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公开(公告)号:US20190236240A1
公开(公告)日:2019-08-01
申请号:US16383683
申请日:2019-04-15
Applicant: I-SHOU UNIVERSITY
Inventor: Yu-Jung Huang , Chung-Long Pan , Mei-Hui Guo
IPC: G06F17/50 , G06N20/00 , G06F11/22 , G06F11/263
Abstract: A defect detection method for a multilayer daisy chain structure, including: generating a plurality of physical models having a defect of at least one defect type based on the at least one defect type of a daisy chain structure; generating a group of training samples for each of the physical models; generating a classifier model by using a machine learning technique algorithm via scattering parameter values of a training set; measuring an error value by comparing scattering parameter values of a testing set with the classifier model, using the classifier model as a defect model of the defect type based on the error value, and determining that the multilayer daisy chain has a defect corresponding to the at least one defect type by comparing actual measurements of scattering parameter values.
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公开(公告)号:US09748621B2
公开(公告)日:2017-08-29
申请号:US14983635
申请日:2015-12-30
Applicant: I-SHOU UNIVERSITY
Inventor: Chung-Long Pan , Rong-Ching Wu , Tsu-Chung Tan
IPC: H01P1/203
CPC classification number: H01P1/20363
Abstract: A step impedance resonator filter including a first resonator and a second resonator is disclosed. The first resonator includes a first coupled line and a first tapped line connected to the first coupled line. The second resonator includes a second coupled line and a second tapped line connected to the second coupled line. The second coupled line is coupled with the first coupled line. The first tapped line has a first central line which is spaced from an end face of the first coupled line at a first distance. The second tapped line has a second central line which is spaced from an end face of the second coupled line at a second distance. The first distance is larger than the second distance. As such, the performance of the step impedance resonator filter can be improved.
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公开(公告)号:US10776559B2
公开(公告)日:2020-09-15
申请号:US16383683
申请日:2019-04-15
Applicant: I-SHOU UNIVERSITY
Inventor: Yu-Jung Huang , Chung-Long Pan , Mei-Hui Guo
IPC: G06F30/398 , G06F11/263 , G06F11/22 , G06N20/00
Abstract: A defect detection method for a multilayer daisy chain structure, including: generating a plurality of physical models having a defect of at least one defect type based on the at least one defect type of a daisy chain structure; generating a group of training samples for each of the physical models; generating a classifier model by using a machine learning technique algorithm via scattering parameter values of a training set; measuring an error value by comparing scattering parameter values of a testing set with the classifier model, using the classifier model as a defect model of the defect type based on the error value, and determining that the multilayer daisy chain has a defect corresponding to the at least one defect type by comparing actual measurements of scattering parameter values.
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公开(公告)号:US10303823B2
公开(公告)日:2019-05-28
申请号:US15604671
申请日:2017-05-25
Applicant: I-SHOU UNIVERSITY
Inventor: Yu-Jung Huang , Chung-Long Pan , Shih-Chun Lin , Mei-Hui Guo
Abstract: A defect detection method for a 3D chip and a system using the same are provided. The method includes: generating a plurality of physical models having a defect of at least one defect type based on the at least one defect type of a 3D chip; generating a group of training samples for each of the physical models; generating a classifier model by using a machine learning technique algorithm via scattering parameter values of a training set; measuring an error value by comparing scattering parameter values of a testing set with the classifier model, using the classifier model as a defect model of the defect type based on the error value, and determining that a Through Silicon Via of a single die 3D chip or a stacked die 3D chip has a defect corresponding to the at least one defect type by comparing actual measurements of scattering parameter values.
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公开(公告)号:US20180285493A1
公开(公告)日:2018-10-04
申请号:US15604671
申请日:2017-05-25
Applicant: I-SHOU UNIVERSITY
Inventor: Yu-Jung Huang , Chung-Long Pan , Shih-Chun Lin , Mei-Hui Guo
CPC classification number: G06F17/5009 , G06F17/5081 , G06N99/005
Abstract: A defect detection method for a 3D chip and a system using the same are provided. The method includes: generating a plurality of physical models having a defect of at least one defect type based on the at least one defect type of a 3D chip; generating a group of training samples for each of the physical models; generating a classifier model by using a machine learning technique algorithm via scattering parameter values of a training set; measuring an error value by comparing scattering parameter values of a testing set with the classifier model, using the classifier model as a defect model of the defect type based on the error value, and determining that a Through Silicon Via of a single die 3D chip or a stacked die 3D chip has a defect corresponding to the at least one defect type by comparing actual measurements of scattering parameter values.
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公开(公告)号:US09774068B2
公开(公告)日:2017-09-26
申请号:US14983648
申请日:2015-12-30
Applicant: I-SHOU UNIVERSITY
Inventor: Chung-Long Pan , Rong-Ching Wu , Tsu-Chung Tan
CPC classification number: H03H7/38 , H01P1/20363
Abstract: A filter configuration including a substrate, a primary microstrip line and a first defected ground structure is disclosed. The substrate has a first face and a second face. The second face is a ground face. The primary microstrip line is arranged on the first face and extends in a first direction. The first defected ground structure is arranged on the second face. The first defected ground structure includes a first section, a first circular section, a second section, a second circular section and a third section that are connected to each other in sequence in a second direction perpendicular to the first direction. The second section is covered by the primary microstrip line in a vertical direction perpendicular to the first and second faces. The primary microstrip line has a width equal to a minimum length of the second section. As such, the filtering effect can be improved.
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公开(公告)号:US20190222071A1
公开(公告)日:2019-07-18
申请号:US16039240
申请日:2018-07-18
Applicant: I-SHOU UNIVERSITY
Inventor: Chung-Long Pan , Rong-Ching Wu , Wei-Cheng Lin , You-Hua Jiang
Abstract: A wireless power transmission system is provided. The wireless power transmission system includes a transmitting antenna and a receiving antenna. The transmitting antenna is coupled to a power source device, and the transmitting antenna is a Yagi-Uda antenna. The transmitting antenna receives a first power signal provided by the power source device and transmits a power radiation signal toward a first direction. The receiving antenna is coupled to a rectifier, the rectifier is coupled to a power receiver, and the receiving antenna is a Yagi-Uda antenna. The receiving antenna has a predetermined distance from the transmitting antenna. The receiving antenna receives the power radiation signal and converts the power radiation signal into a second power signal. The rectifier converts the second power signal into a third power signal and transmits the third power signal to the power receiver.
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公开(公告)号:US20170194684A1
公开(公告)日:2017-07-06
申请号:US14983648
申请日:2015-12-30
Applicant: I-SHOU UNIVERSITY
Inventor: Chung-Long Pan , Rong-Ching Wu , Tsu-Chung Tan
IPC: H01P1/203
CPC classification number: H03H7/38 , H01P1/20363
Abstract: A filter configuration including a substrate, a primary microstrip line and a first defected ground structure is disclosed. The substrate has a first face and a second face. The second face is a ground face. The primary microstrip line is arranged on the first face and extends in a first direction.The first defected ground structure is arranged on the second face. The first defected ground structure includes a first section, a first circular section, a second section, a second circular section and a third section that are connected to each other in sequence in a second direction perpendicular to the first direction. The second section is covered by the primary microstrip line in a vertical direction perpendicular to the first and second faces. The primary microstrip line has a width equal to a minimum length of the second section. As such, the filtering effect can be improved.
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