The mechanical system comprises the turbine disc stack mounted on the shaft, inside the housing which is the environment boundary, and the slip rings for electrical connection. Water is the working fluid.
The energetic system comprises the electrical circuit, the disc stack which is acting as an electrolytic resistor, the slip rings, and the water which is the electrolyte.
The mechanical system is a rotating mass, and so when spinning at any given speed must have a resonant frequency, which can be measured. The energetic system is the electricity running through the circuit, whose frequency is a user set variable. Measure the constant frequency of one system, and adjust the variable frequency to match, and you have calibrated the system to be in resonance.
I designed the pulse width modulated slip ring for this application, when both frequencies are known, it synchronises the electrical pulses to the shaft rotation velocity to achieve desired resonant frequency and access to sub-harmonics in a fixed ratio.
Mechanical PWM Timed via Rotary Moment
This should allow you to pulse DC or AC electricity in the energetic system, to match the same frequency as the mechanical rotating mass, and stimulate the water to match frequency with the other two systems. Water is the working fluid in both systems. If the frequency the water moves too is favourable for a reaction, then the water will split, and we got something different to what we had before

Anyway, the whole point of that is that we are all attempting to do the same thing here, achieve resonance with water for energy. Here is a guy who tried before with a similar system to yours:
Andrija Puharich: Water Decomposition by AC Elecrolysis >
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