Distribution of corona igniter power signal

1. A corona discharge ignition system, comprising: a plurality of corona igniters; a control and drive electronics that directs energy from a power supply toward said corona igniters; a transformer disposed between said control and drive electronics unit and said plurality of corona igniters for receiving the energy from said control and drive electronics unit and increasing the voltage of the energy before directing an alternating current the toward said corona igniters, wherein said transformer is the only transformer in the system; a plurality of isolated switch controls each connected to said control and drive electronics unit and each connected to a separate one of said corona igniters for receiving a control signal from said control and drive electronics unit and allowing the energy from said transformer to travel to said one connected corona igniter in response to said control signal; a plurality of igniter switching units each connected to said transformer and each disposed between and connected to one of said isolated switch controls and said one connected corona igniter; each of said igniter switching units being activated and deactivated by said connected isolated switch control in response to said control signal for allowing the alternating current of the energy to travel from said transformer to said one connected corona igniter when said igniter switching unit is activated and for preventing the alternating current of the energy from traveling from said transformer to said one connected corona igniter and from said one connected corona igniter toward said transformer when said igniter switching unit is deactivated, and wherein only one of said igniter switching units is activated at any given time during operation of the system; and said one connected corona igniter receiving the alternating current of the energy from said transformer and oscillating at a resonant frequency and providing a corona discharge.

2. The corona discharge ignition system of claim 1 , wherein each of said igniter switching units is activated a plurality of times per second and is deactivated the remainder of each second during operation of the system.

3. The corona discharge ignition system of claim 1 , wherein the number of said isolated switch controls is equal to the number of said corona igniters, and the number of said igniter switching units is proportional to the number of said corona igniters.

4. The corona discharge ignition system of claim 1 including a transformer switching unit disposed between and connected to said control and drive electronics unit and said transformer, said transformer switching unit including a pair of transistors, only one of said transistors being activated at a time by said control and drive electronics unit for allowing current to travel from said control and drive electronics unit to said transformer, and said transformer switching unit preventing current from traveling from said control and drive electronics unit to said transformer when said transistors are deactivated by said control and drive electronics unit.

5. A corona discharge ignition system comprising: a plurality of corona igniters for receiving energy and emitting an alternating electrical field to provide a corona discharge: a control and drive electronics that directs energy from a power supply toward said corona igniters; a transformer disposed between said control and drive electronics unit and said plurality of corona igniters for receiving the energy from said control and drive electronics unit and increasing the voltage of the energy before directing the energy from said control and drive electronics unit toward said corona igniters: a plurality of isolated switch controls each connected to said control and drive electronics unit and each connected to a separate one of said corona igniters for receiving a control signal from said control and drive electronics unit and allowing the energy from said transformer to travel to said one connected corona igniter in response to said control signal: a plurality of igniter switching units each connected to said transformer and each disposed between and connected to one of said isolated switch controls and said one connected corona igniter: each of said igniter switching units being activated and deactivated by said connected isolated switch control in response to said control signal for allowing current to travel from said transformer to said one connected corona igniter when said igniter switching unit is activated and for preventing current from traveling from said transformer to said one connected corona igniter and from said one connected corona igniter toward said transformer when said igniter switching unit is deactivated, and wherein only one of said igniter switching units is activated at any given time during operation of the system

a transformer switching unit disposed between and connected to said control and drive electronics unit and said transformer, said transformer switching unit including a pair of transistors, only one of said transistors being activated at a time by said control and drive electronics unit for allowing current to travel from said control and drive electronics unit to said transformer, and said transformer switching unit preventing current from traveling from said control and drive electronics unit to said transformer when said transistors are deactivated by said control and drive electronics unit; and wherein one of said transistors is activated while corona discharge is being provided, and each of said transistors is activated once every half cycle corresponding to the resonant frequency of said corona igniters to provide current to said transformer at times causing said corona igniters to oscillate at their resonant frequency.

6. The corona discharge ignition system of claim 5 , wherein when said transistors are activated, said transistors are activated a plurality of times per second and more times per second than said igniter switching units and are deactivated the remainder of each second during operation of the system.

