Calculus: Early Transcendentals 8th Edition

Published by Cengage Learning
ISBN 10: 1285741552
ISBN 13: 978-1-28574-155-0

Chapter 14 - Section 14.4 - Tangent Planes and Linear Approximation - 14.4 Exercise - Page 935: 28

Answer

$\dfrac{(-v^2w du+dv-uv^2dw)}{(1+uvw)^2}$

Work Step by Step

The differential form for the given function can be calculated as: $dT=\dfrac{\partial T}{\partial u} du +\dfrac{\partial T}{\partial v} dv+ \dfrac{\partial T}{\partial w} dw$ $dT=\dfrac{-v \times (vw)}{(1+uvw)^2}du+\dfrac{1+uvw-v \times (uw)}{(1+uvw)^2} dv+\dfrac{-v \times (uv)}{(1+uvw)^2} dw$ This implies that $dT=\dfrac{(-v^2w du+dv-uv^2dw)}{(1+uvw)^2}$
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