  The production of light (anti)nuclei have been investigated using the
dynamically constrained phase-space coalescence model based on the final-state
hadrons generated by the PACIAE model in Cu+Cu collisions at
$\sqrt{s_{\rm{NN}}}=200$GeV with $|\eta|<0.5$ and $0<p_T<8$GeV/c. The results
show that there is a strong centrality dependence of yields of $\rm d$,
$\rm\overline d$, $\rm ^3He$, $\rm^3\overline {He}$, $\rm ^4He$, and
$\rm^4\overline {He}$, i.e., their yields decrease rapidly with the increase of
centrality, and the greater the mass is, the greater the dependence shows;
whereas their ratio of antinucleus to nucleus and coalescence parameter $B_A$
remain constant as the centrality increases. In addition, the yields of
(anti)nuclei are strongly dependent on the mass of the (anti)nuclei, indicating
that the (anti)nuclei produced have mass scaling properties in high-energy
heavy-ion collisions. Our results are consistent with the STAR experimental
data.
