Find the number of sides a regular polygon must have to meet each condition. 32. Each interior angle measure equals each exterior angle measure. 33. Each interior angle measure is four times the measure of each exterior angle. 34. Each exterior angle measure is one eighth the measure of each interior angle. Name the convex polygon whose interior angle measures have each given sum. \( \begin{array}{llll}\text { 35. } 540^{\circ} & \text { 36. } 900^{\circ} & \text { 37. } 1800^{\circ} & \text { 38. } 2520^{\circ}\end{array} \)
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To tackle the problems, let’s go step by step! For the first set of conditions involving the relationship between interior and exterior angles: 32. Each interior angle equals each exterior angle: Let the number of sides be \(n\). The measure of each interior angle is \(\frac{(n-2) \times 180}{n}\) and the measure of each exterior angle is \(\frac{360}{n}\). Setting these equal gives: \[ \frac{(n-2) \times 180}{n} = \frac{360}{n} \] Simplifying, we find \(n = 4\). Thus, a quadrilateral (specifically, a square) meets this condition. 33. Each interior angle is four times the exterior angle: Using the relationship from earlier, we can write: \[ \frac{(n-2) \times 180}{n} = 4 \times \frac{360}{n} \] Solving this leads to \(n = 5\). Hence, a pentagon holds this property. 34. Each exterior angle is one eighth of the interior angle: Setting these up gives us: \[ \frac{360}{n} = \frac{1}{8} \times \frac{(n-2) \times 180}{n} \] This simplifies down to \(n = 9\). Therefore, a nonagon fits this criterion. Now, the second part lists the total degrees of interior angles: 35. \(540^{\circ}\): The formula for the sum of interior angles is \(180(n-2)\). Setting \(180(n-2) = 540\) solves to \(n = 4\). It is a quadrilateral. 36. \(900^{\circ}\): Using the same formula, \(180(n-2) = 900\) results in \(n = 6\). This is a hexagon. 37. \(1800^{\circ}\): Applying the formula, \(180(n-2) = 1800\) calculates \(n = 12\). It’s a dodecagon! 38. \(2520^{\circ}\): This leads to \(180(n-2) = 2520\), solving to \(n = 16\). Hence, it’s a hexadecagon. Each answer elegantly reveals the fun structural diversity of polygons!