  Let $G$ be a connected compact group equipped with the normalised Haar
measure $\mu$. Our first result shows that given $\alpha, \beta>0$, there is a
constant $c = c(\alpha,\beta)>0$ such that for any compact sets $A,B\subseteq
G$ with $ \alpha\mu(B)\geq\mu(A)\geq \mu(B) $ and $ \mu(A)+\mu(B)\leq 1-\beta$,
there exist $b_1,\dots b_c\in B$ such that \[ \mu(A\cdot \{b_1,\dots,b_c\})\geq
\mu(A)+\mu(B).\] A special case of this, that is, when $G=\mathbb{T}^d$,
confirms a recent conjecture of Bollob\'as, Leader and Tiba.
  We also prove a quantitatively stronger version of such a result in the
discrete setting of $\mathbb{R}^d$. Thus, given $d \in \mathbb{N}$, we show
that there exists $c = c(d) >0$ such that for any finite, non-empty set $A
\subseteq \mathbb{R}^d$ which is not contained in a translate of a hyperplane,
one can find $a_1, \dots, a_c \in A$ satisfying \[ |A+ \{a_1, \dots, a_c\}|
\geq (d+1)|A| - O_d(1). \] The main term here is optimal and recovers the
bounds given by Freiman's lemma up to the $O_d(1)$ error term.