7. The corona discharge ignition system of claim 1 , wherein at least one of said igniter switching units includes a pair of transistors, wherein one of said transistors is for preventing current from traveling from said transformer to said one connected corona igniter and the other one of said transistors is for preventing current from traveling from said one connected corona igniter toward said transformer.

8. The corona discharge ignition system of claim 1 , wherein at least one of said igniter switching units includes a triode for alternating current (TRIAC) for preventing the current from traveling from said transformer to said one connected corona igniter and for preventing the current from traveling from said one connected corona igniter toward said transformer.

9. The corona discharge ignition system of claim 1 , wherein at least one of said igniter switching units includes a gallium nitride (GaN) transistor for preventing current from traveling from said transformer to said one connected corona igniter and for preventing current from traveling from said one connected corona igniter toward said transformer.

10. A corona discharge ignition system, comprising: a plurality of corona igniters; a control and drive electronics that directs energy from a power supply toward said corona igniters; a transformer disposed between said control and drive electronics unit and said corona igniters for receiving the energy from said control and drive electronics unit and directing an alternating current of the energy toward said corona igniters, wherein said transformer is the only transformer in the system; a plurality of electromechanical relays each connected to said control and drive electronics unit and to said transformer and each connected to a separate one of said corona igniters for receiving a control signal from said control and drive electronics unit and for allowing the alternating current of the energy from said transformer to travel to said one connected corona igniter in response to the control signal;

each of said electromechanical relays including an igniter switching unit being activated and deactivated in response to the control signal for allowing the alternating current of the energy to travel from said transformer to said one connected corona igniter when said igniter switching unit is activated and preventing the alternating current of the energy from traveling from said transformer to said one connected corona igniter and from said one connected corona igniter toward said transformer when said igniter switching unit is deactivated, and wherein only one of said igniter switching units is activated at any given time: and said one connected corona igniter receiving the alternating current of the energy from said transformer and oscillating at a resonant frequency and providing a corona discharge.

11. The corona discharge ignition system of claim 10 , wherein each of said electromechanical relays includes a coil electrically isolated from said igniter switching unit for receiving the control signal and activating said igniter switching unit in response to the control signal.

12. The corona discharge ignition system of claim 10 , wherein no current travels through said electromechanical relays to or from said corona igniters when said igniter switching units of said electromechanical relays connected to said corona igniters are switching on to become activated or switching off to become deactivated.

13. A corona discharge ignition system, comprising: a plurality of corona igniters for receiving energy and oscillating at a resonant frequency and emitting an alternating electrical field to provide a corona discharge;

each of said corona igniters including an electrode for receiving the energy and emitting the electrical field providing the corona discharge, each of said electrodes being surrounded by an insulator, and each of said insulators being surrounded by a shell formed of metal; a power supply for providing the energy ultimately to said corona igniters; a control and drive electronics that directs energy from said power supply and directing the energy toward said corona igniters; a single transformer disposed between said control and drive electronics unit and said corona igniters for receiving the energy from said control and drive electronics unit and directing the energy from said control and drive electronics unit toward said corona igniters, wherein said single transformer is the only transformer in the system; said transformer receiving the energy in the form of a direct current and amplifying the voltage up to 2.5 kilovolts (peak to peak) and reducing the current of the energy prior to directing the energy in the form of an alternating current toward said corona igniters; a transformer switching unit including a pair of transistors disposed between and connected to said control and drive electronics unit and said transformer for allowing current to travel from said control and drive electronics unit to said transformer when one of said transistors is activated by said control and drive electronics unit and for preventing current from traveling from said control and drive electronics unit to said transformer when said transistors of said transformer switching unit is deactivated by said control and drive electronics unit; each of said transistors of said transformer switching unit being activated once every half cycle corresponding to the resonant frequency of said corona igniter to provide the current to said transformer at times causing said corona igniters to oscillate at their resonant frequency;

