**Harmonic Oscillator Problem**A 5.00-kg object oscillates on a spring with a force constant of 150 N/m. The damping coefficient is 0.200 kg/s. The system is driven by a sinusoidal force of maximum value 50.0 N, and an angular frequency of 20.0 rad/s.1. **Question: What is the amplitude \(A\) of the oscillations?** - **Input Box**: \(A = \_\_\_\_) m2. **Question: If the driving angular frequency is varied, at what angular frequency \(\omega\) will resonance occur?** - **Input Box**: \(\omega = \_\_\_\_) rad/s**Notes for Education:**- The problem involves a damped driven harmonic oscillator.- The parameters given allow for the calculation of amplitude using formulas involving mass, spring constant, damping coefficient, and driving frequency.- Resonance occurs when the driving frequency matches the natural frequency of the system, considering damping.- Ensure to use appropriate equations for damped and driven harmonic motion to solve the problems.

Answered: Image /qna-images/answer/0fbfcc91-8ce1-48ff-aad7-4f0ffa9e02e3.jpgHence the solution.

Answered: A 5.00-kg object oscillates on a spring…

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