HELP What are 10 principles of physics applied to a space shuttle launch?

AI Thread Summary
The discussion revolves around identifying ten principles of physics relevant to a space shuttle launch. Key points include Newton's laws of motion, the law of gravitation, and the principles of aerodynamics, which are crucial for understanding shuttle dynamics. The work-energy theorem illustrates the conversion of potential energy to kinetic energy during launch, while the conservation of energy highlights the energy balance during ascent and descent. Additional concepts mentioned include the reaction principle, quantum physics related to rocket fuel combustion, electromagnetic waves for communication, trajectory calculations, and thermodynamics concerning shuttle heat protection. Overall, the conversation emphasizes the complexity of defining "principles" in physics and their application to space shuttle launches.
cairo
Hey, can someone please help me with this? *restates question* I need 10 principles of physics applied to a space shuttle launch. Thanks!
 
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Uh. I don't really understand the question.

F=ma pretty much sums it up.

What sort of 'principles' are you looking for?
 
Well, the reason you're going to get hung up is the word 'principles.' Although you'll probably be taught that such things as

s(t) = v_0 t + \frac{1}{2} a t^2

are principles, you'll find that more and more experienced physicists regard very few things indeed as principles, and consider those kinds of equations to be derivatives of the principles.

These kinds of questions are usually the kind of questions designed by teachers who have decided to relabel what other people would not call principles for the purposes of making their classes remember them.

Here are a few ideas to get you started.

The motion of ANY body must deal with Newton's three laws.

Any body moving in a gravitational field has to contend with Newton's law of gravitation.

The principles of aerodynamics, like drag, are important for anybody moving within the atmosphere.

The work-energy theorem explains how the shuttle trades potential for kinetic energy.

The conservation of energy means the same energy that is spent getting the shuttle up must also be dissipated when the shuttle comes back down.

That's seven...

- Warren
 
This is just me thinking, by no means am I an expert in physics
1 equal and opposite reaction
2 Quantum Physics- the combustion of rocket fuel
3 Electromagnetic waves- communications
4 Trajectory and orbiting objects
5 Thermodynamics – tiles on shuttle to keep it from burning up
 
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