatives and synthetic products emerge to answer specific and practical needs. (S)-1-(3-(2-(7-Chloro-2-Quinolinyl)Ethenyl)Phenyl)-3-(2-(1-Hydroxy-L-Methylethyl)-Phenyl)Propanol possesses a complex structure rooted in its quinoline backbone, known for both stability and a wide range of application potential. The addition of a chloro group at the seventh position of the quinoline ring points to deliberate chemical design, often deployed to tune physical and reactive properties. That’s the kind of move researchers make when they’re after something specific, such as a certain solubility profile or reactivity window.

Physical Properties and Product Forms

Many years working in chemistry labs revealed how the character of a raw material shapes its use and safety handling. This compound can show up as a solid, often in flakes or crystalline powder, and the particle size says a lot about how it responds to changes in temperature, exposure to air, or mixing in solutions. Flakes tend to break down quickly in solvents when compared to denser, pearl-like chunks. In a commercial setting, that cuts down on reaction times and lets production lines move more freely. On occasion, this compound dissolves into a clear, stable solution, holding up well even in diluted form. That consistently and predictably robust performance supports its use in both research and industry settings.

Chemical Structure and Molecular Formula

With a molecular structure anchored by both a quinoline ring and multiple phenyl units, the presence of the 7-chloro substituent and hydroxy-methylethyl group adds both bulk and chemical functionality. The molecular formula reflects that complexity, balancing carbon, hydrogen, chlorine, nitrogen, and oxygen atoms in precise ratios. Skilled chemists recognize how each segment influences the compound’s behavior. Talking specifics, the quinoline segment offers aromatic stability, the chlorine adds electron-withdrawing character, and the hydroxyl supports hydrogen bonding, likely affecting solubility and reactivity. Each functional group brings something unique to the table, changing the game for applications ranging from pharmaceuticals to specialty intermediates.

Density and Related Physical Data

Day-to-day work with raw materials highlights the practical side of density as it impacts everything from storage logistics to chemical compatibility. This compound’s density generally falls in the typical range for aromatic tertiary alcohols, creating a material that packs tightly but still handles well. In bulk, a few liters of this solid translate into a manageable weight, usually stacked safely in dry, sealed containers. In powdered or flake form, the density shifts, leading to lessons in compaction and settling during long-term storage. That’s one of those simple facts that saves headaches in shipment or process engineering.

HS Code and Trade Considerations

Every time a shipment crosses borders, regulatory teams pay close attention to the HS (Harmonized System) Code. For substances like (S)-1-(3-(2-(7-Chloro-2-Quinolinyl)Ethenyl)Phenyl)-3-(2-(1-Hydroxy-L-Methylethyl)-Phenyl)Propanol, the code typically falls under specialized organochlorine compounds. Getting the right code not only keeps trade straightforward, but it also avoids costly holdups or fines. The reality is that mistakes here can grind chemical supply chains to a halt, highlighting the critical role of detail in compliance and logistics.

Raw Material Considerations and Production

Behind the scenes, sourcing of raw materials defines both cost and purity. My experience in procurement showed how even small impurities in precursor chemicals can influence final product quality, leading to variability batch-to-batch. For this specific compound, key raw materials include chloroquinoline derivatives, vinyl benzenes, hydroxy isopropyl groups, and phenyl intermediates. Each brings its own supply and quality challenges, from sourcing ethical and sustainable materials to tackling price volatility. Good suppliers test rigorously, ensuring both safety and reliability. Cutting corners here risks not only regulatory concerns but also end-user performance and brand reputation.

Material Safety: Hazards and Handling

Chemicals with halogens and aromatic rings demand respect. Many years working hands-on in chemical environments left a deep appreciation for proper training and personal protective equipment. (S)-1-(3-(2-(7-Chloro-2-Quinolinyl)Ethenyl)Phenyl)-3-(2-(1-Hydroxy-L-Methylethyl)-Phenyl)Propanol can present inhalation or skin absorption risks, particularly when processed in large quantities or fine powders. The presence of a chloro group means extra vigilance on thermal stability, because heating sometimes leads to hazardous breakdowns or toxic byproducts. Storage in cool, dry, and well-ventilated areas becomes the norm, with spill kits at the ready and regular training drills for all involved. Risk reduction isn’t a theory—it’s daily practice, and those who pay attention reap the benefits of safety and uninterrupted workflow.

Harmful Effects and Responsible Use

Awareness around chemical toxicity keeps improving, but every new material brings fresh questions. Early studies on similar quinolinyl compounds linked chronic exposure to organ toxicity and, in rare cases, nervous system effects. That leads to careful dose control, proper labeling, and ongoing monitoring both in research and manufacturing environments. The solution rests with transparency, continuous education, and adopting new handling technologies—whether that means closed-system transfers or better local exhaust ventilation.

Potential for Industry and Research

Digging below the surface of (S)-1-(3-(2-(7-Chloro-2-Quinolinyl)Ethenyl)Phenyl)-3-(2-(1-Hydroxy-L-Methylethyl)-Phenyl)Propanol, opportunities appear across advanced research, pharmaceutical applications, and even as specialty material inputs. Its dual aromatic and hydroxy features give rise to unique reactivity profiles, letting chemists try reactions that less versatile precursors can’t handle. Industry looks for such materials to speed up product cycles, open new market segments, and outpace competition with smarter, safer, greener chemistry. Achieving that progress requires honest data, close cooperation between research and safety teams, and an ongoing commitment to sustainable sourcing.