The Lee-Tseung Lead Out Theory

[teslaalset]

An attempt to illustrate my understanding of the Lead Out principle in such setup is depicted below. It represents a rim with just one magnet (indicated by the green block). This causes the mechanical unbalance.
The setup has 2 coils : one drawn on the top being the drive coils, one at the bottom being the output coil with a fixed load.

Just before state 1 the drive coil is pulsed by the Proximity Switch (PS). It attracts the magnet shortly so speed is building up again.
Due to the weight unbalance the wheel will further accelerate.
In state 3 power is consumed at the highest speed moment.

Speed variation is indicated by the blue, yellow and red arrow near the magnet. Blue is slow speed, yellow is medium speed (speed in phase 2 is higher compared to phase 4), red is high speed.
The load must not be chosen to high, because it will slow down the wheel to much.

By smart adjusting the PS, input power at just before phase 1 is less than output power at phase 3 ?

[ltseung888]

An attempt to illustrate my understanding of the Lead Out principle in such setup is depicted below. It represents a rim with just one magnet (indicated by the green block). This causes the mechanical unbalance.
The setup has 2 coils : one drawn on the top being the drive coils, one at the bottom being the output coil with a fixed load.

Just before state 1 the drive coil is pulsed by the Proximity Switch (PS). It attracts the magnet shortly so speed is building up again.
Due to the weight unbalance the wheel will further accelerate.
In state 3 power is consumed at the highest speed moment.

Speed variation is indicated by the blue, yellow and red arrow near the magnet. Blue is slow speed, yellow is medium speed (speed in phase 2 is higher compared to phase 4), red is high speed.
The load must not be chosen to high, because it will slow down the wheel to much.

By smart adjusting the PS, input power at just before phase 1 is less than output power at phase 3 ?

Almost correct.  You should use magnetic repulsion instead of attraction to provide the Pulsing Force.

In addition, you should not switch on the Collector Coil at the start.  You should allow the Pulsing Coil to Pulse for a little while to build up rotational speed before switching on the Collector Coil to draw current.  You can collect more current (or energy) at a higher speed of rotation.

You can use variable load to tune for best COP.

One more improvement.  Instead of putting the magnet at the rim of a fixed diameter wheel, put it at the tip of a rod attached to a small wheel.  You can change the length of the rod to produce effective different diameter wheels.

With that as the base, you can add more magnets and more coils.  The secret of the Tong Po Chi Lead-Out Energy device is totally revealed.  The rest are improvements.

[teslaalset]

Lawrence, thanks for confirming.
It starts getting clearer now.

Now it is also clear to me why different loads have different COP values.
In fact each specific load has its own specific PS position. This is best managed by intelligent electronics (e.g. microcontroller and acceleration detection).

One more thing that is not clear to me:
You mentioned your large demo machine has 16 magnets and 15 coils.
So, the 16 magnets are evenly distributed at the rim of that unit?
In that case you only have magnetic unbalance. Is that correct?

[ltseung888]

One more thing that is not clear to me:
You mentioned your large demo machine has 16 magnets and 15 coils.
So, the 16 magnets are evenly distributed at the rim of that unit?
In that case you only have magnetic unbalance. Is that correct?

Correct.  But we played with other configurations - by removing one or more magnets. 

[ltseung888]

Plans for the work on Tuesday Nov 17, 2009

Dear Prof. Chong,

Mr. Tong and I shall arrive the Tsing Yi Campus at around 2 pm.

We hope to accomplish the following:

1.   Use the Oscilloscope to check the Input Voltage.  See whether it fits our predictions.
2.   Check the AC Component of the Input Voltage.  See if it can be used to recharge the battery.
3.   Check whether we can charge a 6V battery from our Wheel.  If so, check whether we can use two 6 V batteries to replace a 12 V one.
4.   Put in 5A fuses at appropriate places to protect the Wheel.
5.   Set up the configuration that is likely to demonstrate the 2, 4, 8, 16 type loopback feature.  The likely one is a pair of 3 collector coils in series.  The pair itself is in parallel.  The expected output voltage on no load is expected to exceed 18V.  When the battery is used as load, the voltage should drop to above 12V.

Please see if you can provide two 6V rechargeable batteries, some 5A fuses for 12V and oscilloscope.

Thank you and looking forward to successful results.

Lawrence