Solve the following DEs
(i) .
(ii) .
b) The differential equation of a damped vibrating system under the action of an external periodic force is:
Show that, if n > m0 > 0 the complementary function of the differential equation represents vibrations which are soon damped out. Find the particular integral in terms of periodic functions.
(i) Let (p=\dfrac{dy}{dx}). Then the given equation is ((p-1)^2\left(\dfrac{d^2y}{dx^2}+1\right)^2y=\sin^2\frac{x}{2}+e^x+x). Since (\sin^2\frac{x}{2}=\dfrac{1-\cos x}{2}), the right side is a known function of (x). A particular solution can be sought by assuming (p-1=0) or (\dfrac{d^2y}{dx^2}+1=0). If (p-1=0), then (\dfrac{dy}{dx}=1) giving _______ ________ ________ _______ ______ _________ _________ ______ ______ ______.
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Solve the following differential equations
(i) .
(ii) .
(iii) .
b) Show that the wave equation can be reduced to the form
by the change of variable
.
Solve the following DEs
(i) .
(ii) .
b) The differential equation of a damped vibrating system under the action of an external periodic force is:
Show that, if n > m0 > 0 the complementary function of the differential equation represents vibrations which are soon damped out. Find the particular integral in terms of periodic functions.
Verify that the Pfaffian differential equation
is integrable and hence find its integral.
b) Solve the following equation by Jacobi's method
c) Show that , where a, b are arbitrary constants is a complete integral of
.
Solve, using the method of variation of parameters
b) Solve the following equation by changing the independent variable
Solve the following differential equations
(i) .
(ii) .
b) Find the equation of the integral surface of the differential equation
which passes through the line .
Solve: .
b) Find the charge on the capacitor in an RLC circuit at sec. when
Henry,
ohms,
Farad.
.
c) Solve: .
. State whether the following statement are true or false. Justify your answer with the help of a short proof or a counter-example.
i) The initial value problem
has a unique solution in some interval of the form -h < x < h.
ii) The orthogonal trajectories of all the parabolas with vertices at the origin and foci on the x-axis is .
iii) The normal form of the differential equation
iv) The solution of the pde is
. (Note: The image appears to have a small typo in the solution provided, it should likely be to the power of -1 based on standard solutions, however, transcribing exactly as seen:
.)
v) The pde is hyperbolic in the entire xy-plane.