Topological dimension, is it local? Let $n\in\mathbb N$ and $X$ be a complete metric space.

Assume that there is $\epsilon>0$ such that 
  $$\dim B_\epsilon(x)\le n$$
  for any $x\in X$.
  Is it true that $\dim X\le n$?



*

*Here $\dim$ stays for topological dimension.

*We do not assume that $X$ is separable!!!

 A: From [E]T.7.2.3 p. 484:
1] If a Normal topological space $X$ has a locally finite closed cover $(F_f)_{s\in S}$ and $dim F_s\leq n\ s\in S$ then $dim X \leq n$.
from the subspace theorem ([ED]p.216):
2] For any subspace $M$ of a strongly-hereditarily-normal space (in particular a metric space)  $X$ we have $dim M \leq dim X$
In what  follow assume that any open $\epsilon'$-ball ($\epsilon'\leq\epsilon$) B as $dim$-dimention $n$. 
3] If $A\subset X$ contains a  open $\epsilon'$-ball and is contained in a open $\epsilon'$-ball ($\epsilon',\epsilon''\leq \epsilon$) then $dim A=n$
PROOF: From [2].
4]  There exist a locally finite covering of closed set $(F_s)_{s\in S}$ with $dim F_s\leq n$.
PROOF: COnsider the covering by all open $\epsilon/2$-balls, and let $(B_s)_{s\in S}$ a locally finite refinement ($X$ is paracompact), let $F_s:=Cl(B_s)$ then $(F_s)_{s\in S}$ is a locally finite refinement  of  the  open $\epsilon$-balls covering. Then as in [3] follow that $dim F_s=n$.
Then from [1] and [4]: $dim(X)\leq n$ and from [2]:  $n=dim B_\epsilon(x) \leq dim X$
[E]: Engelking, General Topology
[ED]: Engelking, Dimention theory
