This is a graduate seminar where you push past ground-state quantum chemistry into the machinery behind excited states, spectroscopy, and response properties, essentially, how theorists actually predict what molecules do when light, magnetic fields, or relativistic effects get involved. Expect heavy reading of recent literature, seminar-style presentations, a term project, and homework that asks you to connect TDDFT, vibronic coupling, or NMR parameter calculations back to real spectroscopic observables. It builds on a solid quantum chemistry and DFT background and prepares you to read computational chemistry papers critically, which is essentially the daily reality of research in the field.
→ STARS müfredatı (resmi syllabus)
Bilkent'in resmî syllabus'ünden. Sağdaki etiket o çıktının hangi değerlendirmeyle ölçüldüğünü söylüyor.
İlk dosyayı sen atarsan: not, slayt, geçmiş sınav, çözüm, cheat-sheet, ne varsa. defter ekibi öğrenci paylaşımlarından bu dersin notlarını yazar. Drive linki / PDF / ZIP, hepsi olur.
Course Learning Outcomes: Course Learning Outcome Assessment be able to apply knowledge to a detailed understanding of the electronic structure of atoms and molecules. be able to connect quantum chemistry concepts to the interpretation of spectroscopic data. be able to understand the basic machinery for the theoretical predictions of spectroscopic properties. be able to correlate theoretical predictions with molecular and electronic structure of molecules.