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Core Concepts in Biomolecular Science - Fall 2005 9:05 to 9:55 am, 117 Thomas
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MT 1) Acids and Bases | |||||||||||||||
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JR 1) Nucleic acid structure: Nucleotides, Chemistry of DNA and RNA synthesis, DNA and RNA structure, DNA topology. | |||||||||||||||
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MT 2) Amino Acids/Peptides -amino acid structure/properties -Acid base properties of amino acids |
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JR 2) Prokaryotic and eukaryotic genomes; Chromosome structure: prokaryotic vs eukaryotic | |||||||||||||||
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Labor
day holiday, no class |
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MT 3) Peptides to Proteins -Primary, Secondary, tertiary structure -Rules that dictate conformation |
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JR 3) Chromatin structure: nucleosome,
higher order structures. |
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MT 4) Peptides to Proteins -Examples of secondary structures -Anfinsen’s RNAase A experiments |
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JR 4) DNA replication: Machinery, Initiation and timing | |||||||||||||||
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JR 5) Mutations, DNA damage and repair | |||||||||||||||
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MT 5) Methods for characterizing proteins -Sequencing, total amino acid analysis -Crystallography, nmr |
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MT 6) Methods for characterizing proteins -Sequencing, total amino acid analysis -Crystallography, nmr |
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JR 6) Recombination and Mobile Genetic elements | |||||||||||||||
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JR 7) Protein Turnover; Intro. to the Cell Cycle | |||||||||||||||
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JR 8) Cell cycle: Transitions and Control | |||||||||||||||
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MT 7) Practical Enzymology -Enzyme purification |
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JR 9) Mitosis-1 | |||||||||||||||
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MT 8) Practical Enzymology -Enzyme purification |
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JR 10) Mitosis and Meiosis | |||||||||||||||
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JR 11) Checkpoints |
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MT 9) Practical Enzymology -Activity, specific activity, etc. |
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JR 12) Genetic Systems 1: Mutants, Screens, Suppression and Screens | |||||||||||||||
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MT 10) Kinetics -Chemical -Steady state Assumptions |
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JR 13) Genetic Systems 2: Prokaryotes and Yeast |
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JR 14) Genetic Systems 3: Worms and Flies | |||||||||||||||
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MT 11) Kinetics -Derivation of equations -Effect of pH |
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JR 15) Genetic Systems 4: Mice; catch up | |||||||||||||||
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MT 12) Kinetics -Inhibition studies -Kinetics with more than one substrate -Transient state |
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Reese | JR 16) Transcription cycle: initiation, elongation, termination (emphasis on prokaryotes). | |||||||||||||||
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JR 17) Prokaryotic gene regulation: activation and repression | |||||||||||||||
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MT 13) Examples of enzyme mechanisms | |||||||||||||||
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JR 18) Overview of translation |
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| Wed, Oct 12 | Wednesday evening exam covering Reese's lectures JR 1 to JR 15, 7:00 pm | ||||||||||||||||
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JG 1) Introduction to Physical Biochemistry |
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Study day,
no class |
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Reese | JR 19) Regulation of translation in prokaryotes
and eukaryotes |
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Golbeck | JG 2) Case Study 1: The Ribosome Reading: pdf file (handout) |
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JR 20) Regulation of RNA-translation and RNA stability |
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Golbeck |
JG 3) Ultracentrifugation: Theory and Practice Reading: Dwek, Ch.6: pp 73-88 Problems: Dwek, Ch.6: #8,10,11 |
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| Thur,
Oct 20 |
Thursday evening exam covering Tien's lectures MT 1 to
MT13, 7:00 pm, 101 Althouse |
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Reese |
JR 21) Regulation of prokaryotic translation | |||||||||||||||
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Gilmour |
DG 1) Eucaryotic transcription units and the general
transcriptional machinery. |
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Golbeck | JG 4) The First Law of Thermodynamics Reading: Dwek, Ch.1: pp 1-6 Problems: Dwek, Ch.1: #2,3,4 |
