Astronaut is trying to shake an anvil

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In summary, the conversation discusses the concept of an astronaut trying to shake an anvil that is more massive than them in outer space. The conclusion is that the astronaut would move themselves more than they would move the anvil due to the anvil's greater mass. A hypothetical scenario of an astronaut pushing off the wall in the ISS is also mentioned, with the understanding that the laws of physics would prevent them from altering the orbital path.
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alyafey22
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let's assume that an astronaut is trying to shake an anvil that is more massive than him ,,,,,, this happens in outer space what would shake more the astronaut or the anvil ?? why ??
 
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  • #2


If your hands are strong enough, you can stay put.
 
  • #3


It is equally easy to understand that the anvil is shaking the man, since the forces are equal and opposite, so why not?
 
  • #4


The astronaut would move himself more than he would move the anvil precisely because the anvil is more massive than he is.
 
  • #5


Drakkith said:
The astronaut would move himself more than he would move the anvil precisely because the anvil is more massive than he is.

I guess if the opposite were true, every time an astronaut inside the ISS pushed off the side wall to manuever , they'd push it out of it's orbital path ?
 
  • #6


Isaacsname said:
I guess if the opposite were true, every time an astronaut inside the ISS pushed off the side wall to manuever , they'd push it out of it's orbital path ?

Only if several rules of physics are broken. =)
 
  • #7


Drakkith said:
Only if several rules of physics are broken. =)

Well we certainly can't let them get away with that...:eek:
 

Related to Astronaut is trying to shake an anvil

1. What is the purpose of an astronaut trying to shake an anvil?

The purpose of an astronaut trying to shake an anvil is to test the effects of microgravity on the movement and stability of objects. This experiment can provide valuable insights for future space missions and also aid in the development of technologies for handling heavy objects in space.

2. How is microgravity achieved for this experiment?

Microgravity is achieved by conducting the experiment in a low-gravity environment, such as on a spacecraft in orbit around Earth. This environment allows for the anvil to be suspended in a state of weightlessness, similar to what would be experienced on the moon or other planets.

3. What are the potential challenges an astronaut may face while trying to shake an anvil in space?

The main challenge an astronaut may face while trying to shake an anvil in space is maintaining their own stability and balance. In microgravity, there is no gravitational force to keep the astronaut firmly planted on the ground, so they must use their muscles and coordination to stay in place while exerting force on the anvil.

4. How can the results of this experiment be applied in real-life situations?

The results of this experiment can be applied in real-life situations by informing the design and operation of equipment used for handling heavy objects in space, such as robotic arms or tools for construction on other planets. It can also help in the understanding of how objects behave in microgravity, which is important for long-term space missions and potential colonization efforts.

5. Are there any potential risks involved in this experiment?

As with any experiment, there are potential risks involved. The main risk in this experiment would be the anvil breaking free from its suspension and potentially causing damage or injury to the astronaut or the spacecraft. However, extensive safety precautions are taken to minimize these risks and ensure the safety of the astronaut and the success of the experiment.

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