Maximum Compression of Spring on Ramp

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SUMMARY

The problem involves a 5 kg block sliding down a frictionless ramp at a 30-degree angle, compressing a spring with a spring constant (k) of 3000 N/m. The maximum compression of the spring can be determined by equating the gravitational potential energy lost by the block to the elastic potential energy stored in the spring at maximum compression. The gravitational potential energy is calculated using the formula mgh, where h is the vertical height the block descends. The correct approach involves applying the conservation of energy principle, specifically ΔE_i = ΔE_f, to find the maximum compression of the spring.

PREREQUISITES
  • Understanding of gravitational potential energy (mgh)
  • Knowledge of elastic potential energy (1/2 kx²)
  • Familiarity with the conservation of energy principle
  • Basic trigonometry to calculate height from ramp angle
NEXT STEPS
  • Calculate the height (h) the block descends using trigonometric functions.
  • Learn how to equate gravitational potential energy to elastic potential energy.
  • Explore the concept of energy conservation in mechanical systems.
  • Study the effects of different spring constants on compression in similar scenarios.
USEFUL FOR

Physics students, educators, and anyone interested in understanding energy conservation in mechanical systems, particularly in scenarios involving springs and inclined planes.

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Homework Statement



A 5 kg block is placed near the top of a frictionless ramp, which makes an angle of 30o degrees to the horizontal. A distance d = 1.3 m away from the block is an unstretched spring with k = 3000 N/m. The block slides down the ramp and compresses the spring. Find the magnitude of the maximum compression of the spring.


Homework Equations


Gravitational Potential Energy = mgh
now i through i figured out gravitational force was the massXacceleration of g but i took
5X9.8 and got 49 or -49 and both were not correct so i couldn't then move on to figure out the Gravitational Potential Energy so i was stuck there.. and i have to figure that out in order to figure out the entire problem and I am stuck.


The Attempt at a Solution



stated up above...
 
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bricker9236 said:
now i through i figured out gravitational force was the massXacceleration of g but i took
5X9.8 and got 49 or -49 and both were not correct so i couldn't then move on to figure out the Gravitational Potential Energy
Why do you think that this is not correct? This is correct (in MKS).

Give us something more to go on, so that we can help you effectively. What is your plan to solve this problem? What physical principles will you use?
 
When the particle moves from the top to the spring, it loses potential energy. However, when it loses this energy, the energy must go somewhere. In this problem, they want to know the point of highest compression in the spring. What is the change kinetic energy of the mass at this point? What is the change in potential energy in the spring? Same for gravity? and how would you relate all these together to get an answer?
(there is no friction so you do not need to worry of energy loss through heat)

hint: [tex]\Delta E_i = \Delta E_f[/tex]
 

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