Difference between revisions of "Combinatorial promoter design for engineering noisy gene expression"
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==Math== | ==Math== | ||
Dose-response Curve | Dose-response Curve | ||
| − | The Dose-response relationship describes the change in effect on an organism caused by differing levels of exposure (or doses) to a stressor (usually a chemical). This may apply to individuals (eg: a small amount has no observable effect, a large amount is fatal), or to populations (eg: how many people are affected at different levels of exposure). (from wikipedia) <br> | + | The Dose-response relationship describes the change in effect on an organism caused by differing levels of exposure (or doses) to a stressor (usually a chemical). This may apply to individuals (eg: a small amount has no observable effect, a large amount is fatal), or to populations (eg: how many people are affected at different levels of exposure). (from wikipedia) <br><br> |
| − | + | Dose-response curves are often modeled by the [[Hill function]] | |
==Methods== | ==Methods== | ||
Revision as of 03:11, 22 September 2007
Math
Dose-response Curve
The Dose-response relationship describes the change in effect on an organism caused by differing levels of exposure (or doses) to a stressor (usually a chemical). This may apply to individuals (eg: a small amount has no observable effect, a large amount is fatal), or to populations (eg: how many people are affected at different levels of exposure). (from wikipedia)
Dose-response curves are often modeled by the Hill function
Methods
Chromosomal Integration
Building Blocks
Gal operon
Tet operon
