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  • Faculty of Pharmacy
  • Course Structure Diagram with Credits
  • Introduction to Pharmaceutical and Medicinal Chemistry
  • Learning Outcomes
  • Description
  • Content
  • Learning Outcomes
  • Learning Activities and Teaching Methods
  • Course's Contribution to Prog.
  • Assessment Methods

  • Explain the definition and historical development of pharmaceutical chemistry.
  • Define Pharmaceutical Chemistry.
  • Define Medicinal Chemistry.
  • Explain the relationship between Pharmaceutical Chemistry and other sciences.
  • Explain the historical development of Pharmaceutical Chemistry.
  • Explains innovative developments in the field of Medicinal Chemistry.
  • Explain structure-nonspecific drugs.
  • Identify structure-nonspecific drugs.
  • List the properties of structure-nonspecific drugs.
  • Explain structure-specific drugs.
  • List the properties of structure-specific drugs.
  • Explain the effects of structural changes on biological activity.
  • Explain chemical bonds in drug-receptor interactions.
  • Explain the importance of bonds in drug-receptor interactions.
  • List the types of bonds that are important in drug-receptor interactions.
  • Explain drug-receptor compatibility and stereochemical factors.
  • Classify isomers.
  • Determines the stereochemistry of a drug molecule.
  • Explain the effects of stereochemistry on biological activity.
  • Explains stereoselective activity.
  • Explain the resolution of racemic mixtures.
  • Explain the physicochemical properties and pharmacological activity.
  • Explains solubility and its effects on biological activity.
  • Explain the partition coefficient and its effects on biological activity.
  • Determines the ionization patterns of the drug molecule.
  • Explains the pKa value and the factors affecting pKa.
  • Explain structural features and pharmacological activity.
  • Explain steric properties.
  • Classify bioisosteres.
  • Explain the effects of functional groups on pharmacological activity.
  • Explain Quantitative Structure-Activity Relationships (QSAR).
  • Explain the important methods in QSAR studies.
  • List the methods used in QSAR studies.
  • Explain Phase I Reactions.
  • List the types of phase I reactions.
  • Indicates Phase I reaction pathways of drug molecules.
  • Explains the chemical structures and properties of metabolites formed as a result of the metabolism of drug molecules.
  • Explain Phase II Reactions.
  • List the types of phase II reactions.
  • It specifies which Phase II reaction pathways drug molecules will follow.
  • Explain the chemical structures and properties of conjugates formed as a result of the metabolism of drug molecules.
  • Explain the effects of stereochemical factors on metabolism.
  • Explain substrate stereoselectivity.
  • Explain product (metabolite) stereoselectivity.
  • Explain substrate-product stereoselectivity.
  • Explain enzymatic inversion.
  • Explain drug metabolism studies.
  • Explains the basic stages of a classical drug metabolism study.
  • List the methods used in the quantitative determination of drug metabolites.
  • Explain drug development methods.
  • Explain the methods used to find the lead compound.
  • Explain the routes used in the optimization of the lead compound.
  • Explain Combinatorial Chemistry.
  • Define Combinatorial Chemistry.
  • Explains the creation of combinatorial libraries.
  • Explains the discovery of the active compound from the mixture obtained by combinatorial methods.
  • Be able to perform synthesis applications.
  • Determine the appropriate method for the synthesis of the target compound.
  • Explain the reaction conditions of the synthesis.
  • Explain the reaction equation and mechanism of synthesis.
  • Explains the properties and purposes of the chemical substances required for synthesis.
  • Explain the properties and uses of devices required for synthesis.
  • Synthesizes the target compound.
  • Be able to perform separation and purification applications.
  • Applies the appropriate process to remove the synthesis product from the reaction medium.
  • Explains the physical and chemical properties of the synthesis product.
  • Calculates the theoretical, practical and percentage yield of the synthesis product.
  • The synthesis product is crystalline.
  • Be able to perform IR Spectroscopy applications.
  • Lists the estimated IR data of the compounds.
  • It determines which functional groups the bands in the IR spectrum belong to.
  • Determine the structure by interpreting IR spectra.
  • Be able to perform 1H NMR Spectroscopy applications.
  • Lists the predicted 1H-NMR data of the compounds.
  • It determines which protons the peaks observed in 1H-NMR spectra belong to.
  • Determine the structure by interpreting 1H-NMR spectra.
  • Be able to perform mass spectroscopy applications.
  • Lists the predicted MS data of the compounds.
  • It determines which parts the peaks observed in the mass spectrum belong to.
  • It determines the molecular ion peak in mass spectra.
  • It determines the main peak in mass spectra.
  • Interpret the mass spectra of compounds.
  • Be able to determine physical properties.
  • It distinguishes the sample by color, odor, taste and appearance.
  • Determines the melting point of the sample.
  • Determines the solubility class of the sample.
  • Be able to determine chemical properties.
  • Applies combustion test to the sample and interprets the results.
  • Detects the presence of nitrogen/sulfur/halogen in the sample.
  • Determines the acidic/basic character of the laboratory sample.
  • Be able to perform functional group analyses.
  • Distinguishes recognition tests belonging to functional groups in the compound.
  • Applies functional group recognition tests to the sample.
  • Be Able to Perform Special Diagnostic Reactions.
  • Identifies the specific diagnostic reaction that may be applied to the compound.
  • Applies a sample-specific diagnostic reaction.
  • Be able to perform titration methods.
  • List the titrimetric methods that can be applied to the compound.
  • Prepares the necessary solutions for the titrimetric method that can be applied to the sample.
  • Lists the chemicals required for the titrimetric method to be applied to the sample.
  • Explains the properties and intended uses of the chemical substances required for the titrimetric method to be applied to the sample.
  • Determines the appropriate ambient temperature for the titrimetric method to be applied to the sample.
  • Determines the potency of the compound.
  • Explains the reaction equation and mechanism of the titrimetric method to be applied to the sample.
  • Applies the titration method.
  • Determines the purity of the sample.
  • Be able to perform Instrumental Analysis Application.
  • List the instrumental analysis methods included in pharmacopoeias.
  • Determines the purity of an active pharmaceutical ingredient using spectrophotometry.

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