  For $ \beta>1 $ let $ T_\beta $ be the $\beta$-transformation on $ [0,1) $.
Let $ 1<\beta_1\le \cdots\le \beta_d $ and let $ (P_n) $ be a sequence of
parallelepipeds on $ [0,1)^d $. Define
  \[W_d(P_n)=\{\textbf{x}\in[0,1)^d:(T_{\beta_1}\times\cdots \times
T_{\beta_d})^n(\textbf{x})\in P_n\text{ infinitely often}\}.\]
  The `rectangle to rectangle' mass transference principle is usually used to
obtain the lower bound of the Hausdorff dimension of $ W_d(P_n) $ when each $
P_n $ is a hyperrectangle with sides parallel to the axes. However, this
principle no longer applies even if $ P_n $ is still a hyperrectangle but with
rotation. Under some mild conditions on the sidelengths of each $ P_n $, we
determine the Hausdorff dimension of $ W_d(P_n) $ and prove that $ W_d(P_n) $
has large intersection properties. If $ d=2 $, then the aforementioned
condition can be removed. To further illustrate, we provide several examples
that demonstrate how the rotations of rectangles impact the Hausdorff dimension
of $ W_2(P_n) $.
