Description Usage Arguments Details Value See Also
View source: R/flux.shape.for.all.points.R
flux.shape.for.all.points
computes flux and selection coefficient for various points (i.ei. vector of concentrations), giving the flux shape
1 2 | flux.shape.for.all.points(Etot_fun, A_fun, nu_fun, correl_fun, beta_fun=NULL,
E_ini_fun=NULL, n_fun=3)
|
Etot_fun |
Numeric. The total concentration |
A_fun |
Numeric vector of activities |
nu_fun |
Numeric value of canonical mutation effect |
correl_fun |
Character string indicating the abbreviation of the constraint applied on the system |
beta_fun |
Matrix of co-regulation coefficients |
E_ini_fun |
Numeric vector corresponding to initial concentrations. |
n_fun |
Numeric. Number of enzymes. Necessarily equal to 3 for this function. |
Every enzyme correspond to one dimension in a n-dimensional graph.
For various concentration vectors, this function computes flux and selection coefficient.
Selection coefficient are computed from two different expressions (discrete by coef_sel.discrete
and continuous by coef_sel.continue
), for a mutation of canonical size nu_fun
.
E_ini_fun
is rescaled by a cross product to have sum of E_ini_fun
equal to Etot_fun
.
Invisible list of 3 elements:
$J
: Numeric vector of flux.
$sel_disc
: Numeric matrix of n_fun
columns corresponding to discrete selection coefficient, and each row corresponds to one point (i.e. concentration vector).
Each column correspond to the "mutated" enzyme.
$sel_cont
:Same as $sel_disc
, but for continuous selection coefficient.
Same properties.
To study shape of flux only from a certain point and for any number of enzymes, see flux.shape.from.one.point
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