Wirelessly powered electrodynamic combustion control system
원문보기
IPC분류정보
국가/구분
United States(US) Patent
등록
국제특허분류(IPC7판)
F23N-005/00
F23C-099/00
출원번호
US-0144431
(2013-12-30)
등록번호
US-9441834
(2016-09-13)
발명자
/ 주소
Colannino, Joseph
Krichtafovitch, Igor A.
Anderson, Kraig K.
Wiklof, Christopher A.
Bennett, II, Harold H.
출원인 / 주소
CLEARSIGN COMBUSTION CORPORATION
대리인 / 주소
Wiklof, Christopher A.
인용정보
피인용 횟수 :
13인용 특허 :
39
초록▼
A combustion system includes an electrodynamic combustion control system that provided for electrical control of a combustion reaction. Energy is received wirelessly, and electrical energy is generated from the wirelessly received energy. The electrical energy is applied to the combustion reaction i
A combustion system includes an electrodynamic combustion control system that provided for electrical control of a combustion reaction. Energy is received wirelessly, and electrical energy is generated from the wirelessly received energy. The electrical energy is applied to the combustion reaction in order to control or regulate operation of first and/or second electrodes configured to apply the energy to the combustion reaction.
대표청구항▼
1. A combustion system, comprising: an electrodynamic combustion control system, including: an energy transmitter configured to transmit energy in a wireless form;an energy receiver, separate from the energy transmitter, configured to wirelessly receive the energy transmitted from the energy transmi
1. A combustion system, comprising: an electrodynamic combustion control system, including: an energy transmitter configured to transmit energy in a wireless form;an energy receiver, separate from the energy transmitter, configured to wirelessly receive the energy transmitted from the energy transmitter and convert the received energy to a form of electrical energy; anda first electrode operatively coupled to the energy receiver and configured to apply a portion of the electrical energy to a combustion reaction. 2. The combustion system of claim 1, wherein the electrodynamic combustion control system includes a voltage module operatively coupled between the energy receiver and the first electrode and configured to modify the electrical energy. 3. The combustion system of claim 2, wherein the electrodynamic combustion control system includes a controller configured to control operation of the voltage module. 4. The combustion system of claim 2, wherein the voltage module is configured to regulate a voltage of the electrical energy. 5. The combustion system of claim 2, wherein the voltage module is configured to rectify a voltage of the electrical energy. 6. The combustion system of claim 2, wherein the voltage module is configured to convert the electrical energy to a time-varying voltage signal. 7. The combustion system of claim 1, wherein the energy receiver includes a photoelectric transducer. 8. The combustion system of claim 1, wherein the energy receiver includes an inductor configured to inductively couple with an inductive energy transmitter. 9. The combustion system of claim 1, wherein the energy receiver is configured to capacitively couple with an energy transmitter. 10. The combustion system of claim 1, wherein the energy receiver includes a microwave receiver. 11. The combustion system of claim 1, wherein the electrodynamic combustion control system includes a power source configured to provide power to the energy transmitter. 12. The combustion system of claim 11, wherein the electrodynamic combustion control system includes a controller operatively coupled to the power source and configured to modify the power provided by the power source to the energy transmitter. 13. The combustion system of claim 1, wherein the energy transmitter is configured to transmit photonic energy, and the energy receiver includes a photoelectric transducer configured to convert photonic energy to electrical energy. 14. The combustion system of claim 1, wherein the energy transmitter includes a first inductive element and the energy receiver includes a second inductive element spaced apart from the first inductive element, the first and second inductive elements being configured to couple electromagnetically. 15. The combustion system of claim 14, wherein the first inductive element includes a first plurality of coils and the second inductive element includes a second plurality of coils, the first plurality being greater than the second plurality. 16. The combustion system of claim 1, comprising a combustion chamber defined in part by a partition, and wherein the partition is positioned between the energy transmitter and the energy receiver. 17. The combustion system of claim 16, wherein the first electrode includes the energy receiver. 18. The combustion system of claim 16, wherein the energy receiver is configured to couple inductively with the energy transmitter. 19. The combustion system of claim 1, wherein the first electrode is configured to act as a flame holder. 20. The combustion system of claim 1, wherein the electrodynamic combustion control system includes a second electrode operatively coupled to the energy receiver and configured to apply a respective portion of the electrical energy to the combustion reaction. 21. The combustion system of claim 1, comprising a burner nozzle operatively coupled to the energy receiver, a portion of the burner nozzle being configured to act as the second electrode. 22. A combustion system, comprising: a combustion chamber configured to contain a combustion reaction;a burner nozzle configured to support the combustion reaction;an energy transmitter positioned outside the combustion chamber and configured to wirelessly transmit energy into the combustion chamber; andan energy receiver positioned inside the combustion chamber and configured to wirelessly receive the transmitted energy and to produce therefrom a form of electrical energy, the electrical energy being sufficient to control an aspect of the combustion reaction by application of a portion of the transmitted energy to the combustion reaction. 23. The combustion system of claim 22, comprising a combustion control module. 24. The combustion system of claim 23, wherein the combustion control module includes the energy receiver being configured to wirelessly receive the transmitted energy and to produce therefrom the electrical energy, anda first electrode configured to apply electrical energy to the combustion reaction. 25. The combustion system of claim 24, wherein the combustion control module includes a voltage module operatively coupled to the energy receiver and the first electrode, and configured to modify the electrical energy produced by the energy receiver and to provide modified electrical energy to the first electrode. 26. The combustion system of claim 23, wherein the energy transmitter is configured to transmit the energy by inductive coupling with the combustion control module. 27. The combustion system of claim 23, wherein the energy transmitter is configured to transmit the energy by capacitive coupling with the combustion control module. 28. The combustion system of claim 23, wherein the energy transmitter is configured to transmit the energy by optical coupling with the combustion control module. 29. The combustion system of claim 22, wherein the energy transmitter is configured to transmit the energy as a microwave signal. 30. A method, comprising: wirelessly transmitting energy from outside the combustion chamber;wirelessly receiving the energy from within a combustion chamber; andapplying a portion of the received energy as a form of electrical energy to a combustion reaction within the combustion chamber. 31. The method of claim 30, comprising wirelessly transmitting the energy through a partition of the combustion chamber. 32. The method of claim 30, wherein the wirelessly transmitting the energy includes generating a signal by induction, and the wirelessly receiving energy includes receiving the generated signal by induction. 33. The method of claim 30, wherein the wirelessly transmitting the energy includes applying an electrostatic signal to a first conductive element, and the wirelessly receiving energy includes receiving the energy from a second conductive element that is capacitively coupled with the first conductive element. 34. The method of claim 30, wherein the wirelessly transmitting the energy includes generating and transmitting an optical signal, and the wirelessly receiving energy includes receiving the transmitted optical signal and converting the received optical signal to electrical energy. 35. The method of claim 30, wherein the wirelessly transmitting the energy includes generating and transmitting a microwave signal, and the wirelessly receiving energy includes receiving the microwave signal.
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