Course learning goals


Close Window 

Section 1: Science and Evolution

  • Students should be able to design and analyze various experimental scenarios, identify hypotheses being tested as well as positive and negative controls used.   In this context, students should be able to distinguish between questions that can and those that cannot be answered scientifically.
  • Students should be able to present the basic theories underlying modern biology, namely the physiochemical nature of life, the cell theory of life, and the theory of evolution.  They should be able to analyze various scenarios in terms of how these theories apply and how they support one another.
  • Students should be develop and analyze various evolutionary scenarios in terms of natural selection, sexual selection and random processes (e.g. genetic drift) in terms of possible outcomes.  
  • Students should be able to describe the difference between homologous and analogous structures, and how these concepts come into play in the construction of phylogenic scenarios. 

Section 2: Water, Membranes and Energetics

  • Students should be able to analyze various biologically important molecules in terms of interactions with water, with the goal of predicting the types of molecular, macromolecular and cellular structures they will form.
  • Students should be able to distinguish between steady state and equilibrium systems and describe at a molecular level the features of both.    This should enable them to analyze systems involved in energy storage, capture and molecular transport systems. 

Section 3: Proteins, nucleic acids and regulatory networks

  • Students should be able to define, in terms of molecular structure and interactions, how information is stored in DNA, how it is replicated (in general terms), how it is "expressed" in the form of RNAs and proteins, how proteins function, and how protein activity is regulated. 
  • Students should be able to analyze how various changes in DNA sequence will influence gene activity.

Section 4: Cell growth and life cycles

  • Describe the molecular events involved in the regulation of cellular differentiation and explain why cellular differentiation hard to reverse. 
  • Describe the benefits and costs associated with sexual reproduction and evaluate how sexual reproduction lead to increased phenotypic diversity. 
  • Analyze various scenarios dealing with conventional and alternative medicine, and genetic engineering in terms of support, benefits and dangers. 

Close Window