The paper alluded to in the title contains the following striking result: Let $I$ be the unit interval and $\Delta$
 be the unit interval and $\Delta$ the Cantor set. If $X$
 the Cantor set. If $X$ is a quasi Banach space containing no copy of $c_{0}$
 is a quasi Banach space containing no copy of $c_{0}$ which is isomorphic to a closed subspace of a space with a basis and $C(I,\,X)$
 which is isomorphic to a closed subspace of a space with a basis and $C(I,\,X)$ is linearly homeomorphic to $C(\Delta ,\, X)$
 is linearly homeomorphic to $C(\Delta ,\, X)$ , then $X$
, then $X$ is locally convex, i.e., a Banach space. We will show that Kalton result is sharp by exhibiting non-locally convex quasi Banach spaces $X$
 is locally convex, i.e., a Banach space. We will show that Kalton result is sharp by exhibiting non-locally convex quasi Banach spaces $X$ with a basis for which $C(I,\,X)$
 with a basis for which $C(I,\,X)$ and $C(\Delta ,\, X)$
 and $C(\Delta ,\, X)$ are isomorphic. Our examples are rather specific and actually, in all cases, $X$
 are isomorphic. Our examples are rather specific and actually, in all cases, $X$ is isomorphic to $C(K,\,X)$
 is isomorphic to $C(K,\,X)$ if $K$
 if $K$ is a metric compactum of finite covering dimension.
 is a metric compactum of finite covering dimension.