Subject · Chemical engineering

Fundamentals of organic synthesisTopics

İFS-3070y7 creditsAutumn semesterElective2025-2026

Topic plan

The subject's topics and the learning outcomes attached to each one.

43 topics
  1. 1. Introduction

    Lecture

    Introduction. ways of conducting organic synthesis.

    Open resource: Introduction (opens in a new tab)
  2. 2. Creation and opening of cycles.

    Lecture

    Examples of intramolecular cyclization as a result of electrophilic-nucleophilic interaction. intramolecular cyclization, baldwin's rules. compounding on michael in cyclization processes.

    Open resource: Creation and opening of cycles. (opens in a new tab)
  3. 3. Formation of heterocyclic systems

    Lecture

    Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles.

    Open resource: Formation of heterocyclic systems (opens in a new tab)
  4. 4. Application of element organic compounds in synthesis

    Lecture

    Application of element organic compounds in synthesis. grignard reagent. examples of complete synthesis. new principles of stimulation of biological reactions

    Open resource: Application of element organic compounds in synthesis (opens in a new tab)
  5. 5. Photochemical effect

    Lecture

    Radiation chemistry. application of extreme high pressure. application of lasers. electrochemical synthesis. enzymatic catalysis in synthesis. use of metal-complex catalysis

    Open resource: Photochemical effect (opens in a new tab)
  6. 6. Synthesis of substances of practical value.

    Lecture

    Synthesis of substances of practical value. searching for practically valuable items.

    Open resource: Synthesis of substances of practical value. (opens in a new tab)
  7. 7. Fundamentals of civil defense. purpose, main events and tasks of civil defense. principles of the organization of civil defense in the republic of azerbaijan. civil defense forces. non-military formations of civil defense.

    Lecture
  8. 8. Change of functional groups

    Change, insertion and interconversions of functional groups.

  9. 9. Introduction of functional groups to hydrocarbons and heterocyclic compounds.

    Introduction of functional groups to hydrocarbons and heterocyclic compounds. addition of functional groups to alkanes and cycloalkanes.

  10. 10. Addition of functional groups to alkenes

    Addition of functional groups to alkenes. addition of functional groups to alkynes. addition of functional groups to cycloolefins and cycloalkynes.

  11. 11. Addition of functional groups to aromatic hydrocarbons.

    Addition of functional groups to aromatic hydrocarbons. hüvədə əvəzetmə. side chain reactions. introduction of functional groups to benzene derivatives.

  12. 12. Insertion of functional groups into heterocyclic compounds

    Introduction of functional groups to simple heterocyclic compounds

  13. 13. Interchanges of functional groups

    Interchanges of functional groups. transformations of the hydroxyl group. transformations of the amine group. transformations of halogen derivatives.

  14. 14. Transformations of nitrocompounds.

    Transformations of nitrocompounds. transformations of aldehydes and ketones. transformations of organic acids and their derivatives.

  15. 15. The principle of least change in the structure of the molecule.

    The principle of least change in the structure of the molecule. reactive sites in organic molecules. low energy communications.

  16. 16. Polar and readily polarizable compounds.

    Polar and readily polarizable compounds. -connections. atoms with lone pairs of electrons.

  17. 17. Methods of protection of functional groups.

    Methods of protection of functional groups. activation of functional groups. the influence of the nature of the solvent on the direction of the reaction. the main types of synthesis.

  18. 18. Breaking down and assembling communications.

    Breaking down and assembling communications. possibility of using EHM in synthesis planning.

  19. 19. We understand about synthons and synthetic equivalents.

    We understand about synthons and synthetic equivalents. using automatic devices in synthesis ("synthesizers"). interfacial catalysis in synthesis.

  20. 20. Synthesis of substances of practical value.

    Synthesis of substances of practical value. searching for practically valuable items.

  21. 21. Important aspects of elegant organic synthesis.

    Lecture

    Important aspects of elegant organic synthesis. biologically active compounds for medical needs. biologically active substances (pesticides) for agricultural needs. chemical reagents and dyes.

