Finding uniform transmission condition

In summary, the conversation discusses the concept of constant mechanical power transfer for the linear case, which is different from the well-documented gear transmission for rotational motion. The energy acquired by linear motion varies linearly and is represented by the formula 0.5mv^2, which must have a constant differential. It is suggested that if the acceleration is constant, then the kinetic energy will increase linearly with time. However, the equation v=at is not applicable in this scenario as it is only valid for constant acceleration. It is noted that the value of 'a' is inversely proportional to the square root of time, and the force applied is proportional to the square root of mass over time. The validity of these claims is questioned at
  • #1
vin300
603
4
We have never discussed about constant mechanical power transfer for the linear case, as against rotational well documented gear transmission. The energy acquired by linear motion, if varies linearly, then 0.5mv^2 must have constant differential. Trying it, if u=0, v=at.
d/dt[0.5m(at)^2]=constant. m(a^2)t=const.Hence concluding, a is inversely proportional to root of time, and the force to be applied is proportional to {sqrrt.(m/t)}. Does this look fine?
 
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  • #2
Who is "we"?

"The energy acquired by linear motion, if varies linearly, then 0.5mv^2 must have constant differential "
My interpretation: if you apply a constant power for linear acceleration, then the kinetic energy increases linearly with time.

v = at doesn't fly, though: that's only for constant acceleration. Here if ##{1\over 2} mv^2 = B\, t## with ##B## constant.
However, ##a## is still ##\propto \sqrt{1/t}##, but not ##\propto \sqrt{m}##.

Do check my claims, please !

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1. What is a uniform transmission condition?

A uniform transmission condition, also known as a boundary condition, is a mathematical condition used in numerical simulations or experiments to ensure that energy or information is transferred correctly between different parts of a system or domain.

2. Why is finding a uniform transmission condition important?

Finding a uniform transmission condition is important because it ensures the accuracy and reliability of a model or experiment. Without a proper transmission condition, errors can occur in the simulation or results, leading to incorrect conclusions or predictions.

3. How do scientists determine the appropriate uniform transmission condition for their system?

The appropriate uniform transmission condition for a system is determined by considering the physical properties and behavior of the system. Scientists use mathematical equations and models to analyze the system and determine the necessary conditions for proper energy or information transfer.

4. What are some common types of uniform transmission conditions?

Some common types of uniform transmission conditions include Dirichlet boundary conditions, Neumann boundary conditions, and mixed boundary conditions. These conditions dictate the behavior of the system at the boundaries and ensure a smooth transfer of energy or information.

5. Are there any challenges in finding a uniform transmission condition?

Yes, there can be challenges in finding a uniform transmission condition, particularly for complex systems. It requires a thorough understanding of the system and its behavior, as well as strong mathematical and computational skills. Additionally, some systems may have unique conditions that require specialized techniques to find an appropriate transmission condition.

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