each of said transistors of said transformer switching unit being activated a plurality of times per second and being deactivated the remainder of each second during operation of the system; a plurality of isolated switch controls each connected to said control and drive electronics unit and each connected to a separate one of said corona igniters for receiving a control signal from said control and drive electronics unit and for allowing the energy from said transformer to travel to said one connected corona igniter in response to the control signal; the control and drive electronics unit transmitting the control signal to only one of said isolated switch controls at any given time during operation of the system; the number of isolated switch controls equaling the number of corona igniters; a plurality of igniter switching units each disposed between and connected to one of said isolated switch controls and said one connected corona igniter; each of said igniter switching units being activated and deactivated by said isolated switch controls in response to said control signal; each of said igniter switching units being connected to said single transformer for allowing the current to travel from said single transformer to said one connected corona igniter when said igniter switching unit is activated; each of said igniter switching units being capable of preventing the current from traveling from said transformer to said connected corona igniter and from said one connected corona igniter toward said transformer when said igniter switching unit is deactivated; each of said igniter switching units being activated a plurality of times per second and fewer times per second than said transistors of said transformer switching unit and being deactivated the remainder of each second during operation of the system;

the number of said igniter switching units proportional to the number of said corona igniters; and only one of said igniter switching units being activated at any given time during operation of the system.

14. The system of claim 13 , wherein at least one of said igniter switching units includes a pair of transistors, said isolated switch control isolates said transistors from the control signal, and wherein one of said transistors prevents current from traveling from said transformer to said one connected corona igniter and the other one of said transistors prevents current from traveling from said one connected corona igniter toward said transformer when said igniter switching unit is deactivated.

15. The system of claim 13 , wherein at least one of said igniter switching units includes a triode for alternating current (TRIAC) preventing current from traveling from said transformer to said one connected corona igniter and preventing current from traveling from said one connected corona igniter toward said transformer when said igniter switching unit is deactivated.

16. The system of claim 13 , wherein at least one of said igniter switching units includes a gallium nitride (GaN) transistor preventing current from traveling from said transformer to said one connected corona igniter and preventing current from traveling from said one connected corona igniter toward said transformer when said igniter switching unit is deactivated.

17. A method for operating a corona discharge ignition system, comprising the steps of:

providing energy from a power supply to a control and drive electronics unit;

transferring the energy from the control and drive electronics unit toward a plurality of corona igniters;

increasing the voltage of the energy using a transformer before transferring the energy from the control and drive electronics unit toward the plurality of corona igniters, wherein the transformer is the only transformer in the system;

providing a plurality of igniter switching units each connected to the transformer and to a separate one of the corona igniters;

activating the igniter switching units to convey an alternating current of the energy from the transformer through the igniter switching units to the plurality of corona igniters and deactivating the igniter switching units to prevent the alternating current of the energy from traveling to and from the connected corona igniters; and

the step of activating the igniter switching units including activating only one of the igniter switching units and conveying the alternating current of the energy to only one of the corona igniters at any given time during operation of the system such that the one corona igniter receives the alternating current of the energy and oscillates at a resonant frequency and provides a corona discharge.

18. The method of claim 17 , wherein the step of activating only one of the igniter switching units is in response to a control signal from the control and drive electronics unit.

19. The method of claim 17 , wherein the step of activating the igniter switching units includes activating each of the igniter switching units a plurality of times per second and the step of deactivating the igniter switching units includes deactivating each igniter switching units for the remainder of each second during operation of the system.

20. The method of claim 17 including the step of providing the energy from the control and drive electronics unit to the transformer for increasing the voltage of the energy before transferring the energy from the control drive and electronics unit toward the plurality of corona igniters;

providing a transformer switching unit including a pair of transistors for allowing current to travel from the control and drive electronics unit to the transformer when one of the transistors of the transformer switching unit is activated by the control and drive electronics unit and for preventing current from traveling from the control and drive electronics unit to the transformer when the transistors of the transformer switching unit are deactivated by the control and drive electronics unit; and

activating the transistors of the transformer switching unit a plurality of times per second and more times per second than the igniter switching units and deactivating the transistors of the transformer switching unit the remainder of each second during operation of the system.