Solving Physics Puzzles in Space: A 500cm^3 Challenge

In summary, the conversation discusses the volume of air that four astronauts would breathe in a year inside a spherical space station. It is estimated that they would breathe approximately 500cm^3 of air with each breath. To calculate the total volume of air, the cm^3 must be converted to m^3 and the number of breaths per minute and year must be taken into account. The diameter of the space station would also need to be determined in order to contain all of this air.
  • #1
jcz2
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PHYSICS...please help!

Four astronauts are in a spherical space station.

1) If, as is typical, each of them breathes about 500cm^3 of air with each breath, approximately what volume of air (in cubic meters) do these astronauts breathe in a year?

2) What would the diameter (in meters) of the space station have to be to contain all this air?
 
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  • #2


jcz2 said:
Four astronauts are in a spherical space station.

1) If, as is typical, each of them breathes about 500cm^3 of air with each breath, approximately what volume of air (in cubic meters) do these astronauts breathe in a year?

2) What would the diameter (in meters) of the space station have to be to contain all this air?

Post moved to Homework Help, where it belongs.

What is your try at the solution, jcz?
 
  • #3


convert the cm^3 into m^3.
How many puffs do you take per minute? How many per year? The rest is simple arithmatic...
 

FAQ: Solving Physics Puzzles in Space: A 500cm^3 Challenge

1. How do you approach solving a physics puzzle in space?

When solving a physics puzzle in space, it's important to first understand the basic principles of physics such as gravity, motion, and forces. Then, carefully assess the given parameters of the puzzle and use logical reasoning to determine the appropriate equations to use. It can also be helpful to break the puzzle down into smaller parts and solve them individually before putting them together to find the overall solution.

2. What are some common challenges when solving physics puzzles in space?

Some common challenges when solving physics puzzles in space include accounting for the effects of microgravity, predicting the behavior of objects in a vacuum, and considering the effects of different forces such as thrust or friction. It can also be difficult to visualize the puzzle in a three-dimensional space, as objects may move in unexpected ways.

3. How do you use the given 500cm^3 constraint in solving the puzzle?

The 500cm^3 constraint is a limitation on the volume of space available to solve the puzzle. This means that any solutions must fit within this space and cannot exceed it. When solving the puzzle, you may need to consider how to arrange objects within this space or how to minimize the volume needed for a solution.

4. What tools or techniques can be used to solve a physics puzzle in space?

Some useful tools and techniques for solving physics puzzles in space include vector analysis, kinematics equations, and conservation of energy and momentum principles. It can also be helpful to use visual aids such as diagrams or simulations to better understand the puzzle and its parameters.

5. Are there any real-world applications for solving physics puzzles in space?

Yes, there are many real-world applications for solving physics puzzles in space. For example, engineers and scientists use similar problem-solving techniques to design and operate spacecraft, satellites, and other space technologies. Understanding the principles of physics in space can also help with predicting and planning for space missions and exploration.

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