  We say that $G \to (F,H)$ if, in every edge colouring $c: E(G) \to \{1,2\}$,
we can find either a $1$-coloured copy of $F$ or a $2$-coloured copy of $H$.
The well-known Kohayakawa--Kreuter conjecture states that the threshold for the
property $G(n,p) \to (F,H)$ is equal to $n^{-1/m_{2}(F,H)}$, where $m_{2}(F,H)$
is given by \[ m_{2}(F,H):= \max \left\{\dfrac{e(J)}{v(J)-2+1/m_2(H)} : J
\subseteq F, e(J)\ge 1 \right\}. \] In this paper, we show the $0$-statement of
the Kohayakawa--Kreuter conjecture for every pair of cycles and cliques.
