As shown below a mass compresses a spring from distance B to A. Spring force pushes the mass to the right until it reaches node B at which point the mass is released from the spring. Create a model that investigates motion of the mass upon release. From A to B the mass is subject to positive work due to spring force and negative work due to kinetic frictio From B to C kinetic friction is the only work. U = T2-T1 if the mass is moving. The box stop moving when work equals zero. Model inputs are k, m, s, µs and uk. Apply the metric system. Write general equations as follows. Provide a FBD for A to B, and one for B to C. 1. Determine if the mass moves at all by comparing initial spring force to static friction. 2. If the spring does cause motion, determine initial acceleration. 3. Determine total work done by the spring force and frictien frem A to R

As shown below a mass compresses a spring from distance B to A. Spring force pushes the mass to the right until it reaches node B at which point the mass is released from the spring. Create a model that investigates motion of the mass upon release. From A to B the mass is subject to positive work due to spring force and negative work due to kinetic frictio From B to C kinetic friction is the only work. U = T2-T1 if the mass is moving. The box stop moving when work equals zero. Model inputs are k, m, s, µs and uk. Apply the metric system. Write general equations as follows. Provide a FBD for A to B, and one for B to C. 1. Determine if the mass moves at all by comparing initial spring force to static friction. 2. If the spring does cause motion, determine initial acceleration. 3. Determine total work done by the spring force and frictien frem A to R

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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