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Imagine I have a $N$-dimensional hypercube. My aim is to distinctly color as many non-overlapping $k$-hop neighborhoods as possible (i.e. sets of vertices connected by a Manhattan distance of at most $k$). What is the maximum number of non-overlapping neighborhoods, $Q$, that can be distinctly colored?

Is an optimum solution for $Q$, or a tight bound known for certain values of $k$?

Motivation: It is my understanding (which may be in error) that if we set $k =$ Ceiling[$\frac{d}{2}$], then $Q$ is the maximum size of a family of strings have a pairwise Hamming distance greater than $d$. I imagine this can be abstracted to larger alphabet sizes $q>2$ (i.e. $(N,q)$ Grey codes). If this is wrong, please do let me know.

Imagine I have a $N$-dimensional hypercube. My aim is to distinctly color as many non-overlapping $k$-hop neighborhoods as possible (i.e. sets of vertices connected by a Manhattan distance of at most $k$). What is the maximum number of non-overlapping neighborhoods, $Q$, that can be distinctly colored?

Is an optimal solution for $Q$, or a tight bound known for certain values of $k$?

Motivation: It is my understanding (which may be in error) that if we set $k =$ Ceiling[$\frac{d}{2}$], then $Q$ is the maximum size of a family of strings have a pairwise Hamming distance greater than $d$. I imagine this can be abstracted to larger alphabet sizes $q>2$ (i.e. $(N,q)$ Grey codes). If this is wrong, please do let me know.

Imagine I have a $N$-dimensional hypercube. My aim is to distinctly color as many non-overlapping $k$-hop neighborhoods as possible (i.e. sets of vertices connected by a Manhattan distance of at most $k$). What is the maximum number of non-overlapping neighborhoods, $Q$, that can be distinctly colored?

Is an optimum solution for $Q$, or a tight bound known for certain values of $k$?

Motivation: It is my understanding (which may be in error) that if we set $k =$ Ceiling[$\frac{d}{2}$], then $Q$ is the maximum size of a family of strings have a pairwise Hamming distance greater than $d$. I imagine this can be abstracted to larger alphabet sizes $q>2$. If this is wrong, please do let me know.

Imagine I have a $N$-dimensional hypercube. My aim is to distinctly color as many non-overlapping $k$-hop neighborhoods as possible (i.e. sets of vertices connected by a Manhattan distance of at most $k$). What is the maximum number of non-overlapping neighborhoods, $Q$, that can be distinctly colored?

Is an optimum solution for $Q$, or a tight bound known for certain values of $k$?

Motivation: It is my understanding (which may be in error) that if we set $k =$ Ceiling[$\frac{d}{2}$], then $Q$ is the maximum size of a family of strings have a pairwise Hamming distance greater than $d$. I imagine this can be abstracted to larger alphabet sizes $q>2$ (i.e. $(N,q)$ Grey codes). If this is wrong, please do let me know.

Imagine I have a $N$-dimensional hypercube. My aim is to distinctly color as many non-overlapping $k$-hop neighborhoods as possible (i.e. sets of vertices connected by a Manhattan distance of at most $k$). What is the maximum number of non-overlapping neighborhoods, $Q$, that can be distinctly colored?

Is an optimum solution for $Q$, or a tight bound known for certain values of $k$?

Motivation: It is my understanding (which may be in error) that if we set $k =$ Ceiling[$\frac{d}{2}$], then $Q$ is the maximum size of a family of strings have a pairwise Hamming distance greater than $d$. I imagine this can be abstracted to larger alphabet sizes $q>2$.

Imagine I have a $N$-dimensional hypercube. My aim is to distinctly color as many non-overlapping $k$-hop neighborhoods as possible (i.e. sets of vertices connected by a Manhattan distance of at most $k$). What is the maximum number of non-overlapping neighborhoods, $Q$, that can be distinctly colored?

Is an optimum solution for $Q$, or a tight bound known for certain values of $k$?

Motivation: It is my understanding (which may be in error) that if we set $k =$ Ceiling[$\frac{d}{2}$], then $Q$ is the maximum size of a family of strings have a pairwise Hamming distance greater than $d$. I imagine this can be abstracted to larger alphabet sizes $q>2$. If this is wrong, please do let me know.