Exam 17: Second-Order Differential Equations

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Solve the differential equation using the method of undetermined coefficients. Solve the differential equation using the method of undetermined coefficients.

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A series circuit consists of a resistor A series circuit consists of a resistor   , an inductor with   , a capacitor with   , and a generator producing a voltage of   If the initial charge is   and the initial current is 0, find the charge   at time t. , an inductor with A series circuit consists of a resistor   , an inductor with   , a capacitor with   , and a generator producing a voltage of   If the initial charge is   and the initial current is 0, find the charge   at time t. , a capacitor with A series circuit consists of a resistor   , an inductor with   , a capacitor with   , and a generator producing a voltage of   If the initial charge is   and the initial current is 0, find the charge   at time t. , and a generator producing a voltage of A series circuit consists of a resistor   , an inductor with   , a capacitor with   , and a generator producing a voltage of   If the initial charge is   and the initial current is 0, find the charge   at time t. If the initial charge is A series circuit consists of a resistor   , an inductor with   , a capacitor with   , and a generator producing a voltage of   If the initial charge is   and the initial current is 0, find the charge   at time t. and the initial current is 0, find the charge A series circuit consists of a resistor   , an inductor with   , a capacitor with   , and a generator producing a voltage of   If the initial charge is   and the initial current is 0, find the charge   at time t. at time t.

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Solve the differential equation using the method of variation of parameters. Solve the differential equation using the method of variation of parameters.

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Solve the differential equation. Solve the differential equation.

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Solve the boundary-value problem, if possible. Solve the boundary-value problem, if possible.

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A spring with a mass of 2 kg has damping constant 8 and spring constant 80. Graph the position function of the mass at time t if it starts at the equilibrium position with a velocity of 2 m/s.

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A spring has a mass of A spring has a mass of   kg and its damping constant is   . The spring starts from its equilibrium position with a velocity of   m/s. Graph the position function for the spring constant   . kg and its damping constant is A spring has a mass of   kg and its damping constant is   . The spring starts from its equilibrium position with a velocity of   m/s. Graph the position function for the spring constant   . . The spring starts from its equilibrium position with a velocity of A spring has a mass of   kg and its damping constant is   . The spring starts from its equilibrium position with a velocity of   m/s. Graph the position function for the spring constant   . m/s. Graph the position function for the spring constant A spring has a mass of   kg and its damping constant is   . The spring starts from its equilibrium position with a velocity of   m/s. Graph the position function for the spring constant   . .

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Solve the boundary-value problem, if possible. Solve the boundary-value problem, if possible.

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Use power series to solve the differential equation. Use power series to solve the differential equation.

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Solve the differential equation. Solve the differential equation.

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Solve the initial-value problem using the method of undetermined coefficients. Solve the initial-value problem using the method of undetermined coefficients.

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Solve the boundary-value problem, if possible. Solve the boundary-value problem, if possible.

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Solve the differential equation using the method of variation of parameters. Solve the differential equation using the method of variation of parameters.

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A spring with a mass of 2 kg has damping constant 14, and a force of A spring with a mass of 2 kg has damping constant 14, and a force of   N is required to keep the spring stretched   m beyond its natural length. Find the mass that would produce critical damping. N is required to keep the spring stretched A spring with a mass of 2 kg has damping constant 14, and a force of   N is required to keep the spring stretched   m beyond its natural length. Find the mass that would produce critical damping. m beyond its natural length. Find the mass that would produce critical damping.

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Find f by solving the initial value problem. Find f by solving the initial value problem.   ;   ,  ; Find f by solving the initial value problem.   ;   ,  , Find f by solving the initial value problem.   ;   ,

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Solve the differential equation. Solve the differential equation.

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Use power series to solve the differential equation. Use power series to solve the differential equation.

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Solve the differential equation. Solve the differential equation.

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A spring with a A spring with a   -kg mass has natural length   m and is maintained stretched to a length of   m by a force of   N. If the spring is compressed to a length of   m and then released with zero velocity, find the position   of the mass at any time   . -kg mass has natural length A spring with a   -kg mass has natural length   m and is maintained stretched to a length of   m by a force of   N. If the spring is compressed to a length of   m and then released with zero velocity, find the position   of the mass at any time   . m and is maintained stretched to a length of A spring with a   -kg mass has natural length   m and is maintained stretched to a length of   m by a force of   N. If the spring is compressed to a length of   m and then released with zero velocity, find the position   of the mass at any time   . m by a force of A spring with a   -kg mass has natural length   m and is maintained stretched to a length of   m by a force of   N. If the spring is compressed to a length of   m and then released with zero velocity, find the position   of the mass at any time   . N. If the spring is compressed to a length of A spring with a   -kg mass has natural length   m and is maintained stretched to a length of   m by a force of   N. If the spring is compressed to a length of   m and then released with zero velocity, find the position   of the mass at any time   . m and then released with zero velocity, find the position A spring with a   -kg mass has natural length   m and is maintained stretched to a length of   m by a force of   N. If the spring is compressed to a length of   m and then released with zero velocity, find the position   of the mass at any time   . of the mass at any time A spring with a   -kg mass has natural length   m and is maintained stretched to a length of   m by a force of   N. If the spring is compressed to a length of   m and then released with zero velocity, find the position   of the mass at any time   . .

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Solve the boundary-value problem, if possible. Solve the boundary-value problem, if possible.

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