ANSWER:
4. (a) Find and write down the general solution of the ODE 2y" – xạy=0 in...
4. (a) Find and write down the general solution of the ODE 2y" – xºy=0 in the form of a power series about x = 0. Only include the first three non-zero terms in each of the two linearly independent solutions (in an interval I centered at x = 0) that you obtain. (b) Check that each of the two linearly independent solutions you found in 12 part (a) individually satisfies the ODE, up through terms of order x'
4. (a) Find and write down the general solution of the ODE 2y'-x^3=0 in the form of a power series about x = 0. Only include the first three non-zero terms in each of the two linearly independent solutions (in an interval I centered at x = 0) that you obtain. (b) Check that each of the two linearly independent solutions you found in part (a) individually satisfies the ODE, up through terms of order x^12
Consider the ODE:3xy"+y' - 2xy = 0. Find the general solution in power series form about the regular singular point x = 0, following parts (a) – (c), below. (a) Obtain the recurrence relation. (b) Find the exponents of the singularity. (e) Obtain only one of the two linearly independent solutions, call it y(x), that corresponds to the smaller exponent of the singularity; but, only explicitly include the first four non-zero terms of the power series solution. Write down the...
3. For the differential equation (2x2 - 1)/" + xy + 2y = 0, find the first three non-zero terms of each of two linearly independent power series solutions. 4. Find the general solution of the system of equations
just focus on A,B,D 1. Homogeneous ODE Find a general solution of the linear non-constant coefficient, homogeneous ODE for y(x) x3y'" – 3xy" + (6 – x2)xy' – (6 – x?)y = 0 as follows. a) You are given that yı(x) = x is a solution to the above homogeneous ODE. Confirm (by substitution) that this is the case. b) Apply reduction of order to find the remaining two solutions, then state the general solution. (Hint: The substitution y2(x) =...
Consider the ODE: Y'" + y' + 2y + 3y = 0. If yı (t) and y2 (t) are two linearly independent solutions to above ODE, then all solutions to it may be written as y(t) = C1 yı(t) + C2 y2(t) for an appropriate choice of the constants C1 and C2 True O False
DIFFERENTIAL EQUATIONS: POWER SERIES EXPANSION Find at least the first four non-zero terms in a power series expansion about x-0 for a general solution to the differential equation (x2-Dy'+2xy 0 Write the general solution as a linear combination of two linearly independent solutions Find at least the first four non-zero terms in a power series expansion about x-0 for a general solution to the differential equation (x2-Dy'+2xy 0 Write the general solution as a linear combination of two linearly independent...
need help with Calculus assignment Solve y" _ 2ry'-2y 0 by me each of the two linearly independent solutions unless the series terminates sooner ans of a power series about zo 0, Find the first three t Solve y" _ 2ry'-2y 0 by me each of the two linearly independent solutions unless the series terminates sooner ans of a power series about zo 0, Find the first three t
a) Verify that a = 0 is a regular singular point. (2 points) b) Find two linearly independent power series solutions about a = 0, Provide at least 3 non-zero terms of each solution. (8 points)
(1 point) Find a power series centered at a = 0 for the function ln(1 + x) When you have found the series, enter the sum of the first five non-zero terms of the series. Find the radius of convergence R of the power series. R= 1 Use the power series you found above, to build a power series for the function f(x) = x? ln(1 + x). Again, enter the first five non-zero terms. What is the radius of...