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Use the angle-conversion capabilities of a graphing utility to convert the angle measure to \(\mathbf{D}^{\circ} \mathbf{M}^{\prime} \mathbf{S}^{\prime \prime}\) form. $$-345.12^{\circ}$$

Short Answer

Expert verified
The converted form of \(-345.12^{\circ}\) is \(-345^{\circ} 7' 12''\).

Step by step solution

01

Separate Degrees

First, separate the degree part. This can be done by taking the integer part of the decimal degree value. So, the degree part will be \(-345^{\circ}\). Remember to keep the negative sign as it indicates the direction of the rotation.
02

Find Minutes

Subtract the degree part from the original angle to get the fractional part. Multiply this result by 60 (as there are 60 minutes in a degree) to convert it into minutes. The integer part of this result will be the minute part: \(0.12 * 60 = 7.2\) The minute part is \(7'\).
03

Find Seconds

Subtract the minute part from the result got in the previous step to get the fractional part of the minutes. Multiply this result by 60 (as there are 60 seconds in a minute) to convert it into seconds: \(0.2 * 60 = 12\). Therefore, the second part is \(12''\).
04

Putting it all together

Combine the degree, minute, and second parts together to get the final answer in DMS form: \(-345^{\circ} 7' 12''\)

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Degrees, Minutes, Seconds (DMS)
The Degrees, Minutes, and Seconds (DMS) system is a way of expressing angles using three units: degrees, minutes, and seconds. It is similar to how time is measured in hours, minutes, and seconds. Each degree is divided into 60 minutes, and each minute is further divided into 60 seconds.

When converting an angle from decimal degrees to DMS, you begin by identifying the degree component, which is the whole number part of the angle. Next, the fractional part of the degree is multiplied by 60 to find the minutes. Any remaining fraction from the minutes is again multiplied by 60 to signify the seconds. This conversion is useful for more precise measurements in fields like navigation and astronomy.

To illustrate with an example, consider the angle \(-345.12^{\circ}\):
  • The degree component is \(-345^{\circ}\).
  • To find the minutes, calculate \(0.12 \times 60 = 7.2\), giving you \(7'\).
  • The seconds are derived from \(0.2 \times 60 = 12\), resulting in \(12''\).
Combining these parts provides you the DMS format \(-345^{\circ} 7' 12''\). Understanding this format is crucial for correctly interpreting and converting angle measurements.
Negative Angles
Negative angles can often seem confusing, but they are a standard way of indicating direction in rotational measurements. In mathematics, angles are often measured from a specific starting line, usually the positive x-axis in the Cartesian coordinate system. Positive angles are measured counter-clockwise, while negative angles are measured clockwise.

For example, a negative angle like \(-345.12^{\circ}\) means that the angle is measured 345.12 degrees in the clockwise direction from the positive x-axis. It's important to preserve the negative sign during conversion processes. This ensures that the final measurement correctly reflects the intended direction.

Understanding negative angles is essential, particularly in applications such as trigonometry, physics, and various engineering problems, where direction and orientation can significantly impact calculations.
  • Always note the negative sign is retained throughout the conversion.
  • Negative angles offer an alternative perspective on angle measurement, contributing to a comprehensive understanding of geometric contexts.
Graphing Utility Conversion
Graphing utilities, such as scientific calculators or computer software, can simplify the conversion of decimal degrees to DMS format. They perform calculations swiftly, providing accurate results that aid in understanding different angle expressions.

When using a graphing utility, enter the decimal degree value into the device. Many devices have a dedicated function or button to convert between degrees and DMS format. This function automates the breaking down of the degree into its minute and second components. The result is the angle in DMS, ready for applications in different fields such as surveying, navigation, or geometry.

These conversion capabilities are especially beneficial for large datasets or when working with complex problems requiring precise measurement. It removes the potential for human error in manual computation.
  • Saves time and ensures precision by automating calculations.
  • Streamlines activities in academic and professional tasks that involve angle measurement.

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Most popular questions from this chapter

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