Method and system for modeling of magnet cryogen cooler systems
원문보기
IPC분류정보
국가/구분
United States(US) Patent
등록
국제특허분류(IPC7판)
G05B-011/01
G01B-003/44
G01B-003/38
G01B-003/52
G01B-003/46
G06F-015/00
G06F-017/40
출원번호
UP-0723938
(2003-11-26)
등록번호
US-7515973
(2009-07-01)
발명자
/ 주소
Chan, Peter
출원인 / 주소
GE Medical Systems, Inc.
대리인 / 주소
Fletcher Yoder
인용정보
피인용 횟수 :
1인용 특허 :
2
초록▼
According to one embodiment, the present technique provides a method for servicing an imaging device having a cryogenic cooling system. In the exemplary embodiment, servicing of an MRI scanner may be scheduled via a model correlating a measured condition of the MRI scanner's cryogenic cooling system
According to one embodiment, the present technique provides a method for servicing an imaging device having a cryogenic cooling system. In the exemplary embodiment, servicing of an MRI scanner may be scheduled via a model correlating a measured condition of the MRI scanner's cryogenic cooling system to a kind of imaging device event. According to another embodiment, the present technique provides a method for developing a model for predicting a cryogenic cooling system event by analyzing data from a population of similar cryogenic cooling systems.
대표청구항▼
What is claimed is: 1. A method for servicing an imaging device having a cryogenic cooling system, comprising: receiving first data representative of at least one condition of the cryogenic cooling system; receiving second data correlative of the at least one condition to an imaging device event; a
What is claimed is: 1. A method for servicing an imaging device having a cryogenic cooling system, comprising: receiving first data representative of at least one condition of the cryogenic cooling system; receiving second data correlative of the at least one condition to an imaging device event; and developing a projection regarding possible occurrence of the imaging device event with respect to the imaging device via the first and second data. 2. The method as recited in claim 1, comprising developing the projection via a model. 3. The method as recited in claim 1, comprising receiving data representative of a plurality of conditions of the cryogenic cooling system. 4. The method as recited in claim 1, comprising scheduling service for the imaging device based upon the projection. 5. The method as recited in claim 1, comprising requesting service of the imaging device based upon the projection. 6. The method as recited in claim 1, comprising estimating an interval of time until the possible occurrence of imaging device event in the imaging device via the projection. 7. A computer readable medium comprising code for servicing an imaging device having a cryogenic cooling system, the computer readable medium being located on one or more tangible media, comprising: code for receiving first data representative of at least one condition of the cryogenic cooling system; code for receiving second data correlative of the at least one condition to an imaging device event; and code for developing a projection regarding possible occurrence of the imaging device event with respect to the imaging device via the first and second data. 8. A service scheduling system for use with an imaging device having a cryogenic cooling system, comprising: means for receiving first data representative of at least one condition of the cryogenic cooling system; means for receiving second data correlative of the at least one condition to an imaging device event; and means for developing a projection regarding possible occurrence of the imaging device event with respect to the imaging device via the first and second data. 9. A method for servicing a cryogenic cooling system, comprising: receiving first data representative of at least one parameter related to the cryogenic cooling system; receiving second data correlating the first data to a model time interval related to a possible occurrence of a cryogenic cooling system event; and determining a probabilistic time interval until the possible occurrence of the cryogenic cooling system event in the cryogenic cooling system via the second data. 10. The method as recited in claim 9, comprising requesting service of the cryogenic cooling system such that the service occurs prior to lapse of the probabilistic time interval. 11. The method as recited in claim 9, comprising coordinating maintenance of a further system such that maintenance of the further system occurs prior to lapse of the probabilistic time interval. 12. The method as recited in claim 9, comprising coordinating routine maintenance of at least one of the cryogenic cooling system and a further system to occur prior to lapse of the probabilistic time interval. 13. The method as recited in claim 12, comprising coordinating service of the cryogen cooling system with the routine maintenance of at least one of the cryogenic cooling system and the further system. 14. The method as recited in claim 9, wherein the at least one parameter relates to a heating element of the cryogenic cooling system. 15. The method as recited in claim 9, wherein the at least one parameter relates to cryogen pressure with respect to the cryogenic cooling system. 16. A computer readable medium comprising code for servicing a cryogenic cooling system, the computer readable medium being located on one or more tangible media, comprising: code for receiving first data representative of at least one parameter related to the cryogenic cooling system; code for receiving second data correlating the first data to a model time interval related to a possible occurrence of a cryogenic cooling system event; and code for determining a probabilistic time interval until the possible occurrence of the cryogenic cooling system event in the cryogenic cooling system via the second data. 17. A service scheduling system for use with a cryogenic cooling system, comprising: means for receiving first data representative of at least one parameter related to the cryogenic cooling system; means for receiving second data correlating the first data to a model time interval related to a possible occurrence of a cryogenic cooling system event; and means for determining a probabilistic time interval until the possible occurrence of the cryogenic cooling system event in the cryogenic cooling system via the second data. 18. A method for developing a probabilistic model of a cryogenic cooling system event, comprising: collecting a first set of condition data from a population of cryogenic cooling systems; analyzing the first set of condition data to produce correlated data correlating the first set of condition data to occurrences of a cryogenic cooling system event in the population of cryogenic cooling system; and analyzing the correlated data to produce a model for providing a projection for a possible occurrence of the cryogenic cooling system event in a further cryogenic cooling system based upon the correlated data and a second set of condition data from the further cryogenic cooling system. 