The Lee-Tseung Lead Out Theory

[ltseung888]

In Mode 1 : (single pendulum swing in intended mode)

Step 4 ? Pendulum E acquires the Energy of Pendulum A and swings to the RHS.  The circular motion slows down until it is at the maximum displaced position on the RHS.

No horizontal force is applied during this step.  Thus no gravitational energy is lead out.  The same Integral can be used - Integral (Fr dot ds).  The starting position is Pendulum E at the lowest point and the ending position is the maximum displaced position on the RHS.

Fr is the resultant force at any time on the Bob of Pendulum A; ds is the displacement at the corresponding time; dot denotes vector mathematics.  This integral is a result of work = Force x Displacement.  Fr may vary at the different displacement points ds.  If we know the exact shape of the Fr function, we should be able to calculate the integral.  It does not matter whether the Pendulum Bob is accelerating, deceleration, stationary or in motion.

In this step, there are only two forces on Pendulum A.  They are Force due to Weight Fg and Force due to Tension of the String Fs.  Pendulum A will swing slower in a circular motion.  If there were no friction or air resistance, the total energy acquired by Pendulum E from Pendulum A (Etotal) remains unchanged.  Both the CoE and the Lee-Tseung predict and agree on this.

In the Lee-Tseung Theory, the best time to apply another Pulse Force is when Pendulum E is at its maximum displaced position.  The highest CoP is achieved not by a horizontal force but by a force tangential to the just stopped circular motion.

When Pendulum E stops to change direction, a Pulse Force can be applied as stated above.  This will further increase the Tension of the String.  Three Forces Fg, Fs and Fp are once more at work.  Gravitational Energy is again Lead Out.

When Gravitational Energy is Lead Out, the maximum displaced position of Pendulum E increases.  Both the additional Pulsed Energy and the Lead Out Gravitational Energy enter the Pendulum E system.

This is one way of producing the resonance condition as required in the Lee-Tseung Theory.

Lawrence Tseung
Pulling Pendulum E at its highest RHS position Leads Out resonance condition.

[tinu]

Such a collision is not considered a Pulse Force as required in the Lee-Tseung Theory.  It is only an energy transfer process.  No gravitational force will be Lead Out.

Lawrence Tseung
A Collision Process can be an Energy Transfer Process.  It is not a Pulse Force that Leads Out Gravitational Energy.

Finally, that?s a major conclusion!
It was about the right time for you to admit it.

It would be nice the agenda further includes a clear example of a Pulse Force as required by the Lee-Tseung Theory followed by a full mathematical analysis.

Tinu

[shruggedatlas]

Such a collision is not considered a Pulse Force as required in the Lee-Tseung Theory.  It is only an energy transfer process.  No gravitational force will be Lead Out.

Lawrence Tseung
A Collision Process can be an Energy Transfer Process.  It is not a Pulse Force that Leads Out Gravitational Energy.

What is the difference between a pulse force and a mere energy transfer process?  ANY physical application of pulse force is also an energy transfer process (I won't speculate about magentism here, because I am not knowledgable).  What more is required beyond a transfer of energy?  You yourself proudly cite an example where you punch a punching bag a few times, and then are surprised by the knock-back force.  You claim this knock-back force is an example of lead out energy at work.  Why do your few punches lead out energy, but my few pendulum knocks do not? 

It appears that make an arbitrary differentiation here but not in other situations in order to prevent my experiment from invalidating your theory.

[ltseung888]

Such a collision is not considered a Pulse Force as required in the Lee-Tseung Theory.  It is only an energy transfer process.  No gravitational force will be Lead Out.

Lawrence Tseung
A Collision Process can be an Energy Transfer Process.  It is not a Pulse Force that Leads Out Gravitational Energy.

What is the difference between a pulse force and a mere energy transfer process?  ANY physical application of pulse force is also an energy transfer process (I won't speculate about magentism here, because I am not knowledgable).  What more is required beyond a transfer of energy?  You yourself proudly cite an example where you punch a punching bag a few times,(*** Please note that I used the word push and not punch) and then are surprised by the knock-back force.  You claim this knock-back force is an example of lead out energy at work.  Why do your few punches lead out energy, but my few pendulum knocks do not? 

It appears that make an arbitrary differentiation here but not in other situations in order to prevent my experiment from invalidating your theory.

Dear Lawyer shruggedatlas,

Please note the seemingly innocent use of the word punch instead of push changes the physical process totally.

May be Mr. Entropy can enlighten you more.

[tinu]

It may follow another 30 pages from your side of ?Push/Punch Forces Leading Out Gravitational Energy? but take good care.

Once you admitted that pulse force is not of any good, the path ahead is very short, Mr. Tseung.

Tinu