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another typo fixed (the last one?)?
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Wlod AA
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Then the black stone's moves $ (1\ 0)\ $ and $\ (1\ 0)\ $ would stumble, and $\ (2\ 1)\ $ would have only two unoccupied nearest neighbors. Thus, only one move $\ (2\ 1)\ $$\ (1\ 2)\ $ is left:

Thus, let me play $\ (0\ 3),$$\ (-\!1\ 3),$

Then the black stone's moves $ (1\ 0)\ $ and $\ (1\ 0)\ $ would stumble, and $\ (2\ 1)\ $ would have only two unoccupied nearest neighbors. Thus, only one move $\ (2\ 1)\ $ is left:

Thus, let me play $\ (0\ 3),$

Then the black stone's moves $ (1\ 0)\ $ and $\ (1\ 0)\ $ would stumble, and $\ (2\ 1)\ $ would have only two unoccupied nearest neighbors. Thus, only one move $\ (1\ 2)\ $ is left:

Thus, let me play $\ (-\!1\ 3),$

2 typos already fixed
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Wlod AA
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Finally, let me play $\ (-!2\ 0),$\ (-\!2\ 0),$

$$ P_{11}\ :=\ (\,(-\!1\ 1)\ \ \{(2\ 0)\,\ (2\ 2) \,\ (1\ 3)\,\ (-\!1\ 3)\,\ (-\!2\ 2)\,\ (-\!2\ 0)\}\,) $$$$ P_{12}\ :=\ (\,(-\!1\ 1)\ \ \{(2\ 0)\,\ (2\ 2) \,\ (1\ 3)\,\ (-\!1\ 3)\,\ (-\!2\ 2)\,\ (-\!2\ 0)\}\,) $$

Finally, let me play $\ (-!2\ 0),

$$ P_{11}\ :=\ (\,(-\!1\ 1)\ \ \{(2\ 0)\,\ (2\ 2) \,\ (1\ 3)\,\ (-\!1\ 3)\,\ (-\!2\ 2)\,\ (-\!2\ 0)\}\,) $$

Finally, let me play $\ (-\!2\ 0),$

$$ P_{12}\ :=\ (\,(-\!1\ 1)\ \ \{(2\ 0)\,\ (2\ 2) \,\ (1\ 3)\,\ (-\!1\ 3)\,\ (-\!2\ 2)\,\ (-\!2\ 0)\}\,) $$

a def repeated usefully
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Wlod AA
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An even-move, also called a white move, in position $\ P\ $$\ P:=(b\ X)\ $ is an arbitrary $\ y\in\mathbb Z^2\setminus\{b\}.\ $ The resulting position is defined as $\ Q:=(b\ Y),\ $ where $\ Y:=X\cup\{y\}.\ $ (Even-move $\ y\in X\ $ would be silly but legal).

An even-move, also called a white move, in position $\ P\ $ is an arbitrary $\ y\in\mathbb Z^2\setminus\{b\}.\ $ The resulting position is defined as $\ Q:=(b\ Y),\ $ where $\ Y:=X\cup\{y\}.\ $ (Even-move $\ y\in X\ $ would be silly but legal).

An even-move, also called a white move, in position $\ P:=(b\ X)\ $ is an arbitrary $\ y\in\mathbb Z^2\setminus\{b\}.\ $ The resulting position is defined as $\ Q:=(b\ Y),\ $ where $\ Y:=X\cup\{y\}.\ $ (Even-move $\ y\in X\ $ would be silly but legal).

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Wlod AA
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