Enrichment
1. Input gene lists
2. Functional annotation parameters
3. Display parameters
4. Filter BMD Values
5. Download gene lists as excel file
DownloadCompute BMD Value
Models Description
The formula for the linear model is
$$ f(dose) = \beta_0 + \beta_1 dose $$
The linear model is a special case of the polynomial model, with $$n=1$$
The formula for the polynomial model is
$$ f(dose) = \beta_0 + \beta_1 dose + \beta_2 dose^2 + \ldots + \beta_n dose^n $$
Here n is the degree of the polynomial. The user can choose between $$n = 2, 3$$
The formula for the power model is
$$ f(dose) = \beta_0 + (dose)^\delta $$
The user can choose between $$\delta = 2, 3, 4$$
The formula for the exponential model is
$$ f(dose) = \beta_0 + exp(dose) $$
The formula for the hill model is
$$ f(dose) = \beta_0 + \dfrac{dose^n}{Kd + dose^n} $$
The user can choose between $$n = 0.5,1,2,3,4,5$$ while Kd is fixed to 10.
The formula for the asymptotic regression model is the following:
$$f(dose) = c + (d-c) \times (1-exp(-dose/e)) $$
The parameter c is the lower limit (at x=0), the parameter d is the upper limit and
the parameter e>0 is determining the steepness of the increase of dose.
The AR.3 model is the one depending from c, d and e parameters. The AR.2 model depends only on d and e parameters, while c is set to zero
The model is defined by the three-parameter model (MM.3) function
$$f(dose, (c, d, e)) = c + \dfrac{d-c}{1+(e/dose)}$$
It is increasing as a function of the dose, attaining the lower limit c at dose 0 (x=0) and the upper limit d for infinitely large doses.
The parameter e corresponds to the dose yielding a response halfway between c and d.
The common two-parameter Michaelis-Menten model (MM.2) is obtained by setting c equal to 0.
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