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Gilmour | DG 2) Transcriptional regulation: Cis-acting elements and Trans-acting factors. | |||||||||||||||
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Golbeck | JG 5) The Second Law of Thermodynamics Reading: Dwek, Ch.2: pp 8-9 Problems: Dwek, Ch.2: #1 |
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Gilmour | DG 3) Transcription activation domains and their mechanism of action. | |||||||||||||||
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DG 4) Transcription and chromatin. |
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Golbeck | JG 6) Gibbs Free Energy: Theory and Application Reading: Dwek, Ch.2: pp 10-14 Problems: Dwek, Ch.2: #4,5,8 |
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Gilmour |
DG 5) Transcription and chromatin. | |||||||||||||||
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Golbeck |
JG 7) Chemical Equilibrium Reading: Dwek, Ch.3: pp 16-28 Problems: Dwek, Ch.3: #2,11,12 |
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Gilmour |
DG 6) Transcriptional repression |
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DG 7) Transcription elongation and RNA processing |
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Golbeck |
JG 8) Case Study 2: The Photosynthetic Reaction Center Reading: pdf file handout |
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Gilmour | DG 8) Biological membranes |
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Golbeck |
JG 9) Marcus Theory |
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Gilmour | DG 9) Membrane transport of small
molecules and
electrical properties of membranes. |
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Gilmour | DG 10) Visualizing cells, internal organization of eukaryotic cells | |||||||||||||||
| Tues, Nov 15 | Changed to Wednesday evening |
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Golbeck | JG 10) Optical Spectroscopy, Beer’s Law Reading: Dwek, Ch.11: pp 205-211 Problems: Dwek, Ch.11: #1,3,4 |
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Gilmour | DG 11) Secretory pathway | |||||||||||||||
| Wed.
Nov 16 |
Wednesday evening exam covering Reese's lectures JR 16 to
JR
21 and Gilmour's lectures DG 1 to DG 7, 7:00 pm, 101 Althouse |
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Golbeck | JG 11) Electrochemistry Reading: Dwek, Ch.8: pp 107-124 Problems: Dwek, Ch.8:#7,8,9 |
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Gilmour | DG 12) Secretory pathway, lysosomal biosynthesis | |||||||||||||||
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DG 13) Endocytosis | |||||||||||||||
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Gilmour |
DG 14) Nuclear and
mitochondrial transport |
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JG 12) Biological Oxidation/Reduction: Anaerobes Problems: Handout |
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JG 13) Biological Oxidation/Reduction: Aerobes Problems: Handout |
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Golbeck |
JG 14) Energy, Entropy, Information Theory, and Evolution |
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Hanna-Rose | WHR 1) Signal Transduction in Prokaryotes
I. Two Component Systems |
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Hanna-Rose | WHR 2) Signal Transduction in Prokaryotes
II. Two Component Systems (cont) Chemotaxis |
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WHR 3) Signal Transduction in Eukaryotes
I. An Overview of the Players G protein coupled receptors |
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Hanna-Rose | WHR 4) Signal Transduction in Eukaryotes II. Players (cont) |
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WHR 5) Signal Transduction in Eukaryotes III. tyrosine kinases, ras and MAPK |
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Hanna-Rose | WHR 6) Signal Transduction in Eukaryotes IV. tyrosone kinases (cont) |
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WHR 7) Signal Transduction in Eukaryotes V. wnt and Notch |
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7:00 PM, 101 Althouse,
Exam 1: Golbeck's
lectures JG 1 to JG 14 |
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| Tues,
Dec 13 |
7:00 PM, 101 Althouse, Exam 2: Gilmour's lectures DG 8 to D 14 and Hanna-Rose's lectures WHR 1 to WHR 7 | ||||||||||||||||
Exams: Students are required to take all five exams, and each exam will contribute equally to the final grade. Missed exams must be made-up, and the format of the make-up exam is at the discretion of the examiner.
Final Grades: The
division between B+ and A- will be the overall mean in the
course. Students with a final average within one standard
deviation below the mean will be assured of receiving a letter grade of
at least a B. The letter grade for students falling below one
standard deviation could be B- or lower as decided by a majority vote
of the course instructors.
Academic integrity: The students and instructors are bound by the rules and procedures on academic integrity set by the Eberly College of Science Academic Integrity Committee. A complete listing of these policies can be found at the following web site: http://www.science.psu.edu/academic/Integrity/index.html.
It is the student's responsibility to know and abide by these policies. Failure to do so may result in sanctions or expulsion.