The contributions to this volume deliberate the electrical and magnetic properties of materials relevant to the design of unconventional antennas, microwave circuits/components, anti-reflection media and coatings, EMI shielding structures, radomes, etc. Though a classical research topic, some recent advancements in technology have led to new capabilities to create and control fine-scale structures. This has inspired scientists to develop new materials with exceptionally high permittivity or permeability, as well as metamaterials (or negative index materials) with unusual electromagnetic properties.Novel materials based on the use of active devices to control their electromagnetic performance have also been proposed. The multi-disciplinary nature of these new materials has brought together researchers from materials science, physics and electrical engineering to explore and deepen our current understanding of electromagnetic wave propagation. A wide range of new commercial/defence applications of these materials is expected to emerge in the near future.
Author(s): Hock Lim, Serguei Matitsine, Gan Yeow Beng, kong Ling Bing
Publisher: World Scientific Publishing Company
Year: 2007
Language: English
Commentary: 37564
Pages: 238
CONTENTS......Page 10
FORE WORD......Page 6
Session P1: Opening Session Chair: S.A. Nikitov......Page 14
Introduction: Electromagnetic modeling a cavity lined with coating......Page 16
Choice of RAM to coat the walls of an extended cavity......Page 17
Total transition of the point source radiation into a half-space......Page 19
Correspondence to the “superresolution” phenomenon. Effect of losses.......Page 21
Conclusion......Page 22
References......Page 23
2 Theory in brief......Page 24
2.2 Propagation in the SCM......Page 25
2.3 Reflection and transmission......Page 26
3 Numerical results and discussion......Page 27
References......Page 29
Session P2: Dielectric Composites Chair: L.R. Arnaut......Page 32
Introduction......Page 34
Measurements......Page 35
Joints......Page 37
Modelling and Simulation......Page 38
References......Page 41
2. Experimental......Page 42
3. Results and Discussion......Page 43
References:......Page 44
2. Experimental......Page 46
3. Results and Discussion......Page 47
References......Page 49
2. Procedure......Page 51
3.3 Transmission losses......Page 52
Acknowledgements......Page 53
References......Page 54
1. Introduction......Page 57
2. Experiments......Page 58
3. Results and Discussion......Page 59
References......Page 60
2. Experimental......Page 61
3. Results and discussion......Page 62
References......Page 64
2. Sample Preparation and Experimental Setup......Page 65
3. Experimental Result......Page 66
References......Page 68
Session P3: Magnetic Composites (1) Chair: 0. Acher......Page 70
1. Introduction......Page 72
2. Experiment......Page 74
3. Results and discussion......Page 75
References......Page 79
P-3-OR7 Interface Magnetism G. Kopnov, Z. Vager and Ron. Naaman*......Page 80
References:......Page 82
2. I Effective static permeability PO......Page 84
2.3 Snoek-like law......Page 85
3. Results and Conclusions......Page 86
References:......Page 87
2. Experimental details......Page 88
3. Results and discussions......Page 89
References......Page 91
2. Method......Page 92
4.2. Natural and wall resonances [3]......Page 94
References:......Page 95
1. Introduction......Page 96
2. Experiment......Page 97
3. Results and discussions......Page 98
References......Page 99
Session P4: Magnetic Composites (2) Chair: L.J. Deng......Page 100
1. Structural influence......Page 102
2. Morphological influence......Page 103
References:......Page 105
3. Results and discussion......Page 106
4. Conclusions......Page 107
References......Page 109
P-4-OR 13 Carbonyl Iron Composite Materials for High-Frequency Applications M.A. Abshinova, A. V. Lopatin, N.E. Kazantseva, J. Vilda'kova' and P. Sa'ha......Page 110
References......Page 113
2. Experiments......Page 114
3. Results and Discussions......Page 115
Reference......Page 117
2. Experimental......Page 118
3. Results and Discussion......Page 119
References......Page 121
P-4-OR 16 Thermostable Magnetic Elastomers Filled with Carbonyl Iron M.A. Abshinova, I. Kuritka, N.E. Kazantseva, J. VilZkova' and P. Sa'ha......Page 122
References......Page 125
2. Experimental Procedure......Page 126
3.1. Phase composition, densification and grain growth......Page 127
3.3. Complex relative vermeabilitv......Page 128
References......Page 129
Session P6: Metamaterials (1) Chair: A.N. Lagarkov......Page 130
Abstract......Page 132
2. Magnonic crystals......Page 133
3. Phononic crystals......Page 136
4. Conclusion......Page 138
References......Page 139
Abstract.......Page 140
References......Page 145
2. Metamaterials as reference sample for metrolow.......Page 146
3. Metamaterials as tuneable materials......Page 147
4. Magnetic materials with engineered permeability response......Page 148
5. A visual understandiw of the effective permeability of metamaterials wine the Field Summation Method......Page 149
References......Page 150
Session P7: Materials Processing Chair: X. Yao......Page 152
Introduction......Page 154
Hybrid Ceramic Processing Technology 13, 41......Page 155
Fine Grained BST Ceramics......Page 158
Thick BST Films......Page 159
Acknowledgement......Page 160
References......Page 161
1. Introduction......Page 162
References......Page 163
2. Composition......Page 166
4. Characterization......Page 167
References......Page 168
3. Results and discussion......Page 170
References......Page 171
2. Experimental:......Page 174
3.2 XRD Discussion:......Page 175
3.3 SEM Discussion:......Page 176
References:......Page 177
3. Techniques of characterization......Page 178
4. Results and Discussion......Page 180
References......Page 181
2. Experimental......Page 182
3. Results and Discussion......Page 183
References......Page 185
2. Experimental......Page 186
3.1 XANES Fe L2.3 spectra of nanocomposites......Page 187
3.3 XANES Si L2.3 spectra......Page 188
References......Page 189
Session P9: Metamaterials (2) Chair: J.A. Kong......Page 190
1.3. Evanescent waves grow with distance for nl< 0.......Page 192
1.4. The field vectorsB, @ and the phase vector form a left-handed triplet for n1<0.......Page 193
2.1. Single Array of Elements with One Segment......Page 194
2.3. Two Arrays of Elements with an Arbitrary Number of Segments......Page 195
4. Conclusion: Synthesizing Veselago’s medium by a periodic structure is not feasible......Page 196
6. References......Page 197
2 Characterization of metamaterial......Page 199
3 Metamaterial with bianisotropy......Page 200
4 Applications......Page 201
References......Page 202
Abstract:......Page 204
Reference......Page 207
3. Measurement Technique......Page 208
c) Effect of Conductivity of Helixes......Page 209
6. Remarks......Page 210
Reference:......Page 211
Session P10: Materials Applications Chair: S. Matitsine......Page 212
Abstract......Page 214
References......Page 221
2. Numerical simulation......Page 222
3. Experiments......Page 223
References:......Page 224
2.2 Material Dispersion......Page 225
2.4 Absorbing Band......Page 226
References......Page 227
2. Formulation and computation of the problem......Page 229
References......Page 230
Abstract......Page 231
References:......Page 233
Author Index......Page 236
