Elena Pucci
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Elena Pucci has a total of 12 co-authors. Here are the top co-authors by number of shared publications:
Ahmed Kishk
Department of Electrical and Computer Engineering Concordia University Montreal Quebec Canada
1 shared publicationAshraf Uz Zaman
Department of Signals and Systems Chalmers University of Technology SE‐41296 Gothenburg Sweden
1 shared publication- Ashraf Uz Zaman
Chalmers University of Technology
1 shared publication - Eva Rajo-Iglesias
Department of Signal Theory and Communication, University Carlos III of Madrid, Madrid, Spain
1 shared publication - Hasan Raza
Department of Signals and Systems Chalmers University of Technology S‐41296 Gothenburg Sweden
1 shared publication - Per Lundgren
Chalmers University of Technology
1 shared publication
Latest Publications
- Open Access
- 1 August 2013
- Published by Institution of Engineering and Technology (IET) in IET Microwaves, Antennas & Propagation
- Vol. 7 (11) , 900-908
Study of Q ‐factors of ridge and groove gap waveguide resonators
The gap waveguide technology for millimeter waves applications has been recently presented. The new structure is made by generating a parallel plate cut‐off region between an artificial magnetic conductor (AMC) and a metallic plate. Propagating waves will be only allowed to follow a metal ridge or groove surrounded by the AMC. The gap waveguide can be made of only metal and does not need any contact between the metal joints compared to standard waveguides. In this study, a study of Q ‐factors of resonators made in ridge and groove gap waveguides are presented. The resonators are made of copper and the AMC used is a textured surface of metallic pins. Simulated and measured unloaded Q s are presented and compared with Q of a standard rectangular waveguide. High Q ‐factors are measured for the prototypes presented, approaching 90–96% of the simulated values. Furthermore, it is shown how the lid of pins can easily stop the leakage loss at the joints of the circuit, which is the typical cause of reduced Q ‐factor of standard waveguides at high frequency.
- 1 August 2013
- Published by Institution of Engineering and Technology (IET) in IET Microwaves, Antennas & Propagation
- Vol. 7 (11) , 900-908
Open AccessStudy of Q ‐factors of ridge and groove gap waveguide resonators
The gap waveguide technology for millimeter waves applications has been recently presented. The new structure is made by generating a parallel plate cut‐off region between an artificial magnetic conductor (AMC) and a metallic plate. Propagating waves will be only allowed to follow a metal ridge or groove surrounded by the AMC. The gap waveguide can be made of only metal and does not need any contact between the metal joints compared to standard waveguides. In this study, a study of Q ‐factors of resonators made in ridge and groove gap waveguides are presented. The resonators are made of copper and the AMC used is a textured surface of metallic pins. Simulated and measured unloaded Q s are presented and compared with Q of a standard rectangular waveguide. High Q ‐factors are measured for the prototypes presented, approaching 90–96% of the simulated values. Furthermore, it is shown how the lid of pins can easily stop the leakage loss at the joints of the circuit, which is the typical cause of reduced Q ‐factor of standard waveguides at high frequency.
- 1 October 2012
- Published by Elsevier in Sensors and Actuators A: Physical
- Vol. 186, 264-269
Micromachined ridge gap waveguide and resonator for millimeter-wave applications
- 1 October 2012
- Published by Elsevier in Sensors and Actuators A: Physical
- Vol. 186, 264-269
Micromachined ridge gap waveguide and resonator for millimeter-wave applications