data.GP(begin, end = NULL, X, Y)
data.GP.improv(begin, end = NULL, f, rect, prior,
adapt = ei.adapt, cands = 40,
save = TRUE, verb = 2)
data.CGP(begin, end = NULL, X, C)
data.CGP.adapt(begin, end = NULL, f, rect, prior,
cands = 40, verb = 2)
data.ConstGP(begin, end = NULL, X, Y, C)
data.ConstGP.improv(begin, end = NULL, f, rect, prior,
cands = 40, save = TRUE, verb = 2)integer starting time for data to be returnedinteger (end >= begin) ending time
for data being returned; may be NULL if only data
at time begin is neededdata.frame with at least end rows containing
covariatesend containing real-valued
responsesend containing class labelsf(X)
for matrix X; for data.GP.improv the responses
must be real-valued returned as a vector;
for data.CGP.adapt they must be class
X to f(X) with
two columns and rows equalling nrow(X)ei.adapt EI
about the minimum; ieci.adapt providing IECI is another
possibility , which is hard coded into data.Conlogical indicating if the improvment information for
chosen candidate should be saved in the psave global variabledata.frames.data.GP and data.CGP supply pre-recorded regression and
classification data stored in data frames and vectors;
data.ConstGP is a hybrid that does joint regression and
classification. The other
functions provide data by active learning/sequential design: The data.GP.improv function uses expected improvement (EI);
data.CGP.improv uses predictive entropy;
data.ConstGP.improv
uses integrated expected conditional improvement (IECI). In these
cases, once the x-location(s) is/are chosen,
the function f is used to provide the response(s)
Gramacy, R. and Lee, H. (2010).
PL## See the demos via demo(package="plgp") and the examples
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