    Open resource: Important aspects of elegant organic synthesis. (opens in a new tab)
  22. 22. Features such as fine organic synthesis field.

    Lecture

    Features such as fine organic synthesis field. multi-stage and complexity of the synthesis process.

    Open resource: Features such as fine organic synthesis field. (opens in a new tab)
  23. 23. Features such as fine organic synthesis field. multi-stage and complexity of the synthesis process.

    Lecture

    Features such as fine organic synthesis field. multi-stage and complexity of the synthesis process.

    Open resource: Features such as fine organic synthesis field. multi-stage and complexity of the synthesis process. (opens in a new tab)
  24. 24. Creation and opening of cycles. examples of intramolecular cyclization as a result of electrophilic-nucleophilic interaction. intramolecular cyclization, baldwin's rules. compounding on michael in cyclization processes.

    Seminar

    Creation and opening of cycles. examples of intramolecular cyclization as a result of electrophilic-nucleophilic interaction. intramolecular cyclization, baldwin's rules. compounding on michael in cyclization processes.

    Open resource: Creation and opening of cycles. examples of intramolecular cyclization as a result of electrophilic-nucleophilic interaction. intramolecular cyclization, baldwin's rules. compounding on michael in cyclization processes. (opens in a new tab)
  25. 25. Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles

    Seminar

    Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles

    Open resource: Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles (opens in a new tab)
  26. 26. Application of element organic compounds in synthesis. grignard reagent. examples of complete synthesis. new principles of stimulation of biological reactions.

    Seminar

    Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles

    Open resource: Application of element organic compounds in synthesis. grignard reagent. examples of complete synthesis. new principles of stimulation of biological reactions. (opens in a new tab)
  27. 27. Application of element organic compounds in synthesis. grignard reagent. examples of complete synthesis. new principles of stimulation of biological reactions.

    Seminar

    Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles

    Open resource: Application of element organic compounds in synthesis. grignard reagent. examples of complete synthesis. new principles of stimulation of biological reactions. (opens in a new tab)
  28. 28. Photochemical effect. radiation chemistry. application of extreme high pressure. application of lasers. electrochemical synthesis. enzymatic catalysis in synthesis. use of metal-complex catalysis

    Seminar

    Photochemical effect. radiation chemistry. i̇frat yüksək təzyiqin tətbi. application of lasers. electrochemical synthesis. enzymatic catalysis in synthesis. use of metal-complex catalysis

    Open resource: Photochemical effect. radiation chemistry. application of extreme high pressure. application of lasers. electrochemical synthesis. enzymatic catalysis in synthesis. use of metal-complex catalysis (opens in a new tab)
  29. 29. Creation and opening of cycles.

    Seminar

    Creation and opening of cycles. examples of intramolecular cyclization as a result of electrophilic-nucleophilic interaction.

    Open resource: Creation and opening of cycles. (opens in a new tab)
  30. 30. Intramolecular cyclization, michael's coupling in processes.

    Seminar

    Intramolecular cyclization, michael's coupling in processes.

    Open resource: Intramolecular cyclization, michael's coupling in processes. (opens in a new tab)
  31. 31. Baldwin rules. cyclization

    Seminar

    Baldwin rules. cyclization

    Open resource: Baldwin rules. cyclization (opens in a new tab)
  32. 32. Openflow protokolu və flow table mexanizmi

    Lecture

    Openflow protokolunun əsas prinsipləri, SDN kontrolleri ilə şəbəkə avadanlığı arasında əlaqə və flow table mexanizminin quruluşu öyrənilir.

  33. 33. Electrocyclic cyclization. opening cycles.

    Seminar

    Electrocyclic cyclization. opening cycles.

    Open resource: Electrocyclic cyclization. opening cycles. (opens in a new tab)
  34. 34. Synthesis planning. strategy and tactics of synthesis. schemes of synthesis. requirements for synthetic reactions.

