data.GP(begin, end = NULL, X, Y)
data.GP.improv(begin, end = NULL, f, rect, prior,
adapt = ei.adapt, cands = 40,
save = TRUE, oracle = 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,
adapt = ieci.const.adapt , cands = 40,
save = TRUE, oracle = 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 variablelogical indicating if the candidates should be
augmented with the point found to maximize the predictive surface
(with a search starting at the most recently chosen input)data.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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