AUS-6 Sean has designed a system to move 50.0kg shipping crates from a smooth (frictionless) floor onto arough ramp for which 4-0.225 that is inclined 35.0° from the horizontal. Each crate starts at restagainst a spring with a spring constant 8.60x10³N/m that is compressed 0.750m. When released, thespring pushes the crate, which then leaves the spring and slides up the rough ramp. The crate comes to astop at a final height h₂ shown in the figure below.unloaded position*0.750m50.0kg..35.0⁰h₂Find the height h₂, in meters. Mechanical energy will not be conserved, so use WNC = AK + AU.PE-1 A particle moves in one dimension and is subject to a conservative force, which is givenby the function F(x) shown below, where x is in meters and F is in Newtons.F(x) = 3x²+x-5a)Find the corresponding potential energy function U(x), if the zero point of potentialenergy is x = 0.b) What is the potential energy of the particle (in Joules) at x = 3 meters?C

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AUS-6 Sean has designed a system to move 50.0kg shipping crates from a smooth (frictionless) floor onto a rough ramp for which μ-0.225 that is inclined 35.0° from the horizontal. Each crate starts at rest against a spring with a spring constant 8.60x10³N/m that is compressed 0.750m. When released, the spring pushes the crate, which then leaves the spring and slides up the rough ramp. The crate comes to a stop at a final height h₂ shown in the figure below. unloaded position TE 0.750m 50.0kg... 35.0⁰ h₂ Find the height h₂, in meters. Mechanical energy will not be conserved, so use WNC = AK + AU.

AUS-6 Sean has designed a system to move 50.0kg shipping crates from a smooth (frictionless) floor onto a rough ramp for which μ-0.225 that is inclined 35.0° from the horizontal. Each crate starts at rest against a spring with a spring constant 8.60x10³N/m that is compressed 0.750m. When released, the spring pushes the crate, which then leaves the spring and slides up the rough ramp. The crate comes to a stop at a final height h₂ shown in the figure below. unloaded position TE 0.750m 50.0kg... 35.0⁰ h₂ Find the height h₂, in meters. Mechanical energy will not be conserved, so use WNC = AK + AU.

Principles of Physics: A Calculus-Based Text

5th Edition

ISBN:9781133104261

Author:Raymond A. Serway, John W. Jewett

Publisher:Raymond A. Serway, John W. Jewett

Chapter7: Conservation Of Energy

Section: Chapter Questions

Problem 80P: A pendulum, comprising a light string of length L and a small sphere, swings in the vertical plane....

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