Since organic chemistry deals directly with the nature and structure of medications, as well as the nature and structure of our bodies, it is one of the major sciences in general chemistry studies and one of the most significant chemical sciences in pharmaceutical and medical studies. Organic chemistry is simply defined as the study of any compound that contains a carbon atom inside of it. There are approximately 5 million compounds in nature, of which 4.5 million are organic. In addition, a large number of other carbon-containing compounds can now be produced artificially in laboratories. It is important to note that we can also produce organic compounds (containing carbon) from inorganic compounds, as in the synthesis of organic compounds. In the synthesis of urea, as shown in the image below, urea is generated from ammonium cyanate (inorganic) by the application of heat. This illustrates how we may produce organic molecules (containing carbon) from inorganic compounds as well. Pharmaceutical organic chemistry includes analytical methods, pharmacology, metabolism, quality control, and drug chemistry in addition to illness treatments and cures. Many students studying pharmaceutical chemistry will eventually work in a lab. Pharmaceutical chemistry prepares students for professions in biotechnology, pharmaceutical firms, research institutions, and other fields.
Title : Principles and standards for managing healthcare transformation towards personalized, preventive, predictive, participative precision medicine ecosystems
Bernd Blobel, University of Regensburg, Germany
Title : From marker to mechanism: Ligand discovery enables functional analysis of OR51E1, an ectopic olfactory receptor, in prostate cancer
Vladlen Slepak, University of Miami School of Medicine, United States
Title : Hydrogen sulfide in sepsis: From bench to bedside
Madhav Bhatia, University of Otago, New Zealand
Title : Tailored cellular environments to enable drug design
Lan Wang, Paretor LLC, United States
Title : Development of novel drug delivery pathways enabled by perillyl alcohol (NEO100), A monoterpene with multifaceted biomedical applications
Axel H Schonthal, University of Southern California, United States
Title : A NAMs-compatible mechanopharmacological model of drug penetration in the urinary bladder
Kunal Sharma, Swisss Federal Institute of Technology Lausanne, Switzerland
Title : Application of quality by design for pulmonary liposomes: Preliminary study to nano in-microparticle
Lucas Amaral Machado, University of Sao Paulo State – UNESP, Brazil
Title : Integrated Raman, SERS and computational approaches for the study of bioactive molecules in pharmaceutical chemistry
Maria Cristina Gamberini, University of Modena and Reggio Emilia, Italy
Title : The impact of metal-decorated polymeric nanodots on proton relaxivity
Paulo Cesar De Morais, Catholic University of Brasilia, Brazil
Title : Hepatotoxic botanicals-shadows of pearls
Consolato M Sergi, University of Alberta, Canada