Calculating Cyclic Energy from Acceleration (Relative)

In summary, the conversation involves discussing two conditions in which cyclic energy is applied to a material. Condition 1 involves a force of 1G at 0.1Hz for 47 days on board a vessel in the ocean, while Condition 2 involves a force of 4.5G at 60Hz for 3600 seconds on a vibrating table. The question is whether it is possible to calculate and compare the energy applied in both conditions, and if there is another way to relate them. The conversation also clarifies that the accelerations are vertical and vary over time, and that the vibrating table may involve additional fixation and stress in the material.
  • #1
Munnaz
2
0
Hello,

I am looking at relating two situations under which cyclic energy is applied to a material.

Condition 1: A material has been subjected to a force of 1G at 0.1Hz for 47 days.
Condition 2: The same material has been subjected to a force of 4.5G at 60Hz for 3600Seconds.

Is it possible to calculate the energy applied under both conditions and relate them to one another (i.e. condition 1 has applied 200% the energy applied under condition 2)?
or
Can they be directly related to each other. For example: Under condition 1 the material experiences 406,080 cycles therefore a cumulative total of 406,080G. Under condition 2 the material experiences 216,000 cycles therefore a cumulative total of 972,000G. Therefore condition 2 experiences 240% times the energy condition 1 experiences.

Is either of these possible or is there another way to relate them to one another?

Thanks in advance.
Munnaz
 
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  • #2
By "cyclic energy" do you mean that the material was spun in a centrifuge at the indicated acceleration?
 
  • #3
Hi Dale,

Not centrifugal force. Condition 1 is on board a vessel in the ocean and the other is on a vibrating table. Both vertical accelerations.

Regards Munnaz
 
  • #4
So if the accelerations are vertical and they are cyclic then the magnitude must vary over time. So is the 1 g mentioned a peak-to-peak acceleration or what? Does the material free-fall down?

Also, does the acceleration involve any "squeezing" or "flexing" of the material other than what happens simply due to gravity and being pushed up? In particular, the vibrating table does not seem like it could be done without some additional fixation and stress in the material.
 

What is cyclic energy?

Cyclic energy refers to the energy that is continuously transferred between a system and its surroundings as the system undergoes a cyclical or repetitive motion. It is typically calculated using the acceleration and relative velocity data of the system.

How is cyclic energy calculated?

Cyclic energy is calculated using the formula E = 1/2*m*v^2, where E is the cyclic energy, m is the mass of the system, and v is the relative velocity of the system.

What is the purpose of calculating cyclic energy?

Calculating cyclic energy allows scientists to better understand the energy dynamics of a system and how it changes over time. This information can be used to optimize the design and performance of systems in various fields such as engineering, physics, and biology.

What are some real-world applications of calculating cyclic energy?

Some real-world applications of calculating cyclic energy include analyzing the efficiency of engines, studying the energy consumption of athletes during exercise, and understanding the energy transfer in vibrating systems.

What are some factors that can affect cyclic energy?

Cyclic energy can be affected by various factors such as friction, air resistance, and changes in mass or velocity of the system. Other factors, such as the type of motion and the nature of the materials involved, can also impact cyclic energy calculations.

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