To determine \(\angle AMK\), we need to use the properties of inscribed angles and central angles.
Based on the image, \(\angle AKE\) is an inscribed angle that intercepts the same arc as the central angle \(\angle AOE\) (where O is the center of the circle). The measure of an inscribed angle is half the measure of the central angle that subtends the same arc. Therefore,
$$\angle AKE = \frac{1}{2} \angle AOE$$
Also, \(\angle AKE\) is given as \(\alpha\), and \(\angle AOE\) is related to \(\alpha\) as:
$$\angle AOE = 2\alpha$$
Now, consider the triangle \(\triangle AME\). The sum of angles in a triangle is 180 degrees. We are given the angle \(\angle MAE\) as \(\alpha\).
We need to find \(\angle AME\), which is \(\angle AMK\). Using the triangle angle sum property:
$$\angle MAE + \angle AEM + \angle AME = 180^\circ$$
We know that \(\angle MAE = \alpha\). Since \(\angle AEM\) and \(\angle AKE\) subtend the same arc (AE), \(\angle AEM = 90^\circ\).
Therefore:
$$\alpha + 90^\circ + \angle AMK = 180^\circ$$
$$\angle AMK = 180^\circ - 90^\circ - \alpha$$
$$\angle AMK = 90^\circ - \alpha$$
Thus, the angle \(\angle AMK\) is (90^\circ - \alpha).
Answer: $$\angle AMK = 90^\circ - \alpha$$