Abstract:
Background: Utilizing the separation techniques based on mass spectrometry, molecular spectrometry and vari ous medicinal treatment drugs in the field of biomedicine can help in understanding and applying treatments for a multitude of different disease or diverse types of cancer and even expand upon efficient and reliable diagnosis in clinical settings. However, despite the use of these technologies, interpretation of the measured results is very diffi cult. Chemical reaction mechanisms, especially nucleophilic substitution reaction mechanism tools can be applied to accurately interpret these measurement results to determine the cause of chronic diseases and develop treat ments. Aniline and its derivatives serve as important molecules in biomedicine. Understanding the nucleophilic substitution reaction mechanism of basic molecule as aniline helps to accurately understand the base reactions of DNA in our body cells. How the length of telomeres at the ends of DNA in our body’s cells increases or decreases can be understood by applying the reaction mechanism of aniline and its derivatives. Using the nucleophilic sub stitution reaction mechanism tools of basic molecule likely aniline and their derivatives in the field of biomedicine are available to understand and to apply also treatments for multitude of different diseases like Alzheimer’s disease and divers’ types of cancer, and to expand on efficient and reliable diagnosis in clinical treatments.
Summary: This article deals with the interpretation of reaction mechanisms that can easily understand the phar macological reaction and cellular response of biomedicine.
Results: Molecular nucleophilic substitution reaction mechanism tools of basic molecules likely aniline and their derivatives in the field of biomedicine are available to understand and to apply also treatments for multitude of different diseases like Alzheimer’s disease and divers’ types of cancer, and to expand on efficient and reliable di agnosis in clinical treatments.
Conclusions: By understanding the molecular mechanisms that explain drug reactions and therapeutic effects at the molecular level, it can be used for more precise tracking the causes of cancer and chronic diseases, and the reactions that occur within cells during treatment.