Potential Energy of Macroscopic Springs: Difference between revisions

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==The Main Idea==
==The Main Idea==


The First law of Thermodynamics states that energy can be neither created nor destroyed. It is also known as the conservation of energy. Even if the energy cannot be created or destroyed, power generation process and energy sources help the conversion of the energy from one form to an another.  
Since real springs have limits as to stretching or compressing, ideal Springs are used for a both real macroscopic spring and for spring-like interatomic bonds.


===A Mathematical Model===
===A Mathematical Model===


{∆U = Q-W} where F '''U''' is change in the internal energy ,'''Q''' is heat added to the system, and '''W''' is the work done by the system.
 


===A Computational Model===
===A Computational Model===

Revision as of 00:49, 6 December 2015

Ideal Spring

The Main Idea

Since real springs have limits as to stretching or compressing, ideal Springs are used for a both real macroscopic spring and for spring-like interatomic bonds.

A Mathematical Model

A Computational Model

How do we visualize or predict using this topic. Consider embedding some vpython code here Teach hands-on with GlowScript

Examples

Energy Transformation

By the photo, there is no energy made or destroyed. From eating a piece of chicken that has chemical energy will transform into kinetic energy when riding the bicycle. Also with the light energy of the sun will transform into chemical energy of the plant's leaf. This is an expample of energy transformation.


Connectedness

  1. How is this topic connected to something that you are interested in?

This is the first law of thermodynamics where every energy related goes around with this law, where energy is neither made or destroyed. It is very interesting how energy is just there and is transformed into other energies such as chemical energy that the food in the student center has will transform into kinetic energy when playing tennis after school.

  1. How is it connected to your major?

As my major is Chemical Engineering, thermodynamics has many materials in common because of calculating the energy balances toward a reaction. The first law of thermodynamics

  1. Is there an interesting industrial application? To work out thermodynamic problems you will need to isolate a certain portion of the universe, the system, from the remainder of the universe, the surroundings.
  1. Is there an interesting industrial application?

There was an interesting industrial application where we can calculate the energy required by the machine to pump the fluid out.

History

Nicholas Léonard Sadi Carnot 

  (June 1 1796 – August 24 1832)
    • Considered to be the father of Thermodynamics
    • Major Scientific Contributions:
      • Carnot
        • theorem
        • efficiency
        • heat engine
  • Rudolf Clausius
(January 2 1822 – August 24 1888)
    • German Physicist
    • Was known for taking a mathematical approach to physics
    • stated that total energy is conserved ( conservation of energy)
  • William Thompson
(June 26 1824 –  December 17 1907)
    • Father of the word Kelvin
    • Mathematical physicist
    • Also, stated that total energy is conserved.


See also

Are there related topics or categories in this wiki resource for the curious reader to explore? How does this topic fit into that context?

Further reading

Books, Articles or other print media on this topic

External links

[1]


References

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