BMB506: Protein chemistry (5 ECTS)
STADS: 01000601
Level
Bachelor course
Teaching period
The course is offered in the autumn semester.
First quarter.
Teacher responsible
Email: jens.andersen@bmb.sdu.dk
Timetable
| Group |
Type |
Day |
Time |
Classroom |
Weeks |
Comment |
| Common |
I |
Monday |
10-12 |
U20 |
36-40 |
|
| Common |
I |
Thursday |
12-14 |
U20 |
35-41 |
|
| S1 |
TE |
Wednesday |
14-16 |
U43 |
40 |
|
| S1 |
TE |
Wednesday |
14-16 |
U26 |
41 |
|
| S1 |
TE |
Friday |
08-10 |
U42 |
35-38 |
|
| S1 |
TE |
Friday |
08-10 |
U48a |
39 |
|
| S2 |
TE |
Tuesday |
08-10 |
U49C |
35-39 |
|
| S2 |
TE |
Tuesday |
12-14 |
U49C |
40 |
|
| S2 |
TE |
Tuesday |
12-14 |
U28 |
41 |
|
| S3 |
TE |
Wednesday |
16-18 |
U17 |
40-41 |
|
| S3 |
TE |
Thursday |
08-10 |
U49D |
39 |
|
| S3 |
TE |
Friday |
13-15 |
U14 |
35-37 |
|
| S3 |
TE |
Friday |
13-15 |
U17 |
38 |
|
| S4 |
TE |
Monday |
14-16 |
U17 |
36-41 |
|
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Prerequisites:
None
Academic preconditions:
Kemi 1 – Fundamental Chemistry (KE501) and Biology – from molecules to ecosystems has to be passes (BB501). Biomolecular chemistry (BMB501) should be known.
Course introductionTo give an introduction to the structure and function of proteins and how they work in a cellular and physiological context through interactions with proteins and other biomolecules.
Qualifications• Understand the relationship between protein structure and function
• Understand the basic structural elements of a protein and how they have evolved through evolution, how they fold or misfold, and how their structure in determined experimentally.
• Understand how proteins localize within a cell and how they interact with proteins and other biomolecules such as DNA and RNA and how they form protein complexes.
• Understand how protein works in a larger cellular and physiological context exemplified by the immune system.
• Have knowledge about methods to study proteins experimentally and computationally.
• Know how to use tools to visualization the tertiary structure of proteins.
• Understand how knowledge about the protein-function can be used in the development of drugs directed against proteins.
Expected learning outcomeSubject overviewProtein structure
• Tertiary and Quantinary structure
• Determination of protein structure by NMR and X-ray crystallography
• Protein motifs, folds, domains and subunits
• Examples of protein structure
Protein foldning
• Protein foldning pathways
• Chaperones
• Protein dynamics
• Protein struktural evolution
• Prediction of protein structures
• Conformationelle diseases
Struktur og funktion
• Examples of struktur-funktion relationships
• Protein complexes
• Protein topology og methods for in vivo localization of proteins
Molecular physiology
• The immun system
• Mobility
• Blood koagulation
Post translational modificatons of proteins
• Phosphorylation
• Glycosylation
Protein degradation
• Proteases involved in protein turnover
• Lysosomes
• Ubiquitin-proteasom system
Metods in protein chemistry
• Introduction to proteomics
• Introduction to bioinformatic
• Introduction to protein engineering
Literature-
Berg, Tymoczko & Stryer :
Biochemistry,
6th edition, Freeman, 2006.
Syllabus
See syllabus.
Website
This course uses
e-learn (blackboard).
Prerequisites for participating in the exam
None
Assessment and marking:
Assignments, essay and oral examination, external censor and marks following the 7-scale. The Assignments has to be passed to qualify for the exam. The essay is prepared in groups of 2-3 persons which are then examined together but evaluated individually.
Expected working hours
The teaching method is based on three phase model.
Forelæsninger (24 timer), eksaminatorier (12 timer) og obligatoriske regneøvelser indenfor proteiners tertiære struktur ved brug af computer (4 x 2 timer).
Educational activities
Language
No recorded information about the language used in the course.
Course enrollment
See deadline of enrolment.
Tuition fees for single courses
See fees for single courses.