Hey I like your program. I see the armature has 12 armature slots. can one be done with 14 slots. You can see why there is a need for the slots in the case. Very well done.
Yes one could be done with 14 slots but it took me a day and a half to do the one with12 slots hehe, Im not fast yet with the CAD program and yes the effect of magnetic separation can be seen.
The mounting of the of the motor coils must be close to that of magnetic north and not geographical north as in a standard motor. looks good.
Not sure what you mean.
I did work with the coils some yesterday. By moving them 90 degrees against rotatation it wont rotate. But byslowly bringing them back with rotation it will start to rotate. Finding the best spot for it to start spinning. When i put the generator coil in, It then wouldnt rotate. It would if i would give it a little help. Then it would start rotating.
The odd thing was , when I put in the gen coil in the drag on the armatur was quite noticeable..Both ends of the coil werent connected to anything.
So I connected one end of the gen coil to the output of the motor coil going to the positive brush through a 12 volt bulb. One way it would slow the motor down even more. Reversing the connections then the motor would pick up and spin quite fast with the bulb glowing.
The motor is in magnetic lock with a small torque being created by the flux passing through the generator coils so the motor action will not be powerful and we know the motor would not self start. The load on the generator may cancel the motoring action so the resistance of the load will be critical. You need to have the power and generator coils in position to get the magnetic circuit. By adding coils to the motoring circuit we will effect the motoring action but we are looking to get a balance between motoring and generation.
The residual magnetisim in the gen coil feild pole has quite an effect on the armature. May try to slot the case right behind the gen coil to check the effect.
I used to think residual magnetism played a part in the device but now I am not sure. The length of the slot may also be very important, so if you slot it, don't make the slot too big to start with.
your program should make this show up how the flux travels through the armatur from this gen coil.
This is really getting Interesting Now . So we can see what is going on.
Yes it is a good program isn't it
The armature is a standard delco version no modifications. There is one positive brush and one negative brush. I believe it is lap wound. All one continous wire.
Continuity to all commutator bars from one to the other. So I dont know if it would be classified as a 2 pole or what. Maybe IM misunderstanding what you mean on the armatures------Need specfic clarification. If its a 2 brush then it a 2 pole? ------Right or wrong.
Yes you are exactly right with a lap wound rotor.
i can add the other 2 brushes like the lockridge had, most any time we need. but the armature first is what i need to understand. I tend to forget things in between times working on them.
I do agree the wave wound armature is really prone to sparking. some of the armature modifications i have played with, theres a ball of fire about half the size of a dime coming off the brushes. It eats the commutator up in short order.
The two extra brushes in the lockridge are to collect the inductive kickback from the armature preventing the arcing. If we use an external commutator this collection will be done there using a lap wound armature. If we use a wave wound armature I think it would be necessary to have the extra brushes but we can cross that bridge when we get to it. For now let us stick to the standard motor generator.
With the two power coils and the armature energized in the same direction, experiment with brush placement to see if we can get a small motoring action under DC current. When you do, measure the current and voltage in the generator coils when they are connected to a bulb. Once you have a motoring action adjust the brushes to where you have maximum voltage from the generator coils. This should be close to the optimum position for the brushes.
Then power the motor under half wave rectified AC and measure the voltage and current from the generator coils. It should be more than the DC input gave for the same motor speed. Of course it is likely that the motor speed will be slower and the current input lower with the half wave rectification so you may have to increase the voltage input to make the comparison.
These are important measurements as it could confirm if the generated voltage and current are added to he transformer voltage and current. If we do get a voltage and/or current greater than the input across the field power coils then we have proven the additive effect.
The easiest way to do this is have the power coils and the armature in parallel, then measure the input current and voltage to one of the power field coils. Then measure the voltage and current in the generator coil.
By doing this we are comparing one field coil with one generator coil and from the results we may be able to calculate the ratio of the input field coils to the output field coils and so the number of turns required on the output.
I know this will be exciting once we get the motor to turn but it is important
not to get ahead of ourselves in the testing. Lets take it one step at a time.
First is the motor action
Second the generator action
Third is the transformer action
Next is the comutator and brushes
fifth is the pulse circuit
Sixth is the recovery
seventh is the capacitor size
eighth is the trifilar coil
I don't think we will have overunity until all the stages are completed and tuned, we are doing stage one now, once we have a motor action we move onto stage two and at this point we have to consider the function of the slotted case so be patient as any errors could result in failure.