Find the general solution to the following differential equations and determine how the solution y(t) behaves as t goes to infinity: 1. t * dy/dt + 2y = sin(t) 2. t * dy/dt -y = t^2 * e^(-t)
Find the general solution to the following differential equations and determine how the solution y(t) behaves as t goes to infinity: 1. t * dy/dt + 2y = sin(t) 2. t * dy/dt -y = t^2 * e^(-t)
Find the general solution to the following differential equations and determine how the solution y(t) behaves as t goes to infinity: 1. t * dy/dt + 2y = sin(t) 2. t * dy/dt -y = t^2 * e^(-t)
Find the general solution to the following differential equations and determine how the solution y(t) behaves as t goes to infinity:
1. t * dy/dt + 2y = sin(t)
2. t * dy/dt -y = t^2 * e^(-t)
With integration, one of the major concepts of calculus. Differentiation is the derivative or rate of change of a function with respect to the independent variable.
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