Hooke's Law: Difference between revisions
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[[Robert Hooke]] | [[Robert Hooke]] | ||
[[Spring Potential Energy]] | <br>[[Spring Potential Energy]] | ||
[[Tension]] | <br>[[Tension]] | ||
[[Young's Modulus]] | <br>[[Young's Modulus]] | ||
===Further reading=== | ===Further reading=== |
Revision as of 18:13, 27 November 2015
This resource page addresses Hooke's Law. (Claimed by brapsas3)
The Main Idea
Hooke's law is a principle that states that some force F needed to compress or extend a spring by some distance s is directly proportional to that distance.
A Mathematical Model
This system can be expressed as F = ks, where k is some constant factor that is characteristic of the spring.
A Computational Model
How do we visualize or predict using this topic. Consider embedding some vpython code here Teach hands-on with GlowScript
History
Hooke's law is named after the 17th century British physicist Robert Hooke. Hooke first publicly 'stated' the law in 1660, initially concealing it in the Latin anagram "ceiiinosssttuv," which represented the phrase Ut tensio, sic vis — "As the extension, so the force." However, this solution was not published until 1678.
Hooke's equation also applies to many other situations where some elastic body is being deformed, and the ball-spring model is often used as the basis for many contact interactions.
Problem Set
A few sample problems and their solutions.
Simple
QUESTION:
What is the force required to stretch a spring whose constant value is 100 N/m by an amount of 0.50 m?
SOLUTION:
Using the formula F=ks solve the question
F=force(N)
k=force constant(N/m)
s=stretch or compression(m)
F=(100)(0.50) F=50 N
Middling
Difficult
Connectedness
- How is this topic connected to something that you are interested in?
- How is it connected to your major?
- Is there an interesting industrial application?
See also
Robert Hooke
Spring Potential Energy
Tension
Young's Modulus
Further reading
Encyclopedia Brittanica: Hooke's Law
External links
Doodle Science provides a brief run through of Hooke's Law.
An alternate explanation of Hooke's Law with a sample problem set.
References
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