Abstract: An apparatus for disinfecting a fluid has a fluid-containing structure; an inward-facing first electrically conductive cylindrical body contained within said fluid-containing structure; an outward-facing electrically conductive second cylindrical body disposed within said first cylindrical body, in mutually facing parallel and coaxial relation thereto, and spaced apart therefrom to define a fluid-occupiable cavity; a power supply electrically coupled between said first cylindrical body and said second cylindrical body, said power supply producing therebetween an electric field, the field having a waveform approximating a series of alternating square wave pulses of opposite polarity, said pulses having a maximum absolute value of approximately 60 volts per centimeter, a complete cycle of said waveform has a first pulse and a succeeding pulse of opposite polarity, recurring with a frequency of between about 1 kHz and and about 5 kHz and providing about 2 amps to about 4 amps.

Abstract: An apparatus for disinfecting a fluid has a fluid-containing structure; an inward-facing first electrically conductive cylindrical body contained within said fluid-containing structure; an outward-facing electrically conductive second cylindrical body disposed within said first cylindrical body, in mutually facing parallel and coaxial relation thereto, and spaced apart therefrom to define a fluid-occupiable cavity; a power supply electrically coupled between said first cylindrical body and said second cylindrical body, said power supply producing therebetween an electric field, said field comprising a waveform approximating a series of alternating square wave pulses of opposite polarity, said pulses having a maximum absolute value of approximately 60 volts per centimeter, a complete cycle of said waveform, comprising a first pulse and a succeeding pulse of opposite polarity, recurring with a frequency of between about 2 kHz and and about 5 kHz and providing about 2 amps to about 4 amps.

Abstract: An apparatus for disinfecting a fluid has a fluid-containing structure; an inward-facing first electrically conductive cylindrical body contained within said fluid-containing structure; an outward-facing electrically conductive second cylindrical body disposed within said first cylindrical body, in mutually facing parallel and coaxial relation thereto, and spaced apart therefrom to define a fluid-occupiable cavity; a power supply electrically coupled between said first cylindrical body and said second cylindrical body, said power supply producing therebetween an electric field, said field comprising a waveform approximating a series of alternating square wave pulses of opposite polarity, said pulses having a maximum absolute value of approximately 60 volts per centimeter, a complete cycle of said waveform, comprising a first pulse and a succeeding pulse of opposite polarity, recurring with a frequency of between about 2 kHz and and about 5 kHz and providing about 2 amps to about 4 amps.

Abstract: An apparatus for disinfecting a fluid has a fluid-containing structure; an inward-facing first electrically conductive cylindrical body contained within said fluid-containing structure; an outward-facing electrically conductive-second cylindrical body disposed within said first cylindrical body, in mutually facing parallel and coaxial relation thereto, and spaced apart therefrom to define a fluid-occupiable cavity; a power supply electrically coupled between said first cylindrical body and said second cylindrical body, said power supply producing therebetween an electric field, said field comprising a waveform approximating a series of alternating square wave pulses of opposite polarity, said pulses having a maximum absolute value of approximately 60 volts per centimeter, a complete cycle of said waveform, comprising a first pulse and a succeeding pulse of opposite polarity, recurring with a frequency of between about 2 kHz: and about 5 kHz and providing about 2 amps to about 4 amps.

Abstract: An electronic water treatment apparatus includes an electronic impulse generator and control box attached to a power source. An impulse chamber includes a cylindrical anode rod inside a tubular cathode and is connected to the impulse generator and control box with a low-voltage cable which is no more than about six feet long. The impulse generator and control box supply about 16 v DC power and 120-180 milliamps to the impulse chamber at between 2300 and 5200 Hertz. The discharge frequency within the impulse chamber automatically varies with the conductivity of the aqueous solution within the impulse chamber. The impulse generator and control box supply power with a waveform that includes about a two microsecond break between each positive and negative pulse to prevent corrosion of the electrodes and create the aragonite form of calcium carbonate instead of the calcite form.

Abstract: An apparatus for disinfecting a fluid has a fluid-containing structure; an inward-facing first electrically conductive cylindrical body contained within said fluid-containing structure; an outward-facing electrically conductive-second cylindrical body disposed within said first cylindrical body, in mutually facing parallel and coaxial relation thereto, and spaced apart therefrom to define a fluid-occupiable cavity; a power supply electrically coupled between said first cylindrical body and said second cylindrical body, said power supply producing therebetween an electric field, said field comprising a waveform approximating a series of alternating square wave pulses of opposite polarity, said pulses having a maximum absolute value of approximately 60 volts per centimeter, a complete cycle of said waveform, comprising a first pulse and a succeeding pulse of opposite polarity, recurring with a frequency of between about 2 kHz: and about 5 kHz and providing about 2 amps to about 4 amps.

Abstract: An electronic water treatment apparatus includes an electronic impulse generator and control box attached to a power source. An impulse chamber includes a cylindrical anode rod inside a tubular cathode and is connected to the impulse generator and control box with a low-voltage cable which is no more than about six feet long. The impulse generator and control box supply about 16v DC power and 70 milliamps to the impulse chamber at between 2300 and 5200 Hertz. The discharge frequency within the impulse chamber automatically varies with the conductivity of the aqueous solution within the impulse chamber. The impulse generator and control box supply power with a waveform that includes about a two microsecond break between each positive and negative pulse to prevent corrosion of the electrodes and create the aragonite form of calcium carbonate instead of the calcite form.

Abstract: An electronic water treatment apparatus includes an electronic impulse generator and control box attached to a power source. An impulse chamber includes a cylindrical anode rod inside a tubular cathode and is connected to the impulse generator and control box with a low-voltage cable which is no more than about six feet long. The impulse generator and control box supply about 16 v DC power and 120-180 milliamps to the impulse chamber at between 2300 and 5200 Hertz. The discharge frequency within the impulse chamber automatically varies with the conductivity of the aqueous solution within the impulse chamber. The impulse generator and control box supply power with a waveform that includes about a two microsecond break between each positive and negative pulse to prevent corrosion of the electrodes and create the aragonite form of calcium carbonate instead of the calcite form.

Abstract: The MPULSE 3000 System (fig C) sends a controlled high frequency (between 3125 and 4250 Times per second), a positive and negative low voltage Impulse between the stainless steel anode and cathode (see Fig B) to create a consistently changing electric Field. The Frequency, Voltage and Amperage are microchip controlled by the conductivity of the water. The MPULSE 3000 System (Fig C) controls the amount of the impulses (between 3125 and 4250 Times per second) utilized in the water to ensure the change from Calcium Bi-Carbonate to Calcium Carbonate and into the non-adherent Crystals (Aragonite). The formed Impulse (110 microsecond positive/32 microsecond break/110 microsecond negative/32 microsecond break), Voltage (16v) and Amperage (70 mA) are precisely calculated to insure that the stainless steel Anode and Cathode (see Fig B) in the water are complete stabilized and will not corrode.