For any set $X$ and cardinal $\kappa$ let $[X]^\kappa$ denote the collection of subsets of $X$ with cardinality $\kappa$. If $n$ is a positive integer, let $[n]:=\{1,\ldots,n\}$.

Let $V$ and $K$ be finite, non-empty sets and let $b$ be a positive integer with $b < |K|$. For the following, we think of $V$ as the set of "voters", and $K$ is the set of "candidates" and $b$ is the "ballot size". If $f:V \to [K]^b$ is a map, we can think of $f$ as an instance of "ballot casting", and $f(v)$ is the "ballot" of voter $v\in V$.

Define the *set of voters for* $k\in K$ by $$\text{vote}(k) = \{v \in V: k\in f(v)\}.$$ Call $k\in K$ is *popular* if $2\cdot \text{vote}(k) > |V|$, that is, more than half of the voters $v\in V$ have $k$ on their ballot $f(v)$.

For any integer $n>1$ we define the *happy ballot size* of $n$ as the smallest positive integer $b$ such that there is a finite nonempty set $V$ and a map $f:V \to [[n]]^b$ such that ever candidate $k\in[n]$ is popular. Denote the happy ballot size of $n$ by $\text{hb}(n)$.

**Question.** What is the value of $\lim
\inf_{n\to\infty}\frac{\text{hb}(n)}{n}$?