Problem 56
Question
The space shuttle can travel at approximately 410,000 miles per day. If the shuttle could travel to Mars, and Mars was \(140,000,000\) miles away, how many days would it take the shuttle to travel to Mars? Express the result in decimal form.
Step-by-Step Solution
Verified Answer
Approximately 341.46 days.
1Step 1: Understand the Given Information
Identify the given values from the problem. You know the speed of the space shuttle is approximately 410,000 miles per day. The distance to Mars is 140,000,000 miles.
2Step 2: Set Up the Equation
Use the formula for time, which is \( \text{Time} = \frac{\text{Distance}}{\text{Speed}} \). Substitute the given values into the formula: \( \text{Time} = \frac{140,000,000}{410,000} \).
3Step 3: Simplify the Equation
Perform the division to find the time it takes for the shuttle to reach Mars. Simplify the equation: \( \frac{140,000,000}{410,000} = 341.46341 \) approximately.
4Step 4: Present the Result
Conclude with the calculated result. It would take the space shuttle approximately 341.46 days to reach Mars.
Key Concepts
Space Shuttle SpeedDistance to MarsTravel Time Calculation
Space Shuttle Speed
When we talk about space shuttle speed, we are referring to how fast a space shuttle can travel in space. Shuttles can navigate vast distances at incredibly high speeds. The speed of a shuttle is measured in terms of distance covered per unit of time, such as miles per day or kilometers per hour.
For example, the space shuttle in our exercise travels at approximately 410,000 miles per day. This number seems large because space travel involves covering immense distances. Understanding shuttle speed is crucial, since it determines how long journeys to different planets or celestial bodies might take.
In addition, knowing the speed of the shuttle helps us calculate important travel metrics like time taken and fuel consumption. These calculations are significant for mission planning and ensure successful space expeditions. This constant speed assumption aids in simplifying complex dynamic equations for educational purposes, though actual shuttle speeds can vary slightly due to gravitational influences and other factors.
For example, the space shuttle in our exercise travels at approximately 410,000 miles per day. This number seems large because space travel involves covering immense distances. Understanding shuttle speed is crucial, since it determines how long journeys to different planets or celestial bodies might take.
In addition, knowing the speed of the shuttle helps us calculate important travel metrics like time taken and fuel consumption. These calculations are significant for mission planning and ensure successful space expeditions. This constant speed assumption aids in simplifying complex dynamic equations for educational purposes, though actual shuttle speeds can vary slightly due to gravitational influences and other factors.
Distance to Mars
Mars is one of the closest planets to Earth and is often a subject of interest in space travel. The distance from Earth to Mars can vary due to their respective orbits around the Sun. However, for simple calculations, we use an average distance.
In our exercise, the distance to Mars is taken as 140 million miles. While this is a simplified static number, in reality, the distance fluctuates between approximately 33.9 million miles to 250 million miles.
Using this average distance is important because it gives us a reasonable approximation for calculations without needing complex real-time orbital data. This distance helps inform how long a journey would take when combined with the shuttle's speed and shapes our understanding of the challenges of interplanetary travel.
Grasping these distances helps us to appreciate the scale of our solar system and the technological marvels involved in space exploration.
In our exercise, the distance to Mars is taken as 140 million miles. While this is a simplified static number, in reality, the distance fluctuates between approximately 33.9 million miles to 250 million miles.
Using this average distance is important because it gives us a reasonable approximation for calculations without needing complex real-time orbital data. This distance helps inform how long a journey would take when combined with the shuttle's speed and shapes our understanding of the challenges of interplanetary travel.
Grasping these distances helps us to appreciate the scale of our solar system and the technological marvels involved in space exploration.
Travel Time Calculation
Calculating travel time is an essential part of planning any trip, whether on Earth or in space. In this context, travel time refers to the duration it takes for a space shuttle to travel from Earth to Mars, based on its speed and the distance.
The formula used here is:
In our exercise, the calculation was:
The formula used here is:
- Time = \( \frac{\text{Distance}}{\text{Speed}} \)
In our exercise, the calculation was:
- \( \text{Time} = \frac{140,000,000}{410,000} \)
- This results in approximately 341.46 days.
Other exercises in this chapter
Problem 55
Change each radical to simplest radical form. \(\frac{\sqrt{35}}{\sqrt{7}}\)
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Write each of the following using positive rational exponents. For example, \(\sqrt{a b}=(a b)^{\frac{1}{2}}=a^{\frac{1}{2}} b^{\frac{1}{2}}\). \(4 y \sqrt[3]{x
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Solve each equation. Don't forget to check each of your potential solutions. \(\sqrt{t+7}-2 \sqrt{t-8}=\sqrt{t-5}\)
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