Determining the 3D shapes of complex viruses or cellular machinery.
Predicting how a small molecule will bind to a protein receptor.
This covers how energy is transformed in living organisms. Key topics include Gibbs Free Energy (determining if a reaction, like ATP hydrolysis, will occur), Enthalpy , and Entropy , specifically as they relate to protein folding and metabolic pathways.
Practical applications of physical chemistry, such as NMR , X-ray crystallography , and Fluorescence spectroscopy , which allow scientists to "see" the structure and movement of biomolecules. Why It Matters In the life sciences, this field is the foundation for:
Determining the 3D shapes of complex viruses or cellular machinery.
Predicting how a small molecule will bind to a protein receptor. Physical Chemistry for the Life Sciences
This covers how energy is transformed in living organisms. Key topics include Gibbs Free Energy (determining if a reaction, like ATP hydrolysis, will occur), Enthalpy , and Entropy , specifically as they relate to protein folding and metabolic pathways. Determining the 3D shapes of complex viruses or
Practical applications of physical chemistry, such as NMR , X-ray crystallography , and Fluorescence spectroscopy , which allow scientists to "see" the structure and movement of biomolecules. Why It Matters In the life sciences, this field is the foundation for: like ATP hydrolysis