This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.Math.content.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=135^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{135^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{135^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{135\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{135\pi}{180} \\ \\ =\frac{45\cdot 3\pi}{45\cdot 4} \\ \\ =\frac{3\pi}{4}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=45^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{45^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{45^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{45\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{45\pi}{180} \\ \\ =\frac{45\cdot 1\pi}{45\cdot 4} \\ \\ =\frac{\pi}{4}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=80^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{80^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{80^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{80\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{80\pi}{180} \\ \\ =\frac{20\cdot 4\pi}{20\cdot 9} \\ \\ =\frac{4\pi}{9}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=320^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{320^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{320^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{320\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{320\pi}{180} \\ \\ =\frac{20\cdot 16\pi}{20\cdot 9} \\ \\ =\frac{16\pi}{9}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=275^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{275^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{275^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{275\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{275\pi}{180} \\ \\ =\frac{5\cdot55\pi}{5\cdot 36} \\ \\ =\frac{55\pi}{36}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=75^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{75^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{75^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{75\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{75\pi}{180} \\ \\ =\frac{15\cdot 5\pi}{15\cdot 12} \\ \\ =\frac{5\pi}{12}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=112^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{112^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{112^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{112\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{112\pi}{180} \\ \\ =\frac{4\cdot 28\pi}{4\cdot 45} \\ \\ =\frac{28\pi}{45}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=12^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{12^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{12^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{12\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{12\pi}{180} \\ \\ =\frac{12\cdot 1\pi}{12\cdot 15} \\ \\ =\frac{\pi}{15}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=33^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{33^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{33^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{33\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{33\pi}{180} \\ \\ =\frac{3\cdot 11\pi}{3\cdot 60} \\ \\ =\frac{11\pi}{60}\)

This question tests one's ability to understand the conversion between radians and degrees. It relies on the understanding that the measure of an angle can be described using the properties of the unit circle and arc length. Furthermore, questions involving concepts dealing with trigonometry use the foundation of corresponding identities with angles that come from the unit circle. Recall that the unit circle is a circle that has a radius of one and is centered at the origin. Each \(\displaystyle (x,y)\) pair that lies on the circle can be found by creating a right triangle that has a base on the \(\displaystyle x\)-axis and a hypotenuse that is from the center of the circle to the desired point on the edge of the circle. The height of the triangle is the vertical line that connects the point on the circle's edge to the \(\displaystyle x\)-axis.

For the purpose of Common Core Standards, understanding radian measure of an angle as the length of the arc on the unit circle subtended by the angle, falls within the Cluster A of extend the domain of trigonometric functions using the unit circle concept (CCSS.MATH.CONTENT.HSF.TF.A).

Knowing the standard and the concept for which it relates to, we can now do the step-by-step process to solve the problem in question.

Step 1: Identify the general formula for unit conversion between radians and degrees.

\(\displaystyle 360^\circ=2\pi \textup{ radians}\Rightarrow180^\circ=\pi\textup{ radians}\)

Therefore to convert from degrees to radian is,

\(\displaystyle \frac{x^\circ}{1}\times \frac{\pi}{180^\circ}=\textup{radian measurement}\)

Step 2: Identify the values given in the question.

\(\displaystyle x=\textup{degrees}=90^\circ\)

Step 3: Substitute the value from step 2 into the formula from step 1.

\(\displaystyle \\ \frac{x^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{90^\circ}{1}\times \frac{\pi}{180^\circ} \\ \\ =\frac{90^\circ\pi}{180^\circ}\)

The degree measurement in the numerator and denominator cancel out. 

\(\displaystyle \frac{90\pi}{180}\)

From here, simplify the fraction by finding common factors that exist in both the numerator and denominator.

\(\displaystyle \\ \frac{90\pi}{180} \\ \\ =\frac{90\cdot 1\pi}{90\cdot 2} \\ \\ =\frac{\pi}{2}\)