To convert radians to degrees, use the formula:
\[ \text{Degrees} = \text{Radian} \times \frac{180^\circ}{\pi} \]
Given: \(\frac{\pi}{32} \times \frac{180^\circ}{\pi} = \frac{180^\circ}{32} = 5.625^\circ\)
Now convert decimal degrees into degrees, minutes, and seconds:
\[ 0.625^\circ \times 60 = 37.5' \Rightarrow 37' \text{ and } 0.5' \times 60 = 30'' \]
So: \[ \frac{\pi}{32} = 5^\circ 37' 30'' \]
Correct Answer: \(5^\circ 37' 30''\)
we know that π radians is equivalent to 180 degrees.
So,\(\frac{\pi}{32}\) radians can be converted to degrees as follows:
\(\left(\frac{\pi}{32}\right) \times \left(\frac{180}{\pi}\right) = \frac{180}{32} \text{ degrees} = 5.625 \text{ degrees}\)
Since 0.625 degrees is equal to \(0.625 \times 60 = 37.5 \text{ minutes}\), we have:
5.625 degrees = 5 degrees 37.5 minutes.
To express the minutes in terms of minutes and seconds, we can calculate \(0.5 \times 60 = 30 \text{ seconds}\)
Therefore, the degree measure of \(\frac{\pi}{32}\) is equal to 5 degrees 37 minutes 30 seconds.
Hence, the correct option is (B) \(5^\circ \ 37' \ 30''\).
We want to convert the angle from radians to degrees, minutes, and seconds.
The given angle is \(\frac{\pi}{32}\) radians.
We use the conversion factor \(\pi \text{ radians} = 180^\circ\).
To convert radians to degrees, we multiply by \(\frac{180^\circ}{\pi}\):
\[ \text{Angle in degrees} = \frac, we use the conversion factor \(\pi \text{ radians} = 180^\circ\).
Multiply the radian measure by \(\frac{180^\circ}{\pi}\):
\[ \text{Degrees} = \frac{\pi}{32} \times \frac{180^\circ}{\pi} = \frac{180}{32}^\circ \]
Simplify the fraction \(\frac{180}{32}\) by dividing both the numerator and denominator by their greatest common divisor, which is 4:
\[ \frac{180 \div 4}{32 \div 4} = \frac{45}{8} \]
So the angle is \(\frac{45}{8}\) degrees.
Now, convert this improper fraction into degrees, minutes, and seconds.
First, convert the fraction to a mixed number:
\[ \frac{45}{8} = 5 \frac{5}{8} \]
This means the angle is 5 degrees plus \(\frac{5}{8}\) of a degree.
Next, convert the fractional part (\(\frac{5}{8}\) degrees) into minutes. Since \(1^\circ = 60'\) (60 minutes), multiply the fraction by 60:
\[ \text{Minutes} = \frac{5}{8} \times 60' = \frac{300}{8}' \]
Simplify the fraction \(\frac{300}{8}\) by dividing by 4:
\[ \frac{300 \div 4}{8 \div 4} = \frac{75}{2}' \]
Convert this improper fraction to a mixed number:
\[ \frac{75}{2} = 37 \frac{1}{2} \]
This means we have 37 minutes plus \(\frac{1}{2}\) of a minute.
Finally, convert the fractional part (\(\frac{1}{2}\) minutes) into seconds. Since \(1' = 60''\) (60 seconds), multiply the fraction by 60:
\[ \text{Seconds} = \frac{1}{2} \times 60'' = 30'' \]
So we have 30 seconds.
Combining the parts, the angle \(\frac{\pi}{32}\) radians is equal to \(5^\circ 37' 30''\).
Comparing this with the given options, the correct option is:
\(5^\circ 37' 30''\)
The graph shown below depicts:
A wooden block of mass M lies on a rough floor. Another wooden block of the same mass is hanging from the point O through strings as shown in the figure. To achieve equilibrium, the coefficient of static friction between the block on the floor and the floor itself is
In an experiment to determine the figure of merit of a galvanometer by half deflection method, a student constructed the following circuit. He applied a resistance of \( 520 \, \Omega \) in \( R \). When \( K_1 \) is closed and \( K_2 \) is open, the deflection observed in the galvanometer is 20 div. When \( K_1 \) is also closed and a resistance of \( 90 \, \Omega \) is removed in \( S \), the deflection becomes 13 div. The resistance of galvanometer is nearly: