BIOL 445 / CHEM 445 - Biochemistry II (Spring 2008)

(updated 15-Jan-2008)

Sections: BIOL 445 - 01 (CRN 20826); CHEM 445 - 01 (CRN 20759)
Lectures:
1:10-2:00 pm, 201 Hughes.
Instructor:
Jeff Cronk [E-mail: cronk@gonzaga.edu ] Office: Hughes 234
Office Hours: M,W 4-5 pm, Thu 1-2 pm, and by appointment
Text (required): Biochemistry (6th edition) Jeremy M. Berg, John L. Tymoczko, Lubert Stryer (BTS6)
Recommnded: Student Companion to Accompany Biochemistry (6th ed.) Gumport et al.

CHEM 445 / BIOL 445 - Spring 2008: Enter course website .

Additional Links:

[ Biochemistry dictionary ] [ CHEM 440 ] [ GU home ] [ GU Biology ("Gonzology") ] [ NCBI ] [ Resources ]


  Class schedule
Spring 2007 (tentative)
MONDAY WEDNESDAY FRIDAY
 

WEEK 1
16, 18 January

( Lectures 1, 2 )

 

17 January.
Lipids, membranes, and
mitochondria (CH.18)

19 January.
Redox potentials
and free energy


WEEK 2
21, 23, 25 January
( Lectures 3, 4, 5 )

MLK Holiday

23 January.
Electron transport chain
CHAPTER 18

25 January.
Redox loops and
proton pumps

WEEK 3
28, 30 January; 1 February
( Lectures 5 - 7 )
28 January.
Electron transfer
to oxygen
30 January
ATP synthase
1 February.
Respiratory control.
Inhibitors of ETC

WEEK 4
4, 6, 8 February
( Lectures 8, 9, 10 )
4 February.
Photosynthesis
CHAPTER 19

6 February.
Bacterial photosynthetic
reaction complex

8 February.
Electron flow in photosynthesis

WEEK 5
11, 13, 15 February
( Lectures 11, 12 )
11 February.
ATP synthesis
in chloroplasts
13 February
EXAM 1
15 February.
Rubisco and the
Calvin cycle (CH.20)

WEEK 6
18, 20, 22 February
( Lectures 13, 14 )
President's Day
Holiday
20 February.
Calvin cycle
and C4 plants
22 February.
Pentose phosphate
pathway

WEEK 7
25, 27, 29 February
( Lecture 15, 16, 17 )
25 February.
PPP:
Enzymes & mechanisms
27 February.
Glycogen structure
and metabolism (CH.21)
29 February.
Regulation of glycogen
phosphorylase

WEEK 8
3, 5, 7 March
( Lectures 18, 19, 20 )
3 March.
Glycogen synthesis.
Reciprocal regulation
5 March.
Fatty acid metabolism
CHAPTER 22
7 March.
Fatty acid metabolism:
Special problems

WEEK 9 - Spring Break (10 -14 March)
 
    MONDAY WEDNESDAY FRIDAY

WEEK 10
17, 19, 21 March
( Lectures 21, 22 )
17 March
Fatty acid synthesis
19 March
Regulation of FA synthesis
Eicosanoid hormones
21 March
Good Friday
Holiday

WEEK 11
24, 26, 28 March
( Lecture 23 )
24 March
Easter Holiday
26 March
Regulation of
fatty acid metabolism
.
28 March
EXAM 2

WEEK 12
31 March, 2, 4 April
( Lecture 24, 25, 26 )

31 March.
Ubiquitin and proteasomes
CHAPTER 23

2 April
Glutamate catabolism.
Transaminases & PLP
4 April
PLP-dependent reactions.
The urea cycle

WEEK 13
7, 9, 11 April
( Lectures 27, 28, 29 )
7 April.
Amino acid catabolism
9 April.
Biological nitrogen fixation
CHAPTER 24
11 April.
Amino acid biosynthesis.
One-carbon metabolism

WEEK 14
14, 16. 18 April
( Lectures 30, 31, 32 )
14 April.
Amino acids and
further biosynthesis
16 April.
Nucleotide biosynthesis
CHAPTER 25

18 April.
Purine biosynthesis

WEEK 15
21, 23, 25 April
( Lectures 33, 34 )
21 April.
Ribonucleotide reductase
23 April.
Special topics in
biochemistry
(TBA)
25 April
EXAM 3

WEEK 16
28, 30 April, 2 May
( Lectures 35, 36, 37 )
30 April.
Special topics in
biochemistry
(TBA)
2 May.
Special topics in
biochemistry
(TBA)
4 May .
Special topics in
biochemistry (TBA)

FINAL EXAM - Monday 5 May 2008, 1:00 - 3:00 pm
 

Course goals and philosophy

The course is a continuing exploration of the the chemical basis of living systems, from a molecular structure, thermodynamic, and kinetic point of view. To begin, we examine the process of oxidative phosphorylation, in which exergonic electron transport is coupled to the generation of an electrochemical gradient, which in turn drives ATP synthesis. The properties of membranes and the functioning of membrane proteins are central to this process, and we will learn about the fundamental features of biological membranes. We continue with a survey of major metabolic pathways, covering pentose phosphates, gluconeogenesis, complex carbohydrates, fatty acids (which are major components of membranes), amino acid catabolism and nitrogen excretion. We then take up photosynthesis, in which light energy is harvested in the form of the chemical energy of NADPH and ATP. Again, membrane biochemistry is a crucial part of the story, and we will compare and contrast photosynthesis and oxidative phosphorylation. We next consider the biosynthetic pathways producing amino acids, nucleotides, and selected other important biomolecules, such as porphyrins and cholesterol. We will finish the semester with special topics which in past semesters have been based on student reports.

Grading

Grading for this course is based mainly upon exams, although homewok, problem sets, etc will be given consideration. Further details are provided in class.

 
[ E-mail: cronk@gonzaga.edu ]