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Integrated Concepts - Simple Harmonic Motion, Collision (don't stick together) Keep 3 decimal places. The green vertical dashed line in the figures indicates the equilibrium position (x = 0). In Figure (a), a 4.23 kg block is attached to a spring with a force constant of 710.00 N/m and the spring is compressed to x = −A = −0.68 m. The block is then released and moves on a frictionless horizontal surface. (b) What is the speed of the Block when it reaches x1 = −0.204 m in Figure (b)? Enter a number m/s

Integrated Concepts - Simple Harmonic Motion, Collision (don't stick together) Keep 3 decimal places. The green vertical dashed line in the figures indicates the equilibrium position (x = 0). In Figure (a), a 4.23 kg block is attached to a spring with a force constant of 710.00 N/m and the spring is compressed to x = −A = −0.68 m. The block is then released and moves on a frictionless horizontal surface. (b) What is the speed of the Block when it reaches x1 = −0.204 m in Figure (b)? Enter a number m/s

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Integrated Concepts - Simple Harmonic Motion, Collision (don't stick together)
Keep 3 decimal places. The green vertical dashed line in the figures indicates the equilibrium position ( x = 0 ). In Figure (a), a 4.23 k g block is attached to a spring with a force constant of 710.00 N / m and the spring is compressed to x = − A = − 0.68 m . The block is then released and moves on a frictionless horizontal surface. (b) What is the speed of the Block when it reaches x 1 = − 0.204 m in Figure (b)? Enter a number m / s

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