LEADER 06590nam 22007575 450 001 9910254212303321 005 20200705135556.0 010 $a3-319-24566-X 024 7 $a10.1007/978-3-319-24566-9 035 $a(CKB)3710000000492507 035 $a(EBL)4178568 035 $a(SSID)ssj0001584772 035 $a(PQKBManifestationID)16263781 035 $a(PQKBTitleCode)TC0001584772 035 $a(PQKBWorkID)14864101 035 $a(PQKB)10220564 035 $a(DE-He213)978-3-319-24566-9 035 $a(MiAaPQ)EBC4178568 035 $a(PPN)190537116 035 $a(EXLCZ)993710000000492507 100 $a20151016d2016 u| 0 101 0 $aeng 135 $aur|n|---||||| 181 $ctxt 182 $cc 183 $acr 200 10$aSymmetry Properties in Transmission Lines Loaded with Electrically Small Resonators $eCircuit Modeling and Applications /$fby Jordi Naqui 205 $a1st ed. 2016. 210 1$aCham :$cSpringer International Publishing :$cImprint: Springer,$d2016. 215 $a1 online resource (223 p.) 225 1 $aSpringer Theses, Recognizing Outstanding Ph.D. Research,$x2190-5053 300 $a"Doctoral Thesis accepted by Universitat Auto?noma de Barcelona, Spain." 311 $a3-319-24564-3 327 $aParts of this thesis have been published in the following articles:; Journals; Conferences; Workshops; Supervisor's Foreword; Acknowledgments; Contents; About the Author; Acronyms; 1 Introduction; 1.1 Motivations; 1.2 Organization; 1.3 Funding; 2 Fundamentals of Planar Metamaterials and Subwavelength Resonators; 2.1 Electromagnetic Metamaterials; 2.1.1 Material Classification; 2.1.2 Left-Handed Media; 2.2 Transmission-Line Metamaterials; 2.2.1 Application of the Transmission-Line Theory to Metamaterials; 2.2.2 Composite Right-/Left-Handed (CRLH) Transmission Lines 327 $a2.2.3 CL-Loaded and Resonant-Type Approaches2.2.4 Resonant-Type Single-Negative Transmission Lines; 2.2.5 Discussion About Homogeneity and Periodicity; 2.3 Metamaterial-Based Resonators; 2.3.1 Split-Ring Resonator (SRR); 2.3.2 Double-Slit Split-Ring Resonator (DS-SRR); 2.3.3 Folded Stepped-Impedance Resonator (FSIR); 2.3.4 Electric Inductive-Capacitive (ELC) Resonator ; 2.3.5 Complementary Resonators; 2.4 Magneto- and Electro-Inductive Waves; 2.4.1 Magneto-Inductive Waves in Arrays of Magnetically-Coupled Resonators; 2.4.2 Electro-Inductive Waves in Arrays of Electrically-Coupled Resonators 327 $aReferences3 Advances in Equivalent Circuit Models of Resonator-Loaded Transmission Lines; 3.1 Line-to-Resonator Magnetoelectric Coupling; 3.1.1 Coplanar Waveguides Loaded with Pairs of SRRs and CSRR-Loaded Microstrip Lines; 3.2 Inter-Unit-Cell Inter-Resonator Coupling; 3.2.1 Coplanar Waveguides Loaded with Pairs of SRRs and CSRR-Loaded Microstrip Lines; 3.3 Limits on the Synthesis of Electrically Small Resonators; 3.3.1 Microstrip Stepped-Impedance Shunt-Stubs (SISSs); References; 4 On the Symmetry Properties of Resonator-Loaded Transmission Lines 327 $a4.1 On the Symmetry Properties of Transmission Lines4.2 On the Alignment of Symmetry Planes; 4.2.1 SRR- and CSRR-Loaded Coplanar Waveguides; 4.2.2 SRR- and CSRR-Loaded Differential Microstrip Lines; 4.2.3 ELC- and MLC-Loaded Differential Microstrip Lines; 4.3 On the Misalignment of Symmetry Planes; 4.3.1 SRR- and FSIR-Loaded Coplanar Waveguides; 4.3.2 SIR-Loaded Microstrip Lines; 4.3.3 ELC-Loaded Coplanar Waveguides; 4.3.4 MLC-Loaded Microstrip Lines; 4.4 On the Generalization of Symmetry Rupture; 4.4.1 Microstrip Lines Loaded with Pairs of SISSs 327 $a4.4.2 Coplanar Waveguides Loaded with Pairs of SRRsReferences; 5 Application of Symmetry Properties to Common-Mode Suppressed Differential Transmission Lines; 5.1 Introduction; 5.2 Symmetry-Based Selective Mode Suppression; 5.3 Common-Mode Suppressed Differential Microstrip Lines; 5.3.1 CSRR- and DS-CSRR-Loaded Differential Microstrip Lines; 5.3.2 ELC- and MLC-Loaded Differential Microstrip Lines; References; 6 Application of Symmetry Properties to Microwave Sensors; 6.1 Introduction; 6.2 Symmetry-Based Sensing; 6.2.1 Coupling-Modulated Resonance 327 $a6.2.2 Resonance Frequency Splitting/Shifting 330 $aThis book discusses the analysis, circuit modeling, and applications of transmission lines loaded with electrically small resonators (mostly resonators inspired by metamaterials), focusing on the study of the symmetry-related electromagnetic properties of these loaded lines. It shows that the stopband functionality (resonance) that these lines exhibit can be controlled by the relative orientation between the line and the resonator, which determines their mutual coupling. Such resonance controllability, closely related to symmetry, is essential for the design of several microwave components, such as common-mode suppressed differential lines, novel microwave sensors based on symmetry disruption, and spectral signature radio-frequency barcodes. Other interesting aspects, such as stopband bandwidth enhancement (due to inter-resonator coupling, and related to complex modes) and magnetoelectric coupling between the transmission lines and split-ring resonators, are also included in the book.  . 410 0$aSpringer Theses, Recognizing Outstanding Ph.D. Research,$x2190-5053 606 $aMicrowaves 606 $aOptical engineering 606 $aOptical materials 606 $aElectronic materials 606 $aElectrical engineering 606 $aMicrowaves, RF and Optical Engineering$3https://scigraph.springernature.com/ontologies/product-market-codes/T24019 606 $aOptical and Electronic Materials$3https://scigraph.springernature.com/ontologies/product-market-codes/Z12000 606 $aCommunications Engineering, Networks$3https://scigraph.springernature.com/ontologies/product-market-codes/T24035 615 0$aMicrowaves. 615 0$aOptical engineering. 615 0$aOptical materials. 615 0$aElectronic materials. 615 0$aElectrical engineering. 615 14$aMicrowaves, RF and Optical Engineering. 615 24$aOptical and Electronic Materials. 615 24$aCommunications Engineering, Networks. 676 $a621.38132 700 $aNaqui$b Jordi$4aut$4http://id.loc.gov/vocabulary/relators/aut$0763794 801 0$bMiAaPQ 801 1$bMiAaPQ 801 2$bMiAaPQ 906 $aBOOK 912 $a9910254212303321 996 $aSymmetry Properties in Transmission Lines Loaded with Electrically Small Resonators$91550041 997 $aUNINA