Refer a friend and earn $50 when they subscribe to an annual planRefer Now
Get the answer to your homework problem.
Try Numerade Free for 30 Days
Like
Report
By considering different paths of approach, show that the functions in Exercises $35-42$ have no limit as $(x, y) \rightarrow(0,0) .$$$g(x, y)=\frac{x-y}{x+y}$$
As paths, $y=0$ and $x=0$ , give different values for the limit, hence the function$g(x, y)=\frac{x-y}{x+y}$ has no limit as $(x, y) \rightarrow(0,0)$
Calculus 3
Calculus 1 / AB
Chapter 14
Partial Derivatives
Section 2
Limits and Continuity in Higher Dimensions
Applications of the Derivative
Johns Hopkins University
Oregon State University
Harvey Mudd College
Idaho State University
Lectures
02:56
In mathematics, a vector (…
06:36
01:47
By considering different p…
02:07
01:48
04:08
04:25
01:03
00:57
01:40
02:11
01:24
in this problem by considering different parts off. Coach needs to be shown that the function that has given G X Y is equals two X minus Y or X plus y has no limits as X Y approaches +00 are considering different parts off approach along XX is where why will be zero. They get limit. X Y approaches 00 x minus Y or X plus y is equals toe limit x zero approaches 00 X minus zero over X plus zero we get limit eggs zero approaches 00 x or x We get limit exceed Oh, approaches 00 one that before we get one now considering part off approach alone, Why exist where X will be zero limit Ex lie approaches 00 x minus Y or x plus y We get limit zero by approaches 00 zero minus y over zero plus y. Now, by solving this, we get limit. Zero vie approaches 00 minus y or by we get minus one. Now, as the parts why is equals to zero and X is equal to give zero give different values for the limit. Hence the function. G X y is supposed to X minus Y or X plus y has no limits as X Y approaches 00 that's a solution.
View More Answers From This Book
Find Another Textbook
In mathematics, a vector (from the Latin word "vehere" meaning &qu…
In mathematics, a vector (from the Latin "mover") is a geometric o…
By considering different paths of approach, show that the functions in Exerc…
02:12
In Exercises $43-46,$ find the linearization $L(x, y, z)$ of the function $f…
04:11
Köchel numbers In 1862 , the German musicologist Ludwig von Köchel made a ch…
02:58
Locating center of mass Locate the center of mass of the carpenter's sq…
01:50
In Exercises $1-10,$ sketch the region of integration and evaluate the integ…
03:48
Change the Cartesian integral into an equivalent polar integral. Then evalua…
05:24
The solids in Exercises $1-12$ all have constant density $\delta=1$(Exam…
03:04
Minimum surface area with fired volume Find the dimensions of the closed rig…
05:28
Finding a moment of inertia and radius of gyration Find the moment of inerti…
01:44
02:31
Radius of gyration of slender rod Find the radius of gyration of a slender r…
92% of Numerade students report better grades.
Try Numerade Free for 30 Days. You can cancel at any time.
Annual
0.00/mo 0.00/mo
Billed annually at 0.00/yr after free trial
Monthly
0.00/mo
Billed monthly at 0.00/mo after free trial
Earn better grades with our study tools:
Textbooks
Video lessons matched directly to the problems in your textbooks.
Ask a Question
Can't find a question? Ask our 30,000+ educators for help.
Courses
Watch full-length courses, covering key principles and concepts.
AI Tutor
Receive weekly guidance from the world’s first A.I. Tutor, Ace.
30 day free trial, then pay 0.00/month
30 day free trial, then pay 0.00/year
You can cancel anytime
OR PAY WITH
Your subscription has started!
The number 2 is also the smallest & first prime number (since every other even number is divisible by two).
If you write pi (to the first two decimal places of 3.14) backwards, in big, block letters it actually reads "PIE".
Receive weekly guidance from the world's first A.I. Tutor, Ace.
Mount Everest weighs an estimated 357 trillion pounds
Snapshot a problem with the Numerade app, and we'll give you the video solution.
A cheetah can run up to 76 miles per hour, and can go from 0 to 60 miles per hour in less than three seconds.
Back in a jiffy? You'd better be fast! A "jiffy" is an actual length of time, equal to about 1/100th of a second.