Given that u=u(x,y,z)=c1,v=v(x,y,z)=c2 are solutions of dx/P=dy/Q=dz/R. Show that F(u,v)=0 is a general solution of the Lagrange's equation
Pp+Qq=R
Determine the partial differential equation arising from
ax2+by2+z2=4
By the method of separation of variables solve the boundary value problem
∂u/∂x-5(∂u/∂t)=u given u(x,0)=e-2x
Determine the general solution to the lagrange equation
y2zp-x2zq=x2y
use the method of separation of variables to determine the general solution to the one dimensional heat equation ∂u/∂t=α(∂2u/∂x2)=0,0≤ x≤ l,t≥ 0 subject to the initial condition u(x,0)=g(x). Hence compute the particular solution when g(x)=0
Find the characteristic values and the characteristic functions of the sturn_ liouville problem.
d/dx[x(dy/dx)]+(λ/x)y=0
y1(1)=0,y1(e2x)=0 where λ is nonnegative
let F(u,v) where u=u(x,y,z) and v=v(x,y,z), further let z=z(x,y). show that on elimination of the arbitrary function F we obtain the first order partial differential equation;
Pp+Qq=R
use the laplace transform method to obtain solution to the wave equation
∂2u/∂t2=∂2u/∂x2,0≤x≤l under the boundary conditions u(0,t)=u(l,t)=0
t≥0 and the initial conditions u(x,0)=0 u(x,0)=sinπx
Determine the laplace transform
i) ∂2u(x,t)/∂t2
ii)∂2u(x,t)/∂x2
Find the characteristic values and characteristic functions of the storm lionville problem
d2y/dx2+λy=0, y(0)=0,y(π)=0,
where λ is negative