1 kW zero point energy @ Peswiki.com

[neptune]

LATEST NEWS . Recieved an email from the Professor himself . He has agreed to answer some questions . Got to work now ,more later.

[neptune]

The professor is a very busy man , working 100 plus hours a week in medicine . He has no time to join us here . He asked me for a phone number so he could me and answer questions . I am not the ideal man for the job due to my limited mathematics . Could we elect a spokesperson such as Woopy , Lightrider ,Low-Q or anyone who is mathematically fluent . Send him an email with your phone number . c-w.turtur@ostfalia.de   but we need to agree a list of questions . Here are mine .
1 What is shape of coil , pancake?
2can it be redisigned with a commercial magnet {we need to agree a particular magnet]
3 Can it be designed to run at any frequency [is higher freq better?]
4 Material of magnet.
5 Can it be started by adjusting the magnet speed rather than the tuned circuit?
6 Will varying the resistance of the load cause detuning and stop the machine .
Feel free
to add questions .
I thought an Algorithm was a drunken dance!

[teslaalset]

All,

Prof. Turtur sent me usefull information on his work.
One of this is the Windows executable program of his simulation as posted in the article's appendix.

The program uses an additional parameter file where you can alter the parameters and then run the program again. Put both files in the same directory and it should just run fine.
The output is send to a text file that you can import to Excel.

Both files are attached. Double click the .exe file and a dos window opens with some output info.
I zipped both files because .exe and .dat files are not allowed to be uploaded here, so first unzip both files first before you use them.

B.t.w. I found a small glitch in his article.
The article discusses a motor with the dimensions of 9 x 6.8 cm and output of 1.07 KW.
However, in his simulation data he uses a coil of 9 x 1 cm.
Applying 6.8 cm coil hight in the parameter file results in 27.7 KW something.
So, a bit of parameter tuning is required to get more realistic values. The attached files can help doing that.

[LightRider]

All,

Prof. Turtur sent me usefull information on his work.
One of this is the Windows executable program of his simulation as posted in the article's appendix.

The program uses an additional parameter file where you can alter the parameters and then run the program again. Put both files in the same directory and it should just run fine.
The output is send to a text file that you can import to Excel.

Both files are attached. Double click the .exe file and a dos window opens with some output info.
I zipped both files because .exe and .dat files are not allowed to be uploaded here, so first unzip both files first before you use them.

B.t.w. I found a small glitch in his article.
The article discusses a motor with the dimensions of 9 x 6.8 cm and output of 1.07 KW.
However, in his simulation data he uses a coil of 9 x 1 cm.
Applying 6.8 cm coil hight in the parameter file results in 27.7 KW something.

So, a bit of parameter tuning is required to get more realistic values. The attached files can help doing that.

Hi teslaalset,
Thanks for the files.

The paper say (in the last conception) "...This magnet has to rotate inside a coil with "n" windings. All windings can be located at the same position in good approximation. Other then in section 5, this is a good approximation here, because the magnet interacts with the coil not by translation but by rotation..."

Maybe this wasn't a good approximation ?

Let's try this program !

LightRider

[LightRider]

Here is the english "google" translation (parameter only... just copy/past... save)

1600     {n:=number of turns of the coil}
0.09     {di:=spool diameter, m}
0.0010   {Dd:=wire diameter, m}
0.700    {Bo:=magnetic field (amplitude) of the permanent magnet, Tesla}
0.01     {ls:=length of the cylindrical coil body, meters}
0.23E-6   {C:=capacitance of the capacitor, farad}
0.039    {rm:=radius of the cylindrical permanent magnets, meters}
0.01     {dm:=thickness of the cylindrical permanent magnets, meters}
7.8E3    {rhom:=density of the magnetic material, iron, Kohlrausch vol.3 kg/m^3}
1.7E-8   {rho:=Spec Resistance of copper,  Ohm*m}
100      {UmAn:=Start value: revolutions per second at the start of the rotor}
28       {Rlast:=static load resistance, Ohm}
0.0001   {dt:=size of time steps, sec}
1        {Abstd:=What number = Everyone points to be plotted}

LightRider