On computational complexity of construction of $c$-optimal linear regression models over finite experimental domains
Abstract
Recent complexity-theoretic results on finding $\bs{c}$-optimal
designs over finite experimental domain $\mathcal{X}$ are discussed
and their implications for the analysis of existing algorithms and for
the construction of new algorithms are shown. Assuming some
complexity-theoretic conjectures, we show that the approximate version
of $\bs{c}$-optimality does not have an efficient parallel
implementation. Further, we study the question whether for finding the
$\bs{c}$-optimal designs over finite experimental domain~$\mathcal{X}$
there exist a strongly polynomial algorithms and show relations
between considered design problem and linear programming. Finally, we
point out some complexity-theoretic properties of the SAC algorithm
for $\bs{c}$-optimality.
designs over finite experimental domain $\mathcal{X}$ are discussed
and their implications for the analysis of existing algorithms and for
the construction of new algorithms are shown. Assuming some
complexity-theoretic conjectures, we show that the approximate version
of $\bs{c}$-optimality does not have an efficient parallel
implementation. Further, we study the question whether for finding the
$\bs{c}$-optimal designs over finite experimental domain~$\mathcal{X}$
there exist a strongly polynomial algorithms and show relations
between considered design problem and linear programming. Finally, we
point out some complexity-theoretic properties of the SAC algorithm
for $\bs{c}$-optimality.
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PDFDOI: https://doi.org/10.2478/tatra.v51i1.158