  Let $S(D)$ represent a set of proper nonzero ideals $I(D)$ (resp., $t$
-ideals $I_{t}(D)$) of an integral domain $D\neq qf(D)$ and let $P$ be a valid
property of ideals of $D.$ We say $S(D)$ meets $P$ (denoted $
S(D)\vartriangleleft P)$ if each $s\in S(D)$ is contained in an ideal
satisfying $P$. If $S(D)$ $\vartriangleleft P,$ $\dim (D)$ can't be controlled.
When $R=D[X],$ $I(D)$ $\vartriangleleft P$ does not imply $I(R)$
$\vartriangleleft P$ while $I_{t}(D)$ $\vartriangleleft P$ implies $I_{t}(R)$
$\vartriangleleft P$ usually. We say $S(D)$ meets $P$ with a twist $($ written
$S(D)\vartriangleleft ^{t}P)$ if each $s\in S(D)$ is such that, for some $n\in
N,$ $s^{n}$ is contained in an ideal satisfying $P$ and study $
S(D)\vartriangleleft ^{t}P,$ as its predecessor. A modification of the above
approach is used to give generalizations of Almost Bezout domains.
