System for separating liquids and solids

A system for separating liquids and solids comprising a treatment tank in which at least two conductive electrodes are immersed at a ratio of 0.25 m2 electrode surface area per cubic meter of tank capacity, the electrodes being connected to a solid-state electronic device the solid-state electronic device is connected to a power source and comprises an algorithm that controls the programming of the system and the conductive electrodes the solid-state electronic device being capable of generating electronic signals that are emitted by the electrodes at frequencies, between 1 Hz and 250 Hz, and their corresponding even subharmonics and wherein the liquid to be separated has a minimum conductivity of 2 mS/m wherein the solid-state electronic device comprises:

• a control module with microcontroller and peripherals in which the algorithm is stored and in which different oscillator frequencies are generated for each duty cycles of the system, where the operating frequency and duty cycle information are received from a voltage adaptive programming module, and where the trigger control signals to be used by a module are generated;
• a battery-backed power supply module to supply energy to the modules, and in which current is transformed from alternating current to direct current, a battery is to supply energy to all the modules, a programming and voltage adaptation module, wherein different operation modes are programmed externally without accessing a microcontroller through integrated programming switches, and wherein voltages required for operation of the microcontroller are developed, adapted, and the power supply providing the trigger signals to a power module;
• the power module connected to the conductive electrodes, and having at least four independent channels mounted on a terminal strip, wherein each channel has a set of transistors activated by signals generated by an integrated control element and adapted through programming and voltage adaptation module, where signals from the power module are isolated from the integrated control element, and the power module has an optical isolation function through optocouplers;
• and an algorithm to control the different modules, wherein the system generates energy pulses of less than 2 milliseconds within each duty cycle and wherein the system operates under six programs that are integrated and related to each other, and the algorithm performs a frequency inversion.