This course deals with a more advanced treatment of the biochemical mechanisms based on physical chemistry and introduces physical chemistry in a variety of biological processes. Topics include physical chemistry of biomolecules, thermodynamics and quantum chemistry for metabolism and photosynthesis. Physical chemistry approaches to biology will provide us the wide range of backgrounds among biotechnology and the bases on applications of biological systems.
By the end of this course, students will be able to:
1)Understand the role of water molecules in biological processes
2)Understand protein folding, protein stability, protein-protein interaction, motor proteins and membrane proteins.
3)Understand structural organization and function of biomembrane.
4)Explain energy production though biological processes.
5)Explain an electron transfer reaction in proteins
6)Explain the photochemical processes of photosynthesis.
Proteins, protein folding, protein stability, protein-protein interaction, motor proteins, membrane proteins, thermodynamics, photochemistry, metabolism, photosynthesis
|✔ Specialist skills||Intercultural skills||Communication skills||Critical thinking skills||✔ Practical and/or problem-solving skills|
This course mainly consists of lectures. Required learning should be completed outside of the classroom for preparation and review purposes.
|Course schedule||Required learning|
|Class 1||Introduction: Biological science in the context of physical chemistry||Explain the significance of physical chemistry in biological science.|
|Class 2||Water and biomolecules||Explain the uniqueness and importance of water molecules in life.|
|Class 3||Protein folding||Explain protein folding and its correlation to protein function.|
|Class 4||Stability of proteins||Explain how the stability of proteins is described by physical chemistry.|
|Class 5||Protein-protein interaction||Explain the mode of protein-protein interaction and its physiological importance.|
|Class 6||Proteins in motion: Motor proteins||Explain the molecular mechanism of motor proteins with the aid of ATP hydrolysis.|
|Class 7||Lipid bilayers and Membrane proteins||Explain the role of membrane proteins embedded in lipid bilayers.|
|Class 8||Review of the first half of the courses (classes 1-7) and midterm exam||Review the first half of the classes to prepare midterm exam.|
|Class 9||Thermodynamics and equilibrium on metabolism||Explain metabolism based on thermodynamic equilibrium.|
|Class 10||Theory of electron transfer reaction||Explain Franck-Condon principle and Marcus theory.|
|Class 11||Kinetics of biological electron transfer reaction||Explain an electron transfer rate and reorganization energy.|
|Class 12||Activation energy of biological electron transfer reaction||Explain the activation energy of electron transfer and reorganization energy.|
|Class 13||Photochemistry of proteins||Explain photochemical reaction based on quantum mechanics.|
|Class 14||Photocehemical reaction in photosynthesis I||Understand photosynthesis based on electron transfer throry and quantum mechanics|
|Class 15||Photocehemical reaction in photosynthesis II||Understand photoinduced electron transfer and photoinduced energy transfer in photosynthesis processes|
Cooper: Biophysical Chemistry
Midterm exam and final exam including questions of fundermental knowledge on physical chemistry, discription type questions, and calculation problems.
Students must have successfully completed Physical Chemistry I, Physical Chemistry II, and Physical Chemistry III or have equivalent knowledge.
Hideki Taguchi: taguchi[at]bio.titeich.ac.jp , Noriyuki Asakura : asakura.n.aa[at]m.titech.ac.jp
Contact by e-mail in advance to schedule an appointment is desirable.