A spring with an 8 kg mass is kept stretched 0.4 m beyond its natural length by a force of 32 N. The spring starts at its equilibrium position and is given an initial velocity of 5 m/s. Find the position (in m) of the mass at any time t. x(t) = 1.5811 sin(√10 t) X m

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Chapter2: Second-order Linear Odes
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A spring with an 8 kg mass is kept stretched 0.4 m beyond its natural length by a force of 32 N. The spring starts at its equilibrium position and is given an initial velocity of 5 m/s. Find the position (in m) of the mass at any time t.
x(t) = _______ m
 
x(t) = 1.5811sin(√10t) m --- this was marked wrong. Please help
**Problem: Spring-Mass System**

A spring with an 8 kg mass is kept stretched 0.4 m beyond its natural length by a force of 32 N. The spring starts at its equilibrium position and is given an initial velocity of 5 m/s. Find the position (in meters) of the mass at any time \( t \).

**Solution:**

\[ 
x(t) = 1.5811 \sin(\sqrt{10} \, t) \, \text{m} 
\]

**Explanation:**

This formula represents the position \( x(t) \) of the mass at any given time \( t \). The position is modeled as a sinusoidal function due to the harmonic motion of the spring-mass system. The coefficient (1.5811) indicates the amplitude, which is the maximum displacement from the equilibrium position, while \( \sqrt{10} \) represents the angular frequency, determining how quickly the oscillations occur.
Transcribed Image Text:**Problem: Spring-Mass System** A spring with an 8 kg mass is kept stretched 0.4 m beyond its natural length by a force of 32 N. The spring starts at its equilibrium position and is given an initial velocity of 5 m/s. Find the position (in meters) of the mass at any time \( t \). **Solution:** \[ x(t) = 1.5811 \sin(\sqrt{10} \, t) \, \text{m} \] **Explanation:** This formula represents the position \( x(t) \) of the mass at any given time \( t \). The position is modeled as a sinusoidal function due to the harmonic motion of the spring-mass system. The coefficient (1.5811) indicates the amplitude, which is the maximum displacement from the equilibrium position, while \( \sqrt{10} \) represents the angular frequency, determining how quickly the oscillations occur.
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