First Year Calculus Kepler's laws?

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SUMMARY

This discussion focuses on exploring orbital motion and Kepler's laws through the lens of Calculus BC. The user is seeking suggestions for variations on this topic, particularly in relation to Lagrangian points. Key concepts mentioned include cross products and partial differentiation, with definitions provided for both. The user is looking for ways to simplify these advanced concepts to fit within the framework of BC calculus.

PREREQUISITES
  • Understanding of Calculus BC concepts
  • Familiarity with vector mathematics, specifically cross products
  • Basic knowledge of partial differentiation
  • Awareness of Kepler's laws of planetary motion
NEXT STEPS
  • Research Lagrangian points and their significance in orbital mechanics
  • Study the application of cross products in physics problems
  • Explore partial differentiation in the context of multivariable calculus
  • Examine real-world applications of Kepler's laws in modern astronomy
USEFUL FOR

Students in Calculus BC, educators teaching advanced calculus concepts, and anyone interested in the mathematical foundations of orbital mechanics and celestial dynamics.

wil3
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Hello.

I am doing an end of the year presentation/project for calculus BC class, and I was considering examining orbital motion and Kepler's laws in terms of basic calculus. So far I have been reading this site:

http://www.alcyone.com/max/physics/kepler/index.html

Does anyone have any suggestions for variations or examinations of this topic? I was also considering Lagrangian points. The site uses cross products, partial differentiation, and other concepts that I am unfamiliar with, so if there is a way to understand these in terms of BC calculus, I would appreciate an explanation. Thanks in advance for any advice!
 
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cross product is quite simple: the cross product of vector A and vector B is defined as a vector C perpendicular to both A and B and whose magnitude is equal to ||A||||B||sin(θ) where θ is the angle between A and B.
Partial derivatives: a little bit more confusing. the partial derivative of f with respect to x denoted fx(x,y,z) is basically the derivative f' where y and z are assumed to be constants.
hope this helps!
 

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