Following ideas used by Drewnowski and Wilansky we prove that if   $I$  is an infinite dimensional and infinite codimensional closed ideal in a complete metrizable locally solid Riesz space and
 $I$  is an infinite dimensional and infinite codimensional closed ideal in a complete metrizable locally solid Riesz space and   $I$  does not contain any order copy of
 $I$  does not contain any order copy of   ${{\mathbb{R}}^{\mathbb{N}}}$  then there exists a closed, separable, discrete Riesz subspace
 ${{\mathbb{R}}^{\mathbb{N}}}$  then there exists a closed, separable, discrete Riesz subspace   $G$  such that the topology induced on
 $G$  such that the topology induced on   $G$  is Lebesgue,
 $G$  is Lebesgue,   $I\,\bigcap \,G\,=\,\left\{ 0 \right\}$ , and
 $I\,\bigcap \,G\,=\,\left\{ 0 \right\}$ , and   $I\,+\,G$  is not closed.
 $I\,+\,G$  is not closed.