19. The method as recited in claim 18, wherein the condition data relates to a heater duty cycle at the cryogenic cooling system. 20. The method as recited in claim 18, wherein the cryogenic cooling system event is a loss of superconductivity in a magnet of the cryogenic cooling system. 21. The method as recited in claim 18, wherein the projection includes a time interval until the possible occurrence of the cryogenic cooling system event in the further cryogenic cooling system. 22. The method as recited in claim 21, comprising determining a maintenance schedule for the further cryogenic cooling system based upon the time interval until the possible occurrence of the cryogenic cooling system event in the further cryogenic cooling system. 23. A computer readable medium comprising code for developing a model for serving of a cryogenic cooling system, the computer readable medium being located on one or more tangible media, comprising: code for collecting a first set of condition data from a population of cryogenic cooling systems; code for analyzing the first set of condition data to produce correlated data correlating the first set of condition data to occurrences of a cryogenic cooling system event in the population of cryogenic cooling system; and code for analyzing the correlated data to produce a model for providing a projection for a possible occurrence of the cryogenic cooling system event in a further cryogenic cooling system based upon the correlated data and a second set of condition data from the further cryogenic cooling system. 24. A scheduling system for a cryogenic cooling system, comprising: means for collecting a first set of condition data from a population of cryogenic cooling systems; means for analyzing the first set of condition data to produce correlated data correlating the first set of condition data to occurrences of a cryogenic cooling system event in the population of cryogenic cooling system; and means for analyzing the correlated data to produce a model for providing a projection for a possible occurrence of the cryogenic cooling system event in a further cryogenic cooling system based upon the correlated data and a second set of condition data from the further cryogenic cooling system. 25. A method for developing a probabilistic model of an imaging device event in an imaging device having a cryogen cooling system, comprising: collecting a first set of data from a population of imaging devices, wherein the first set of data contains information regarding the condition of the cryogenic cooling systems of the population of the imaging devices; collecting a second set of data from the population of imaging devices, wherein the second set of data contains information regarding occurrences of imaging device events in the population of the imaging devices; analyzing the first and second sets of data to produce correlated data correlating the first and second sets of data; and analyzing the correlated data to produce a model for providing a projection of the possible occurrence of the imaging device event in a further imaging device based upon the correlated data and a third set of data from the cryogenic cooling system of the further imaging device. 26. A computer readable medium comprising code for developing a probabilistic model for servicing an imaging device having a cryogenic cooling system, the computer readable medium being located on one or more tangible media, comprising: code for collecting a first set of data from a population of imaging devices, wherein the first set of data contains information regarding the condition of the cryogenic cooling systems of the population of the imaging devices; code for collecting a second set of data from the population of imaging devices, wherein the second set of data contains information regarding occurrences of imaging device events in the population of the imaging devices; code for analyzing the first and second sets of data to produce correlated data correlating the first and second sets of data; and code for analyzing the correlated data to produce a model for providing a projection of the possible occurrence of the imaging device event in a further imaging device based upon the correlated data and a third set of data from the cryogenic cooling system of the further imaging device. 27. A scheduling system for an imaging device having a cryogenic cooling system, comprising: means for collecting a first set of data from a population of imaging devices, wherein the first set of data contains information regarding the condition of the cryogenic cooling systems of the population of the imaging devices; means for collecting a second set of data from the population of imaging devices, wherein the second set of data contains information regarding occurrences of imaging device events in the population of the imaging devices; means for analyzing the first and second sets of data to produce correlated data correlating the first and second sets of data; and means for analyzing the correlated data to produce a model for providing a projection of the possible occurrence of the imaging device event in a further imaging device based upon the correlated data and a third set of data from the cryogenic cooling system of the further imaging device.
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이 특허에 인용된 특허 (2)
Duckert,David Wayne; Anstedt,Howard Jerome, Customized medical equipment preventative maintenance method and system.
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