
is conservative if there is a scalar function
such that
. This would require



(or perhaps the last partial derivative should be 4 to match up with the integral?)
From these equations we find





so
is indeed conservative, and the gradient theorem (a.k.a. fundamental theorem of calculus for line integrals) applies. The value of the line integral depends only the endpoints:


Answer:
Seven-thirds
Step-by-step explanation:
The give equation is
.
The leading coefficient is 9
The constant term is 7
According to the rational root theorem, the ratio of factors the constant terms to that of the coefficient of the leading term are all possible rational roots of the given polynomial.
Base on this theorem,
or seven thirds is a potential root because the numeration is a factor of 7 and the denominator is a factor of 9.
Answer:
-2.35
Step-by-step explanation:
Divide -4.7/2 = -2.35
Answer:
204
Step-by-step explanation:
i took the test