Feedthrough filter capacitor assembly with internally grounded hermetic insulator
원문보기
IPC분류정보
국가/구분
United States(US) Patent
등록
국제특허분류(IPC7판)
H01G-004/35
H01G-004/236
H01G-004/228
출원번호
US-0161730
(2005-08-15)
발명자
/ 주소
Stevenson,Robert A.
출원인 / 주소
Greatbatch Sierra, Inc.
대리인 / 주소
Kelly Lowry &
인용정보
피인용 횟수 :
208인용 특허 :
7
초록▼
A feedthrough filter capacitor assembly includes a conductive terminal pin which extends through a first passageway of a capacitor in conductive relation with a first set of electrode plates, and through a conductive ferrule and an insulator in non-conductive relation. The insulator includes ground
A feedthrough filter capacitor assembly includes a conductive terminal pin which extends through a first passageway of a capacitor in conductive relation with a first set of electrode plates, and through a conductive ferrule and an insulator in non-conductive relation. The insulator includes ground plates conductively coupled to the ferrule. A second set of electrode plates of the capacitor are conductively coupled to the insulator ground plates, such as by a ground pin extending through the capacitor in relation with the second set of electrode plates, and at least partially extending through a second passageway of the insulator in conductive relation with the ground plates. In this manner, the exterior electrical/mechanical connection between the capacitor and ferrule or other ground member is eliminated.
대표청구항▼
What is claimed is: 1. A feedthrough filter capacitor assembly, comprising: a conductive terminal pin; a feedthrough filter capacitor having first and second sets of electrode plates, a first passageway through which the terminal pin extends in conductive relation with the first set of electrode pl
What is claimed is: 1. A feedthrough filter capacitor assembly, comprising: a conductive terminal pin; a feedthrough filter capacitor having first and second sets of electrode plates, a first passageway through which the terminal pin extends in conductive relation with the first set of electrode plates; a conductive ferrule through which the terminal pin extends in non-conductive relation; an insulator having a first passageway through which the terminal pin extends in non-conductive relation, and a ground plate conductively coupled to the ferrule; and means for conductively coupling the capacitor second set of electrode plates and the insulator ground plate. 2. The assembly of claim 1, wherein the insulator ground plate comprises a set of ground plates. 3. The assembly of claim 2, wherein the coupling means includes a conductive material pin at least partially extending through a second passageway of the capacitor in conductive relation with the second set of electrode plates, and at least partially extending through a second passageway of the insulator in conductive relation with the set of ground plates. 4. The assembly of claim 3, wherein the conductive material comprises a ground pin, a ground wire, a solder material, a conductive thermal setting material, a weld, a braze, a conductive glass, or a conductive spring coil. 5. The assembly of claim 1, wherein the ferrule is conductively coupled to a housing for an active implantable medical device. 6. The assembly of claim 5, wherein the active implantable medical device is a cardiac pacemaker, an implantable defibrillator, a congestive heart failure device, a hearing implant, a cochlear implant, a neurostimulator, a drug pump, a ventricular assist device, an insulin pump, a spinal cord stimulator, an implantable sensing system, a deep brain stimulator, an artificial heart, an incontinence device, a vagus nerve stimulator, a bone growth stimulator, a gastric pacemaker, or a prosthetic device. 7. The assembly of claim 1, including an inductor through which the terminal pin extends in non-conductive relation. 8. The assembly of claim 7, wherein the inductor comprises a ferrite inductor slab. 9. The assembly of claim 7, wherein the inductor is disposed adjacent to the capacitor. 10. The assembly of claim 9, wherein the inductor is disposed between the capacitor and the insulator. 11. The assembly of claim 1, wherein an outer peripheral surface of the capacitor is non-conductive. 12. The assembly of claim 1, wherein the insulator comprises an alumina insulator. 13. The assembly of claim 1, wherein the insulator ground plate extends to a conductive outer peripheral surface of the insulator. 14. The assembly of claim 13, wherein the conductive outer peripheral surface of the insulator is conductively coupled to the ferrule. 15. The assembly of claim 1, wherein the capacitor and insulator are disposed adjacent to each other and separated by a non-conductive material. 