The Experts below are selected from a list of 46551 Experts worldwide ranked by ideXlab platform
Michal Jablonski - One of the best experts on this subject based on the ideXlab platform.
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printed Circuit Board technology inspired stretchable Circuits
Mrs Bulletin, 2012Co-Authors: Jan Vanfleteren, Ingo Wolf, Y. Y. Hsu, Thomas Vervust, Frederick Bossuyt, M. González, Michal JablonskiAbstract:In the past 15 years, stretchable electronic Circuits have emerged as a new technology in the domain of assembly, interconnections, and sensor Circuit technologies. In the meantime, a wide variety of processes using many different materials have been explored in this new fi eld. In the current contribution, we present an approach inspired by conventional rigid and fl exible printed Circuit Board (PCB) technology. Similar to PCBs, standard packaged, rigid components are assembled on copper contact pads using lead-free solder refl ow processes. Stretchability is obtained by shaping the copper tracks as horseshoe-shaped meanders. Elastic materials, predominantly polydimethylsiloxanes, are used to embed the conductors and the components, thus serving as a Circuit carrier. We describe mechanical modeling, aimed at optimizing the build-up toward maximum mechanical reliability of the structures. Details on the production process, reliability assessment, and a number of functional demonstrators are described.
Jan Vanfleteren - One of the best experts on this subject based on the ideXlab platform.
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printed Circuit Board technology inspired stretchable Circuits
Mrs Bulletin, 2012Co-Authors: Jan Vanfleteren, Ingo Wolf, Y. Y. Hsu, Thomas Vervust, Frederick Bossuyt, M. González, Michal JablonskiAbstract:In the past 15 years, stretchable electronic Circuits have emerged as a new technology in the domain of assembly, interconnections, and sensor Circuit technologies. In the meantime, a wide variety of processes using many different materials have been explored in this new fi eld. In the current contribution, we present an approach inspired by conventional rigid and fl exible printed Circuit Board (PCB) technology. Similar to PCBs, standard packaged, rigid components are assembled on copper contact pads using lead-free solder refl ow processes. Stretchability is obtained by shaping the copper tracks as horseshoe-shaped meanders. Elastic materials, predominantly polydimethylsiloxanes, are used to embed the conductors and the components, thus serving as a Circuit carrier. We describe mechanical modeling, aimed at optimizing the build-up toward maximum mechanical reliability of the structures. Details on the production process, reliability assessment, and a number of functional demonstrators are described.
S.c. Tang - One of the best experts on this subject based on the ideXlab platform.
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planar printed Circuit Board transformers with effective electromagnetic interference emi shielding
2002Co-Authors: Ron Shu Yuen Hui, S.c. TangAbstract:Novel designs for printed Circuit Board transformers, and in particular for coreless printed Circuit Board transformers designed for operation in power transfer applications, are disclosed in which shielding is provided by a combination of ferrite plates and thin copper sheets.
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characterization of coreless printed Circuit Board pcb transformers
IEEE Transactions on Power Electronics, 2000Co-Authors: S.c. Tang, S. Y. Hui, H.s.h. ChungAbstract:In this paper, coreless printed-Circuit-Board transformers are characterized. A range of coreless printed Circuit Board (PCB) transformers with different geometric parameters have been fabricated and tested. Based on a recently reported analytic method, the self inductance of these transformers is calculated. This analytical method is also extended to cover the prediction of the transformers' mutual inductance. All calculated parameters have been confirmed with measurements for the frequency range from 100 kHz to 30 MHz. These results provide useful information for the optimal design of coreless PCB transformers.
Ingo Wolf - One of the best experts on this subject based on the ideXlab platform.
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printed Circuit Board technology inspired stretchable Circuits
Mrs Bulletin, 2012Co-Authors: Jan Vanfleteren, Ingo Wolf, Y. Y. Hsu, Thomas Vervust, Frederick Bossuyt, M. González, Michal JablonskiAbstract:In the past 15 years, stretchable electronic Circuits have emerged as a new technology in the domain of assembly, interconnections, and sensor Circuit technologies. In the meantime, a wide variety of processes using many different materials have been explored in this new fi eld. In the current contribution, we present an approach inspired by conventional rigid and fl exible printed Circuit Board (PCB) technology. Similar to PCBs, standard packaged, rigid components are assembled on copper contact pads using lead-free solder refl ow processes. Stretchability is obtained by shaping the copper tracks as horseshoe-shaped meanders. Elastic materials, predominantly polydimethylsiloxanes, are used to embed the conductors and the components, thus serving as a Circuit carrier. We describe mechanical modeling, aimed at optimizing the build-up toward maximum mechanical reliability of the structures. Details on the production process, reliability assessment, and a number of functional demonstrators are described.
M. González - One of the best experts on this subject based on the ideXlab platform.
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printed Circuit Board technology inspired stretchable Circuits
Mrs Bulletin, 2012Co-Authors: Jan Vanfleteren, Ingo Wolf, Y. Y. Hsu, Thomas Vervust, Frederick Bossuyt, M. González, Michal JablonskiAbstract:In the past 15 years, stretchable electronic Circuits have emerged as a new technology in the domain of assembly, interconnections, and sensor Circuit technologies. In the meantime, a wide variety of processes using many different materials have been explored in this new fi eld. In the current contribution, we present an approach inspired by conventional rigid and fl exible printed Circuit Board (PCB) technology. Similar to PCBs, standard packaged, rigid components are assembled on copper contact pads using lead-free solder refl ow processes. Stretchability is obtained by shaping the copper tracks as horseshoe-shaped meanders. Elastic materials, predominantly polydimethylsiloxanes, are used to embed the conductors and the components, thus serving as a Circuit carrier. We describe mechanical modeling, aimed at optimizing the build-up toward maximum mechanical reliability of the structures. Details on the production process, reliability assessment, and a number of functional demonstrators are described.