• 1. Gold-catalysed synthesis of phosphonate-substituted oxetan-3-ones – an easy access to highly strained HWE reagents
  Shaista Tahir,Jonas F. Wunsch,Matthias Rudolph,Frank Rominger,A. Stephen K. Hashmi Org. Chem. Front. 2022 9 117
• 2. Hydrogen versus tetrel bonds in complexes of 3-oxetanone with water and formaldehyde
  Junhua Chen,Hao Wang,Zbigniew Kisiel,Qian Gou,Walther Caminati Phys. Chem. Chem. Phys. 2021 23 7295
• 3. Rearrangement of an oxetan-3-one and related alcohols by Grignard reagents
  John A. Donnelly,James G. Hoey,Raymond O'Donnell J. Chem. Soc. Perkin Trans. 1 1974 1218
• 4. 3,3-Dinitratooxetane – an important leap towards energetic oxygen-rich monomers and polymers
  Max Born,Thomas C. Fessard,Lucas G?ttemann,Thomas M. Klap?tke,J?rg Stierstorfer,Michael Voggenreiter Chem. Commun. 2021 57 2804
• 5. Orientation of carbonyl groups in inclusion crystals formed from ketones with aromatic diimide-based macrocycles
  Masahide Tominaga,Sakito Nanbara,Tadashi Hyodo,Masatoshi Kawahata,Kentaro Yamaguchi CrystEngComm 2023 25 1295

• Solvents and Organic Chemicals Organic Compounds Heterocyclic Compounds
• Solvents and Organic Chemicals Organic Compounds Aldehyde/Ketone

Professional Introduction to Compound with CAS No. 6704-31-0 and Product Name: 3-Oxetanone

The compound with the CAS number 6704-31-0 is identified as 3-Oxetanone, a heterocyclic organic compound that has garnered significant attention in the field of chemical and pharmaceutical research. 3-Oxetanone, characterized by its four-membered ring structure containing one oxygen atom, exhibits unique chemical properties that make it a valuable intermediate in synthetic chemistry. Its molecular formula, C?H?O?, underscores its simplicity yet functional versatility, which has been leveraged in various applications ranging from drug development to material science.

In recent years, the study of 3-Oxetanone has been further propelled by its emerging role in medicinal chemistry. The compound's ability to undergo facile ring-opening reactions has made it a preferred scaffold for designing novel bioactive molecules. Researchers have utilized these reactions to develop derivatives with potential therapeutic applications, including anti-inflammatory and antimicrobial agents. The structural motif of 3-Oxetanone allows for easy functionalization, enabling chemists to tailor the properties of the resulting compounds to specific biological targets.

One of the most compelling aspects of 3-Oxetanone is its utility in the synthesis of pharmacologically relevant molecules. For instance, studies have demonstrated its role in generating oxetane-based peptidomimetics, which mimic the behavior of natural peptides without their drawbacks. These peptidomimetics have shown promise in inhibiting enzymes involved in inflammatory pathways, such as COX-2 and TNF-α. The ability of 3-Oxetanone to serve as a precursor for such high-value compounds underscores its importance in modern drug discovery.

Moreover, the chemical reactivity of 3-Oxetanone has been explored in the context of green chemistry initiatives. Its participation in catalytic processes that minimize waste and energy consumption aligns with the growing emphasis on sustainable practices in pharmaceutical manufacturing. Recent advances in transition metal-catalyzed reactions have enabled more efficient transformations involving 3-Oxetanone, further enhancing its appeal as a synthetic building block. These developments not only improve the scalability of processes but also reduce environmental impact.

The versatility of 3-Oxetanone extends beyond pharmaceuticals into materials science. Its incorporation into polymers and coatings has been investigated for applications requiring enhanced durability and functionality. The oxetane ring can be polymerized or cross-linked to create materials with tailored mechanical properties, making it useful in industries ranging from automotive to aerospace. Such applications highlight the broad utility of 3-Oxetanone as a chemical intermediate.

Recent research has also delved into the computational modeling of 3-Oxetanone, aiming to predict its behavior in complex reaction systems. Advanced computational techniques have provided insights into reaction mechanisms, allowing for more precise control over synthetic pathways. These computational studies complement experimental efforts, enabling researchers to optimize processes before conducting costly laboratory trials. The integration of computational chemistry with traditional synthetic methods has accelerated the development of novel derivatives of 3-Oxetanone.

In summary, 3-Oxetanone (CAS No. 6704-31-0) represents a compound of considerable interest due to its structural simplicity and functional diversity. Its role as a key intermediate in medicinal chemistry and materials science underscores its importance in contemporary research. As methodologies for synthesizing and modifying 3-Oxetanone continue to evolve, so too will its applications across multiple scientific disciplines. The ongoing exploration of this versatile heterocycle promises to yield further breakthroughs in both academic and industrial settings.

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