16. A feedthrough filter capacitor assembly, comprising: a conductive terminal pin; a feedthrough filter capacitor having first and second sets of electrode plates, a first passageway through which the terminal pin extends in conductive relation with the first set of electrode plates; a conductive ferrule through which the terminal pin extends in non-conductive relation; an insulator having a first passageway through which the terminal pin extends in non-conductive relation, and a ground plate conductively coupled to the ferrule; and a conductive material at least partially extending through a second passageway of the capacitor in conductive relation with the second set of electrode plates and at least partially extending through a second passageway of the insulator in conductive relation with the ground plate, for conductively coupling the capacitor second set of electrode plates and the ground plate. 17. The assembly of claim 16, wherein the conductive material comprises a ground pin, a ground wire, a solder material, a conductive thermal setting material, a weld, a braze, a conductive glass, or a conductive spring coil. 18. The assembly of claim 16, wherein the ferrule is conductively coupled to a housing for an active implantable medical device. 19. The assembly of claim 18, wherein the active implantable medical device is a cardiac pacemaker, an implantable defibrillator, a congestive heart failure device, a hearing implant, a cochlear implant, a neurostimulator, a drug pump, a ventricular assist device, an insulin pump, a spinal cord stimulator, an implantable sensing system, a deep brain stimulator, an artificial heart, an incontinence device, a vagus nerve stimulator, a bone growth stimulator, a gastric pacemaker, or a prosthetic device. 20. The assembly of claim 16, including an inductor through which the terminal pin extends in non-conductive relation. 21. The assembly of claim 20, wherein the inductor comprises a ferrite inductor slab. 22. The assembly of claim 20, wherein the inductor is disposed adjacent to the capacitor. 23. The assembly of claim 22, wherein the inductor is disposed between the capacitor and the insulator. 24. The assembly of claim 16, wherein an outer peripheral surface of the capacitor is non-conductive. 25. The assembly of claim 16, wherein the insulator comprises an alumina insulator. 26. The assembly of claim 16, wherein the insulator ground plate extends to a conductive outer peripheral surface of the insulator which is conductively coupled to the ferrule. 27. The assembly of claim 16, wherein the capacitor and insulator are disposed adjacent to each other and separated by a non-conductive material. 28. The assembly of claim 16, wherein the insulator ground plate comprises a set of ground plates. 29. A feedthrough filter capacitor assembly, comprising: a conductive terminal pin; a feedthrough filter capacitor having first and second sets of electrode plates, and a first passageway through which the terminal pin extends in conductive relation with the first set of electrode plates; a conductive ferrule conductively coupled to a housing for an active implantable medical device and through which the terminal pin extends in non-conductive relation; an insulator having a first passageway through which the terminal pin extends in non-conductive relation, and a ground plate extending to a conductive outer peripheral surface of the insulator that is conductively coupled to the ferrule; and a conductive material at least partially extending through a second passageway of the capacitor in conductive relation with the second set of electrode plates, and at least partially extending through a second passageway of the insulator in conductive relation with the ground plate for conductively coupling the second set of electrode plates and the ferrule. 30. The assembly of claim 29, wherein the conductive material comprises a ground pin, a ground wire, a solder material, a conductive thermal setting material, a weld, a braze, a conductive glass, or a conductive spring coil. 31. The assembly of claim 29, wherein the active implantable medical device is a cardiac pacemaker, an implantable defibrillator, a congestive heart failure device, a hearing implant, a neurostimulator, a drug pump, a ventricular assist device, an insulin pump, a spinal cord stimulator, an implantable sensing system, a deep brain stimulator, an artificial heart, an incontinence device, a vagus nerve stimulator, a bone growth stimulator, a gastric pacemaker, or a prosthetic device. 32. The assembly of claim 29, including an inductor through which the terminal pin extends in non-conductive relation. 33. The assembly of claim 32, wherein the inductor comprises a ferrite inductor slab. 34. The assembly of claim 32, wherein the inductor is disposed adjacent to the capacitor. 35. The assembly of claim 34, wherein the inductor is disposed between the capacitor and the insulator. 36. The assembly of claim 29, wherein an outer peripheral surface of the capacitor is non-conductive. 37. The assembly of claim 29, wherein the insulator comprises an alumina insulator. 38. The assembly of claim 29, wherein the capacitor and insulator are disposed adjacent to each other and separated by a non-conductive material.