    Independent work

    Synthesis planning. strategy and tactics of synthesis. schemes of synthesis. requirements for synthetic reactions.

    Open resource: Synthesis planning. strategy and tactics of synthesis. schemes of synthesis. requirements for synthetic reactions. (opens in a new tab)
  35. 35. Breaking down and assembling communications. possibility of using EHM in synthesis planning.

    Independent work

    Breaking down and assembling communications. possibility of using EHM in synthesis planning.

    Open resource: Breaking down and assembling communications. possibility of using EHM in synthesis planning. (opens in a new tab)
  36. 36. Understanding of synthons and synthetic equivalents. using automatic devices in synthesis ("synthesizers"). interfacial catalysis in synthesis.

    Independent work

    Understanding of synthons and synthetic equivalents. using automatic devices in synthesis ("synthesizers"). interfacial catalysis in synthesis.

    Open resource: Understanding of synthons and synthetic equivalents. using automatic devices in synthesis ("synthesizers"). interfacial catalysis in synthesis. (opens in a new tab)
  37. 37. Creation and opening of cycles. examples of intramolecular cyclization as a result of electrophilic-nucleophilic interaction. intramolecular cyclization, baldwin's rules. compounding on michael in cyclization processes.

    Independent work

    Creation and opening of cycles. examples of intramolecular cyclization as a result of electrophilic-nucleophilic interaction. intramolecular cyclization, baldwin's rules. compounding on michael in cyclization processes.

    Open resource: Creation and opening of cycles. examples of intramolecular cyclization as a result of electrophilic-nucleophilic interaction. intramolecular cyclization, baldwin's rules. compounding on michael in cyclization processes. (opens in a new tab)
  38. 38. Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles.

    Independent work

    Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles.

    Open resource: Formation of heterocyclic systems. cycloaddition reactions. electrocyclic cyclization. opening cycles. (opens in a new tab)
  39. 39. Application of element organic compounds in synthesis. grignard reagent. examples of complete synthesis. new principles of stimulation of organic reactions.

    Independent work

    Application of element organic compounds in synthesis. grignard reagent. examples of complete synthesis. new principles of stimulation of biological reactions.

    Open resource: Application of element organic compounds in synthesis. grignard reagent. examples of complete synthesis. new principles of stimulation of organic reactions. (opens in a new tab)
  40. 40. Photochemical effect. radiation chemistry. application of extremely high pressure. application of lasers. electrochemical synthesis. enzymatic catalysis in synthesis. use of metal-complex catalysis

    Independent work

    Photochemical effect. radiation chemistry. application of extremely high pressure. application of lasers. electrochemical synthesis. enzymatic catalysis in synthesis. use of metal-complex catalysis

    Open resource: Photochemical effect. radiation chemistry. application of extremely high pressure. application of lasers. electrochemical synthesis. enzymatic catalysis in synthesis. use of metal-complex catalysis (opens in a new tab)
  41. 41. Synthesis of substances of practical value. searching for practically valuable items.

    Independent work

    Synthesis of substances of practical value. searching for practically valuable items.

    Open resource: Synthesis of substances of practical value. searching for practically valuable items. (opens in a new tab)
  42. 42. Myhym directions for elegant writing. biologically active compounds for medical needs. biologically active substances (pesticides) for agricultural needs. chemical reagents and paint

    Independent work

    Myhym directions for elegant writing. biologically active compounds for medical needs. biologically active substances (pesticides) for agricultural needs. chemical reagents and paint

    Open resource: Myhym directions for elegant writing. biologically active compounds for medical needs. biologically active substances (pesticides) for agricultural needs. chemical reagents and paint (opens in a new tab)
  43. 43. Characteristics of fine organic synthesis as a field of study. multi-stage and complexity of the synthesis process.

    Independent work

    Characteristics of fine organic synthesis as a field of study. multi-stage and complexity of the synthesis process.

    Open resource: Characteristics of fine organic synthesis as a field of study. multi-stage and complexity of the synthesis process. (opens in a new tab)