A 0.360 kg block of wood rests on a horizontal frictionless surface and is attached to a spring (also horizontal) with a 28.0 N/m force constant that is at its equilibrium length. A 0.0600 kg wad of Play-Doh is thrown horizontally at the block with a speed of 2.70 m/s and sticks to it. Determine the amount in centimeters by which the Play-Doh-block system compresses the spring.
In cm
A 0.360 kg block of wood rests on a horizontal frictionless surface and is attached to...
A 0.500 kg block of wood rests on a horizontal frictionless surface and is attached to a spring (also horizontal) with a 29.5 N/m force constant that is at its equilibrium length. A 0.0600 kg wad of Play Doh is thrown horizontally at the block with a speed of 2.70 m/s and sticks to it. Determine the amount in centimeters by which the Play-Doh-block system compresses the spring.
A 0.450 kg block of wood rests on a horizontal frictionless surface and is attached to a spring (also horizontal) with a 24.5 N/m force constant that is at its equilibrium length. A 0.0600 kg wad of Play-Doh is thrown horizontally at the block with a speed of 2.60 m/s and sticks to it. Determine the amount in centimeters by which the Play-Doh-block system compresses the spring.
A 0.330 kg block of wood rests on a horizontal frictionless surface and is attached to a spring (also horizontal) with a 27.5 N/m force constant that is at its equilibrium length. A 0.0600 kg wad of Play-Doh is thrown horizontally at the block with a speed of 2.50 m/s and sticks to it. Determine the amount by which the Play-Doh-block system compresses the spring.
A 0.454-kg block is attached to a horizontal spring that is at its equilibrium length, and whose force constant is 22.0 N/m. The block rests on a frictionless surface. A 5.40×10−2-kg wad of putty is thrown horizontally at the block, hitting it with a speed of 8.98 m/s and sticking. How far does the putty-block system compress the spring?
A 0.454-kg block is attached to a horizontal spring that is at its equilibrium length, and whose force constant is 25.0 N/m. The block rests on a frictionless surface. A 5.60×10−2-kg wad of putty is thrown horizontally at the block, hitting it with a speed of 8.93 m/s and sticking. How far does the putty-block system compress the spring?
A 0.454-kg block is attached to a horizontal spring that is at its equilibrium length, and whose force constant is 21.0 N/m. The block rests on a frictionless surface. A 6.00×10−2-kg wad of putty is thrown horizontally at the block, hitting it with a speed of 8.95 m/s and sticking. Part A How far does the putty-block system compress the spring?
A 0.454-kg block is attached to a horizontal spring that is at its equilibrium length, and whose force constant is 25.0 N/m. The block rests on a frictionless surface. A 5.90x10-2kg wad of putty is thrown horizontally at the block, hitting it with a speed of 8.99 m/s and sticking. Part A How far does the putty-block system compress the spring? ΡΟΙ ΑΣφ ? *max cm Submit Request Answer
A block rests on a frictionless horizontal surface and is attached to a spring..... Chapter 10, Problem 81 A block rests on a frictionless horizontal surface and is attached to a spring. When set into simple harmonic motion, the block oscillates back and forth with an angular frequency of 9.8 rad/s. The drawing shows the position of the block when the spring is unstrained. This position is labeled "x=0m." The drawing also shows a small bottle located 0.080 m to...
A block of mass M = 0.400 kg is attached to a spring that initially rests on a frictionless, horizontal surface. A moving rifle bullet with mass m = 16.0 g strikes and embeds itself in the block. The impact compresses the spring by 28.0 cm. The spring constant of the spring is k = 455 N/m. What was the initial speed of the bullet?
A 0.30-kg block rests on a frictionless level surface and is attached to a horizontally aligned spring with a spring constant of 52.0 N/m. The block is initially displaced 3.20 cm from the equilibrium point and then released to set up a simple harmonic motion. What is the speed of the block when it passes through the equilibrium point?