Intertech:iSB2008:Materials: Difference between revisions
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== | ==Syllabus== | ||
Syllabus of this course is divided in three parts. There is a group of topics that need to be known by biologists (or 'life science' people), then a bunch of topics that need to be known by engineers (or 'technical' people) and, finally, some lectures on 'what' is syntehtic biology and some examples of it. | |||
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<font face="trebuchet ms" style="color:#047DB5" size="3">'''Part 1 Training for biologists'''</font><br> | |||
</div> | |||
'''Ordinary differential equations''' | |||
* Introduction | |||
* Basic concepts to understand an ODE | |||
* Description and properties of ODE | |||
* Solving ODE | |||
* Vector spaces | |||
* Dynamic systems | |||
'''Control theory''' | |||
* Introduction | |||
* Types od controllers | |||
* Block diagram | |||
* Example of control | |||
* Laplace transform and transfer function | |||
* Frequency domain | |||
* Examples | |||
'''Electronics''' | |||
* Introduction | |||
* Boolean algebras | |||
* Logical gates | |||
* Representation of boolean functions | |||
* Karnaugh maps | |||
'''Error Theory''' | |||
* Introduction to measurement theory | |||
* Error theroy description | |||
* Types of errors | |||
* Evaluation of the error in an experimental measurement | |||
* Minimal square fit | |||
* Obtaining relations from experimental data | |||
'''Programming in Matlab''' | |||
* Introduction to programming languages | |||
* Basic MatLab operations | |||
* Programming in Matlab | |||
* Solving ODE with Matlab | |||
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<div style="padding: 0px; width: 300px; color: #FFFFFF; background-color: #FFBF00"> | |||
<font face="trebuchet ms" style="color:#047DB5" size="3">'''Part 2 Training for engineers'''</font><br> | |||
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'''Cell''' | |||
* Cell, definition | |||
* Basic elements | |||
* Eukaryotes | |||
* Prokaryotes | |||
* Metabolism | |||
'''Flow of genetic information''' | |||
* Elements | |||
* Nucelic acid – DNA and RNA | |||
* Amino acid – proteins | |||
* Central Dogma of Molecular Biology | |||
* Dogma, revisited | |||
* Horizontal transference | |||
'''Genetic regulation''' | |||
* DNA regulation | |||
* RNA regulation | |||
* Protein regulation | |||
* Global regulatory mechanisms: | |||
'''Communication with environment''' | |||
* Signal transduction | |||
* Signal | |||
* Receptor | |||
* Transducer | |||
* Actuator | |||
* Examples | |||
'''Kinetic Chemistry''' | |||
* Definitions | |||
* Law of mass action | |||
* Enzyme-catalyzed reactions | |||
* Hill equation: allosterism | |||
* Hill equation in gene modelling | |||
'''(Basic) Laboratory Techniques (of molecular biology)''' | |||
* DNA cloning | |||
* Polymerase Chain Reaction | |||
* Gel electrophoresis | |||
* Reading and writing DNA | |||
* Molecular hybridization | |||
* rewriting DNA: mutations | |||
* arrays | |||
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<font face="trebuchet ms" style="color:#047DB5" size="3">'''Part 3 Training in Synthetic Biology'''</font><br> | |||
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'''Introduction to Synthetic Biology''' | |||
* Introduction | |||
* Synthetic Biology evolution | |||
* Some examples | |||
* Biology and Engineering: the paradigm of Synthetic biology | |||
* Systems Biology work | |||
* Synthetic gene regulatory systems | |||
'''Standards''' | |||
* Building a composable DNA library | |||
* Registry | |||
* Parts | |||
* Signal carrier | |||
* Modularity | |||
* Looking for abstraction | |||
* Abstraction hierarchy | |||
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''' Basic Synthetic Biology Circuits''' | |||
'''Synthetic Biology works''' | |||
* Toggle switch | |||
* Repressilator | |||
* Counting machine - ETH iGEM 2005 | |||
* Memory device - ETH iGEM 2007 | |||
* Cell free system - Imperial iGEM 2007 | |||
* Synthetic pattern formation | |||
* Artifitial quorum sensing | |||
* Artemisinin production | |||
|} | |||
==Reference materials== | ==Reference materials== |
Revision as of 02:07, 27 May 2008
Syllabus
Syllabus of this course is divided in three parts. There is a group of topics that need to be known by biologists (or 'life science' people), then a bunch of topics that need to be known by engineers (or 'technical' people) and, finally, some lectures on 'what' is syntehtic biology and some examples of it.
Part 1 Training for biologists Ordinary differential equations
|
Part 2 Training for engineers Cell
|
Part 3 Training in Synthetic Biology
Introduction to Synthetic Biology
|
Basic Synthetic Biology Circuits
|
Reference materials
- Goldbeter A and Koshland DE Jr. An amplified sensitivity arising from covalent modification in biological systems. Proc Natl Acad Sci U S A. 1981 Nov;78(11):6840-4. DOI:10.1073/pnas.78.11.6840 |
- JACOB F and MONOD J. Genetic regulatory mechanisms in the synthesis of proteins. J Mol Biol. 1961 Jun;3:318-56. DOI:10.1016/s0022-2836(61)80072-7 |
- ISBN:0879697164