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이 특허에 인용된 특허 (7)
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Hamam, Rafif E.; Karalis, Aristeidis; Joannopoulos, John D.; Soljacic, Marin, Efficient near-field wireless energy transfer using adiabatic system variations.
Stevenson, Robert A.; Dabney, Warren S.; Frysz, Christine A.; Truex, Buehl E.; Halperin, Henry R.; Lardo, Albert C., Frequency selective passive component networks for active implantable medical devices utilizing an energy dissipating surface.
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Deininger, Steven T.; Baade, Michael J.; Iyer, Rajesh V., Implantable medical devices and related connector enclosure assemblies utilizing conductors electrically coupled to feedthrough pins.
Bottomley, Paul A.; Karmarkar, Parag V.; Allen, Justin M.; Edelstein, William A., MRI and RF compatible leads and related methods of operating and fabricating leads.
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Karmarkar, Parag V.; Bottomley, Paul A.; Allen, Justin M.; Edelstein, William A.; Piferi, Peter; Gore, Brian, Methods and apparatus for fabricating leads with conductors and related flexible.
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Brosnan, William M.; Iyer, Rajesh V.; Johnstone, George C.; Tettemer, Susan A.; Thom, Andrew J., Methods for simultaneously brazing a ferrule and lead pins.
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Brendel, Richard L.; Woods, Jason; Lorente-Adame, Jose Luis; Stevenson, Robert A.; Roberts, John; Truex, Buehl E., Process for manufacturing EMI filters utilizing counter-bored capacitors to facilitate solder re-flow.
Seitz, Keith W.; Rensel, Dallas J.; Hohl, Brian P.; Calamel, Jonathan; Tang, Xiaohong; Stevenson, Robert A.; Frysz, Christine A.; Marzano, Thomas; Woods, Jason; Brendel, Richard L., Process for manufacturing a leadless feedthrough for an active implantable medical device.
Kesler, Morris P.; Alinger, Dustin J.; Twelker, Karl; Atasoy, Oguz; Vora, Shrenik; Katz, Noam, RFID tag and transponder detection in wireless energy transfer systems.
Kesler, Morris P.; Kulikowski, Konrad; Lou, Herbert Toby; Hall, Katherine L.; Fiorello, Ron; Verghese, Simon; Kurs, Andre B.; Karalis, Aristeidis; Campanella, Andrew J., Safety systems for wireless energy transfer in vehicle applications.
Kesler, Morris P.; Kurs, Andre B.; Karalis, Aristeidis; Soljacic, Marin; Hall, Katherine L.; Campanella, Andrew J.; Kulikowski, Konrad, Secure wireless energy transfer for vehicle applications.
Kesler, Morris P.; Hall, Katherine L.; Karalis, Aristeidis; Kurs, Andre B.; Soljacic, Marin; Kulikowski, Konrad; Campanella, Andrew J., Secure wireless energy transfer in medical applications.
Hall, Katherine L.; Kulikowski, Konrad J.; Kesler, Morris P.; Kurs, Andre B.; Ganem, Steven J.; Schatz, David A.; Giler, Eric R., System for wireless energy distribution in a vehicle.
John, Michael Sasha; Hall, Katherine L.; Kulikowski, Konrad J.; Kesler, Morris P.; Kurs, Andre B.; Roy, Arunanshu M.; Guckaya, Gozde, Systems and methods for wireless power system with improved performance and/or ease of use.
John, Michael Sasha; Hall, Katherine L.; Kulikowski, Konrad J.; Kesler, Morris P.; Kurs, Andre B.; Roy, Arunanshu M.; Guckaya, Gozde, Systems and methods for wireless power system with improved performance and/or ease of use.
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Kesler, Morris P.; Kurs, Andre B.; Karalis, Aristeidis; Soljacic, Marin; Hall, Katherine L.; Campanella, Andrew J., Tunable wireless energy transfer for in-vehicle applications.
Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Schatz, David A.; Kesler, Morris P.; Hall, Katherine L.; Giler, Eric R.; Soljacic, Marin, Tunable wireless energy transfer for outdoor lighting applications.
Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P., Wireless energy transfer across variable distances using field shaping with magnetic materials to improve the coupling factor.
Joannopoulos, John D.; Karalis, Aristeidis; Soljacic, Marin, Wireless energy transfer across variable distances with high-Q capacitively-loaded conducting-wire loops.
Kurs, Andre B.; Karalis, Aristeidis; Kesler, Morris P.; Campanella, Andrew J.; Hall, Katherine L.; Kulikowski, Konrad J.; Li, Qiang; Soljacic, Marin, Wireless energy transfer for computer peripheral applications.
Kesler, Morris P.; Hall, Katherine L.; Kurs, Andre B.; Karalis, Aristeidis; Soljacic, Marin; Campanella, Andrew J.; Schatz, David A., Wireless energy transfer for implantable devices.
Kesler, Morris P.; Hall, Katherine L.; Kurs, Andre B.; Karalis, Aristeidis; Soljacic, Marin; Campanella, Andrew J.; Schatz, David A., Wireless energy transfer for implantable devices.
Kesler, Morris P.; Hall, Katherine L.; Kurs, Andre B.; Karalis, Aristeidis; Soljacic, Marin; Campanella, Andrew J.; Schatz, David A., Wireless energy transfer for implantable devices.
Kesler, Morris P.; Hall, Katherine L.; Kurs, Andre B.; Karalis, Aristeidis; Soljacic, Marin; Campanella, Andrew J.; Schatz, David A., Wireless energy transfer for implantable devices.
Kesler, Morris P.; Hall, Katherine L.; Giler, Eric R.; Kulikowski, Konrad J.; Campanella, Andrew J.; Verghese, Simon, Wireless energy transfer for photovoltaic panels.
Kesler, Morris P.; Hall, Katherine L.; Giler, Eric R.; Kulikowski, Konrad J.; Campanella, Andrew J.; Verghese, Simon, Wireless energy transfer for photovoltaic panels.
Schatz, David A.; Karalis, Aristeidis; Hall, Katherine L.; Kesler, Morris P.; Soljacic, Marin; Giler, Eric R.; Kurs, Andre B.; Kulikowski, Konrad J., Wireless energy transfer for supplying power and heat to a device.
Kurs, Andre B.; Karalis, Aristeidis; Soljacic, Marin; Hall, Katherine L.; Kesler, Morris P.; Campanella, Andrew J., Wireless energy transfer for vehicles.
Verghese, Simon; Efe, Volkan; Kesler, Morris P.; Kurs, Andre B.; Karalis, Aristeidis; McCauley, Alexander Patrick; Hijarrubia, Maria Empar Rollano, Wireless energy transfer modeling tool.
Verghese, Simon; Efe, Volkan; Kesler, Morris P.; Kurs, Andre B.; Karalis, Aristeidis; McCauley, Alexander Patrick; Hijarrubia, Maria Empar Rollano, Wireless energy transfer modeling tool.
Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P., Wireless energy transfer over distance using field shaping to improve the coupling factor.
Joannopoulos, John D.; Karalis, Aristeidis; Soljacic, Marin, Wireless energy transfer over variable distances between resonators of substantially similar resonant frequencies.
Kesler, Morris P.; Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Fiorello, Ron; Li, Qiang; Kulikowski, Konrad J.; Giler, Eric R.; Schatz, David A.; Hall, Katherine L.; Soljacic, Marin, Wireless energy transfer resonator kit.
Kesler, Morris P.; Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Fiorello, Ron; Li, Qiang; Kulikowski, Konrad; Giler, Eric R.; Pergal, Frank J.; Schatz, David A.; Hall, Katherine L.; Soljacic, Marin, Wireless energy transfer systems.
Kurs, Andre B.; Karalis, Aristeidis; Kesler, Morris P.; Campanella, Andrew J.; Hall, Katherine L.; Kulikowski, Konrad J.; Li, Qiang; Soljacic, Marin, Wireless energy transfer systems.
Kurs, Andre B.; Karalis, Aristeidis; Kesler, Morris P.; Campanella, Andrew J.; Hall, Katherine L.; Kulikowski, Konrad J.; Li, Qiang; Soljacic, Marin, Wireless energy transfer systems.
Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P.; Karalis, Aristeidis, Wireless energy transfer using conducting surfaces to shape field and improve K.
Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P.; Karalis, Aristeidis, Wireless energy transfer using conducting surfaces to shape fields and reduce loss.
Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P., Wireless energy transfer using field shaping to reduce loss.
Schatz, David A.; Karalis, Aristeidis; Hall, Katherine L.; Kesler, Morris P.; Soljacic, Marin; Giler, Eric R.; Kurs, Andre B.; Kulikowski, Konrad J., Wireless energy transfer using high Q resonators for lighting applications.
Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P., Wireless energy transfer using magnetic materials to shape field and reduce loss.
Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P., Wireless energy transfer using object positioning for improved k.
Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P., Wireless energy transfer using object positioning for low loss.
Giler, Eric R.; Hall, Katherine L.; Kesler, Morris P.; Soljacic, Marin; Karalis, Aristeidis; Kurs, Andre B.; Li, Qiang; Ganem, Steven J., Wireless energy transfer using repeater resonators.
Kurs, Andre B.; Karalis, Aristeidis; Kesler, Morris P.; Campanella, Andrew J.; Hall, Katherine L.; Kulikowski, Konrad J.; Soljacic, Marin, Wireless energy transfer using variable size resonators and system monitoring.
Kurs, Andre B.; Karalis, Aristeidis; Kesler, Morris P.; Campanella, Andrew J.; Hall, Katherine L.; Kulikowski, Konrad J.; Soljacic, Marin, Wireless energy transfer using variable size resonators and system monitoring.
Kurs, Andre B.; Karalis, Aristeidis; Kesler, Morris P.; Campanella, Andrew J.; Hall, Katherine L.; Kulikowski, Konrad J.; Soljacic, Marin, Wireless energy transfer using variable size resonators and system monitoring.
Kurs, Andre B.; Karalis, Aristeidis; Kesler, Morris P.; Campanella, Andrew J.; Hall, Katherine L.; Kulikowski, Konrad J.; Soljacic, Marin, Wireless energy transfer using variable size resonators and systems monitoring.
Schatz, David A.; Lou, Herbert T.; Kesler, Morris P.; Hall, Katherine L.; Kulikowski, Konrad J.; Giler, Eric R.; Fiorello, Ron, Wireless energy transfer with feedback control for lighting applications.
Schatz, David A.; Karalis, Aristeidis; Hall, Katherine L.; Kesler, Morris P.; Soljacic, Marin; Giler, Eric R.; Kurs, Andre B.; Kulikowski, Konrad J., Wireless energy transfer with frequency hopping.
Karalis, Aristeidis; Kurs, Andre B.; Campanella, Andrew J.; Kulikowski, Konrad J.; Hall, Katherine L.; Soljacic, Marin; Kesler, Morris P., Wireless energy transfer with high-Q resonators using field shaping to improve K.
Kesler, Morris P.; Hall, Katherine L.; Fiorello, Ron; Feldstein, Michael Alan; Efe, Volkan; Kulikowski, Konrad; Kurs, Andre B., Wireless energy transfer with multi resonator arrays for vehicle applications.
Kurs, Andre B.; Kesler, Morris P.; Hall, Katherine L.; Karalis, Aristeidis; Verghese, Simon; Efe, Volkan; Soljacic, Marin; McCauley, Alexander P.; Hijarrubia, Maria Empar Rollano, Wireless energy transfer with reduced fields.
Kesler, Morris P.; Hall, Katherine L.; Campanella, Andrew J.; Karalis, Aristeidis; Kurs, Andre B.; Soljacic, Marin; Kulikowski, Konrad, Wireless energy transfer with resonator arrays for medical applications.
Kesler, Morris P.; Hall, Katherine L.; Kulikowski, Konrad; Karalis, Aristeidis; Kurs, Andre B.; Soljacic, Marin; Campanella, Andrew J.; Efe, Volkan, Wireless energy transfer with variable size resonators for implanted medical devices.
Hall, Katherine L.; Efe, Volkan; Kesler, Morris P.; Campanella, Andrew J.; Karalis, Aristeidis; Kurs, Andre B.; Soljacic, Marin; Kulikowski, Konrad, Wireless energy transfer with variable size resonators for medical applications.
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