Modeling of the wave electromagnetic processes in the microwave microelectronic material

被引:0
|
作者
Pivnev V.V. [1 ]
Voloshchenko P.Y. [1 ]
Voloshchenko Y.P. [1 ]
机构
[1] Southern Federal University, 105/42 Bolshaya Sadovaya Str., Rostov-on-Don
关键词
Amplitude-dependent nonlinear element; Coherent electronics technology; Conductive interconnection; Electromagnetic energy distribution; Microstrip transmission line; Microwave electronic device; Microwave integrated circuit; Negatron; Ordered structure of electronic devices; Wireless interconnection;
D O I
10.4108/eai.13-12-2017.153471
中图分类号
学科分类号
摘要
This is the abstract. This is the abstract. This is the abstract. This is the abstract. This is the abstract. This is the abstract. This is the abstract. In article the nonlinear electromagnetic processes in electronic material, formed by the ordered structure of discrete electronic devices of a gigabyte and terahertz ranges are considered. Based on structural and technological design of real microwave integrated circuit fragment, the analytical expressions for model describing the processes of accumulation and exchange, dissipations and redistribution of oscillatory energy caused by signal composition in interconnections of the ordered microwave structure are synthesized. The results of a research of disturbance intensity variation in uniform electromagnetic field of integrated circuit are shown on the example of a quarter-wave equivalent two-wire transmission line loaded with the semiconductor device with tunable negative conductivity. © 2017 Pivnev V.V et al.
引用
收藏
相关论文
共 50 条
  • [1] Research of microwave and electromagnetic wave absorbency mensurement with nanometer material
    Institute of Electron Devices and Applications, Hangzhou Dianzi University, Hangzhou 310037, China
    Yi Qi Yi Biao Xue Bao, 2007, SUPPL. 2 (946-948):
  • [2] Modeling of Nonlinear Wave Processes in a Microwave Generator with Magnetic Insulation
    Polyakov, S. V.
    Tarasov, N. I.
    Kudryashova, T. A.
    COMPUTATIONAL MATHEMATICS AND MATHEMATICAL PHYSICS, 2024, 64 (12) : 2916 - 2924
  • [3] Integrated electromagnetic and circuit modeling of large microwave and millimeter-wave structures
    Steer, MB
    Abdulla, MN
    Christofersen, C
    Summers, M
    Nakazawa, S
    Khalil, A
    Harvey, J
    IEEE ANTENNAS AND PROPAGATION SOCIETY INTERNATIONAL SYMPOSIUM - ANTENNAS: GATEWAYS TO THE GLOBAL NETWORK, VOLS 1-4, 1998, : 478 - 481
  • [4] Analysis of coupled electromagnetic and thermal modeling of pressure-aided microwave curing processes
    Catalá-Civera, JM
    Monzó-Cabrera, J
    Canós, AJ
    Peñaranda-Foix, FL
    ADVANCES IN MICROWAVE AND RADIO FREQUENCY PROCESSING, 2006, : 226 - +
  • [5] Electromagnetic analysis for microwave FET modeling
    Larique, E
    Mons, S
    Baillargeat, D
    Verdeyme, S
    Aubourg, M
    Guillon, P
    Quere, R
    IEEE MICROWAVE AND GUIDED WAVE LETTERS, 1998, 8 (01): : 41 - 43
  • [6] PENETRATION OF AN ELECTROMAGNETIC WAVE INTO A FERROMAGNETIC MATERIAL
    PAPOULIS, A
    JOURNAL OF APPLIED PHYSICS, 1954, 25 (02) : 169 - 176
  • [7] The generalized analysis of relaxation processes in electromagnetic and mechanical-oscillatory models fundamental for mathematical modeling of microelectronic components of integrated systems
    Lobur, M
    EXPERIENCE OF DESIGNING AND APPLICATION OF CAD SYSTEMS IN MICROELECTRONICS, 2003, : 74 - 76
  • [8] Wave equations of vortical electromagnetic processes
    Glushchenko, Alexander G.
    Zakharchenko, Eugenia P.
    OPTICAL TECHNOLOGIES FOR TELECOMMUNICATIONS 2007, 2008, 7026
  • [9] Full-Wave Modeling of Microwave Planar Reflection Sensors for Material Moisture Testing
    G. Biffi Gentili
    C. Riminesi
    N. Sottani
    Subsurface Sensing Technologies and Applications, 2001, 2 (4): : 453 - 470
  • [10] Simulation of electromagnetic processes in microwave film resistors
    Rubanovitch, MG
    Vostryakov, YV
    Razinkin, VP
    Khrustalev, VA
    Matvejev, SJ
    MICROWAVE ELECTRONICS: MEASUREMENTS, IDENTIFICATION, APPLICATIONS, CONFERENCE PROCEEDINGS, 2003, : 43 - 48