Prove Theorem 2, which gives the solution of Poisson’s equation
in terms
of the Green’s function.
Prove Theorem 2, which gives the solution of Poisson’s equation in terms of the Green’s function.
Prove the equation of the parallel axis theorem (derive the equation).
...HELPPPP....Use Green’s theorem to evaluate Z C (−y + √3 x 2
)dx + (x 3 − ln (y 2 ))dy where C is the rectangle with vertices
(0, 0), (1, 0), (0, 2), and (1, 2).
4. Use Green's theorem to evaluate vertices (0,0), (1,0), (0, 2), and (1,2). Sc(-y + V 22)dx + (z? – In (y?))dy where C is the rectangle with
Prove the following function (using -i) is a solution to the
Schrodinger equation and determine its energy.
1/2 8Tt
1/2 8Tt
7. State Taylor's theorem for a function f(x, y) of two variables and prove it by using Taylor's theorem for a single variable function.
7. State Taylor's theorem for a function f(x, y) of two variables and prove it by using Taylor's theorem for a single variable function.
Prove that the following two-point boundary-value problem has a
UNIQUE solution.
Thank you
Theorem on Unique Solution, Boundary-Value Problem Let f be a continuous function of (t, s), where 0stSl and-00<s< 00. Assume that on this domain THEOREM4 11. Prove that the following two-point boundary-value problem has a unique solution: "(t3 5)x +sin t
Theorem on Unique Solution, Boundary-Value Problem Let f be a continuous function of (t, s), where 0stSl and-00
inverse function theorm prove please ..
Theorem (4) (' Inverse function theorem) of firU is one-to-one into differentiable and has non-singular Jacobian at each point, then the inverse of f. 15. also differentiable and f is a cerrdinute' transformation. S with
Prove this therom by using an equation as an example.
15 THEOREM Suppose f is a differentiable function of two or three vari- ables. The maximum value of the directional derivative D. f(x) is f(x) and it occurs when u has the same direction as the gradient vector vf(x).
Prove these 2 formulas of the weibull distribution
THEOREM
THEOREM
consider a simple smooth closed curve C and a vector field F= Mi+Nj verifying the conditions of both forms of green’s theorem. Find a vector G=Pi+Qj (that is write P and Q in function of M and N) such that the counterclockwise circulation of F along C = the outward flux of G across C.
2. Prove that A+B AB by: a. b. c. d. Using truth tables for both the right and right sides of the equation. Drawing a gate level schematic for both the right and right sides of the equation Which theorem is this? Restate the theorem in terms of gates.