MHB Finding Critical Points and Extrema for g(x, y) = sqrt{x^2 + y^2 + 1}

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SUMMARY

The discussion focuses on finding critical points and extrema for the function g(x, y) = sqrt{x^2 + y^2 + 1}. Participants emphasize the importance of understanding the solution process rather than just obtaining the final answer. Key steps include sketching the region to estimate extrema locations and attempting the problem independently before seeking guidance. The conversation highlights the expectation for students to engage with the material actively.

PREREQUISITES
  • Understanding of multivariable calculus concepts
  • Familiarity with critical points and extrema
  • Ability to sketch functions in two dimensions
  • Knowledge of differentiation techniques for functions of multiple variables
NEXT STEPS
  • Study the method for finding critical points in multivariable functions
  • Learn how to apply the second derivative test for functions of two variables
  • Explore techniques for visualizing functions in three dimensions
  • Review examples of extrema in constrained optimization problems
USEFUL FOR

Students in multivariable calculus, educators teaching optimization techniques, and anyone looking to deepen their understanding of critical points and extrema in mathematical functions.

harpazo
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Find the critical points and extrema of the function

g (x, y) = sqrt {x^2 + y^2 + 1}. Can someone get me started here? I also would like the solution steps. I said solution steps not the solution.

Do it like this:

Step 1...

Step 2...

Step 3...etc...
 
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Harpazo said:
Find the critical points and extrema of the function

g (x, y) = sqrt {x^2 + y^2 + 1}. Can someone get me started here? I also would like the solution steps. I said solution steps not the solution.

Do it like this:

Step 1...

Step 2...

Step 3...etc...

Sigh.

First of all, a "solution" is NOT the final answer, as you are implying here. A solution IS all the steps involved. And you won't get them here, as it is expected that students attempt their problems first, show where they have gotten stuck, and then get some guidance on how to proceed. In short, YOU will be doing your work, not us.

As for getting started, have you at least done a sketch of your region? That might at least give you a ball park estimate of where the extrema might be...
 
Relativistic Momentum, Mass, and Energy Momentum and mass (...), the classic equations for conserving momentum and energy are not adequate for the analysis of high-speed collisions. (...) The momentum of a particle moving with velocity ##v## is given by $$p=\cfrac{mv}{\sqrt{1-(v^2/c^2)}}\qquad{R-10}$$ ENERGY In relativistic mechanics, as in classic mechanics, the net force on a particle is equal to the time rate of change of the momentum of the particle. Considering one-dimensional...

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