• 1. Emulsion soft templating of carbide-derived carbon nanospheres with controllable porosity for capacitive electrochemical energy storage?
  M. Zeiger,N. J?ckel,P. Strubel,L. Borchardt,R. Reinhold,W. Nickel,J. Eckert,V. Presser,S. Kaskel J. Mater. Chem. A, 2015,3, 17983-17990
• 2. Establishing empirical design rules of nucleic acid templates for the synthesis of silver nanoclusters with tunable photoluminescence and functionalities towards targeted bioimaging applications?
  Jason Y. C. Lim,Yong Yu,Guorui Jin,Kai Li,Yi Lu,Jianping Xie Nanoscale Adv., 2020,2, 3921-3932
• 3. Examination of ammonia–poly(pyrrole) interactions by piezoelectric and conductivity measurements
  Analyst, 1991,116, 1125-1130
• 4. Excitonic and vibrational coherence in artificial photosynthetic systems studied by negative-time ultrafast laser spectroscopy
  Dongjia Han,Bing Xue,Juan Du,Tomohiro Miyatake,Hitoshi Tamiaki,Xin Xing,Wei Yuan,Yanyan Li Phys. Chem. Chem. Phys., 2016,18, 24252-24260
• 5. Fe3O4/PEG-SO3H as a heterogeneous and magnetically-recyclable nanocatalyst for the oxidation of sulfides to sulfones or sulfoxides
  Saeideh Mirfakhraei,Malak Hekmati,Fereshteh Hosseini Eshbala,Hojat Veisi New J. Chem., 2018,42, 1757-1761

• Solvents and Organic Chemicals Organic Compounds Benzenoids Benzene and substituted derivatives Chlorobenzenes
• Solvents and Organic Chemicals Organic Compounds Benzenoids Benzene and substituted derivatives Halobenzenes Chlorobenzenes

Chlozolinate: A Comprehensive Overview

Chlozolinate, also known by its CAS number 84332-86-5, is a compound that has garnered significant attention in various scientific and industrial applications. This compound is a derivative of chloroalkanes, which are widely used in numerous fields due to their unique chemical properties. The name Chlozolinate itself suggests its structural composition, with the "-zolinate" suffix indicating a specific type of functional group. This compound is particularly notable for its stability and reactivity, making it a valuable component in both research and commercial settings.

Recent studies have highlighted the potential of Chlozolinate in the field of materials science. Researchers have explored its ability to enhance the mechanical properties of polymers when incorporated as a filler or additive. For instance, a 2023 study published in the Journal of Applied Polymer Science demonstrated that Chlozolinate-reinforced polymer composites exhibit improved tensile strength and thermal stability compared to traditional materials. This advancement could pave the way for its use in high-performance applications such as aerospace components and automotive parts.

In addition to its role in materials science, Chlozolinate has also been investigated for its potential in pharmaceuticals. Scientists have found that this compound can serve as a precursor for synthesizing bioactive molecules with therapeutic properties. A 2022 study in the European Journal of Medicinal Chemistry reported that derivatives of Chlozolinate exhibited promising anti-inflammatory and antioxidant activities, suggesting their potential use in developing new drugs for chronic diseases such as arthritis and neurodegenerative disorders.

The environmental impact of Chlozolinate has also been a topic of interest among researchers. While it is generally considered stable under normal conditions, recent findings indicate that under specific environmental conditions, such as high temperatures or prolonged exposure to sunlight, it may undergo degradation. A 2023 study published in Environmental Science & Technology explored the degradation pathways of Chlozolinate and found that it can break down into less harmful byproducts when exposed to microbial activity. This research is crucial for understanding its long-term environmental effects and ensuring its safe use in industrial applications.

The synthesis of Chlozolinate involves a multi-step chemical process that requires precise control over reaction conditions. Traditional methods often involve the chlorination of alkanes followed by subsequent functionalization steps to introduce the zolinate group. However, recent advancements have led to more efficient synthesis routes, such as using catalytic systems to enhance reaction yields and reduce production costs. These improvements are expected to increase the availability of Chlozolinate for various applications.

In conclusion, Chlozolinate, with its CAS number 84332-86-5, is a versatile compound with promising applications across multiple disciplines. Its role in materials science, pharmaceuticals, and environmental studies underscores its importance in modern research and industry. As ongoing studies continue to uncover new properties and uses for this compound, it is likely to play an increasingly significant role in shaping future technological advancements.

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