To solve for \( m\angle C \), let's break down the information given:
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Vertical Angles: \( \angle A \) and \( \angle B \) are vertical angles. This means they are equal in measure, so: \[ m\angle A = m\angle B \]
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Complementary Angles: \( \angle B \) and \( \angle C \) are complementary angles, which means that the sum of their measures equals 90 degrees: \[ m\angle B + m\angle C = 90^\circ \]
Now, we know that \( m\angle A = 22^\circ \), so we can substitute this value into the equation for vertical angles: \[ m\angle B = 22^\circ \]
Now, we can plug this value into the complementary angles equation: \[ 22^\circ + m\angle C = 90^\circ \]
Now, we can rewrite this as an equation to solve for \( m\angle C \): \[ m\angle C = 90^\circ - 22^\circ \]
So the equation you can use to solve for \( m\angle C \) is: \[ m\angle C = 90^\circ - m\angle B \] or \[ m\angle C = 90^\circ - 22^\circ \]
This simplifies to: \[ m\angle C = 68^\circ \]
So, the equation is: \[ m\angle C = 90^\circ - 22^\circ \]