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International Journal of Microwave Engineering and Technology Cover

International Journal of Microwave Engineering and Technology

E-ISSN: 2455-0337 | Peer-Reviewed Journal (Refereed Journal) | Hybrid Open Access

About the Journal

International Journal of Microwave Engineering and Technology

International Journal of Microwave Engineering and Technology [2455-0337(e)] is a peer-reviewed hybrid open-access journal launched in 2015 that provides academicians and industries with high-quality research papers and reviews in microwave engineering. Journal aims to provide transformation in the way scientific articles are communicated and is determined to publish high-impact articles.

Focus & Scope

  • Microwave Transmission and Propagation: Microwave transmission, propagation mechanisms, transmission lines, guided waves, attenuation, dispersion, dielectric effects, propagation through materials, and high-frequency transmission analysis.
  • Waveguides: Rectangular and circular waveguides, dielectric waveguides, substrate-integrated waveguides, ridge waveguides, optical-microwave waveguide interactions, propagation constants, waveguide losses, and guided-wave applications.
  • Planar Microwave Circuits: Microstrip, stripline, coplanar waveguide, planar resonators, couplers, dividers, hybrids, baluns, matching networks, planar filters, and integrated planar microwave structures.
  • Passive Microwave Components: Filters, resonators, attenuators, circulators, isolators, couplers, power dividers, phase shifters, impedance transformers, and microwave passive networks.
  • Active Microwave Circuits: Low-noise amplifiers, power amplifiers, oscillators, mixers, frequency multipliers, detectors, RF front ends, and microwave integrated active circuits.
  • Microwave Integrated Circuits and MMICs: Monolithic microwave integrated circuits, hybrid microwave circuits, RFICs, microwave semiconductor integration, chip-scale RF systems, and high-frequency IC design.
  • Microwave CAD and EDA: Computer-aided design, electromagnetic simulation, circuit simulation, layout optimization, synthesis, inverse design, model extraction, design automation, and AI-assisted microwave design.
  • Computational Electromagnetics: Finite-element methods, finite-difference time-domain techniques, method of moments, boundary-element methods, full-wave analysis, field simulation, and numerical microwave modelling.
  • Microwave Antennas: Microstrip antennas, slot antennas, horn antennas, dielectric resonator antennas, phased arrays, smart antennas, MIMO antennas, reconfigurable antennas, and broadband microwave antennas.
  • Millimeter-Wave Engineering: mmWave components, circuits, antennas, propagation, sensing, wireless links, high-frequency devices, integrated mmWave systems, and emerging mmWave applications.
  • Terahertz Technologies: Terahertz sources, detectors, circuits, waveguides, communication, spectroscopy, imaging, materials, and emerging THz systems.
  • Microwave Materials and Dielectrics: Dielectric materials, ferrites, ferroelectrics, magnetic materials, microwave substrates, nanocomposites, metamaterials, material characterization, and high-frequency material properties.
  • Metamaterials and Metasurfaces: Negative-index materials, frequency-selective surfaces, electromagnetic bandgap structures, reconfigurable metasurfaces, artificial media, and programmable electromagnetic surfaces.
  • Microwave Filters and Resonators: Cavity filters, dielectric resonator filters, microstrip filters, tunable filters, dual-band and multiband filters, compact resonators, and high-Q microwave resonators.
  • Microwave Measurements and Instrumentation: S-parameter measurement, vector network analysis, spectrum analysis, power measurement, impedance measurement, calibration, dielectric characterization, and microwave test systems.
  • Microwave Material Characterization: Permittivity and permeability measurement, moisture sensing, density measurement, nondestructive testing, material inspection, and microwave spectroscopy.
  • Microwave Heating and Processing: Dielectric heating, microwave-assisted processing, food processing, industrial heating, drying, curing, sintering, materials processing, and microwave energy applications.
  • Microwave Sensors: Resonator-based sensors, moisture sensors, dielectric sensors, biomedical sensors, industrial sensors, gas and chemical sensing, and contactless microwave measurement.
  • Radar Engineering: Doppler radar, imaging radar, automotive radar, ground-penetrating radar, phased-array radar, target detection, tracking, and radar signal processing.
  • Microwave Imaging: Biomedical imaging, security imaging, subsurface imaging, nondestructive evaluation, tomography, radar imaging, and computational microwave imaging.
  • Microwave Photonics: Microwave signal generation using photonics, RF-over-fiber, photonic filters, optical heterodyning, microwave photonic links, and photonic-assisted microwave systems.
  • Wireless Communication Applications: Microwave communication links, cellular backhaul, satellite links, point-to-point systems, broadband wireless communication, and high-frequency wireless transmission.
  • 5G, 6G and Beyond Technologies: mmWave communication, massive MIMO, beamforming, beam steering, integrated sensing and communication, reconfigurable intelligent surfaces, and next-generation RF architectures.
  • Satellite and Space Microwave Systems: Satellite payloads, transponders, microwave links, spaceborne radar, ground stations, deep-space communication, and high-frequency space systems.
  • RF MEMS and Microsystems: RF MEMS switches, tunable capacitors, micromachined resonators, MEMS-based RF circuits, tunable microwave systems, and miniaturized RF microsystems.
  • Microwave Semiconductor Devices: GaAs, GaN, SiGe, HEMTs, MESFETs, Gunn diodes, IMPATT devices, Schottky diodes, RF CMOS, and emerging high-frequency semiconductor devices.
  • Additive Manufacturing and Printed Microwave Electronics: 3D-printed microwave structures, inkjet-printed electronics, flexible RF circuits, printed antennas, additively manufactured waveguides, and novel fabrication techniques.
  • AI and Machine Learning in Microwave Engineering: Machine learning for design optimization, surrogate modelling, device modelling, inverse electromagnetic design, fault diagnosis, pattern prediction, and intelligent RF system design.
  • Emerging Microwave Technologies: Wireless power transfer, microwave energy harvesting, programmable RF environments, digital twins for RF systems, quantum microwave devices, neuromorphic RF hardware, and next-generation microwave systems.

Keywords

Microwave Engineering, RF Circuits, Microwave Antennas, Waveguides, Millimeter-Wave Technology, Microwave Integrated Circuits, Electromagnetic Simulation, Microwave Measurements, Metamaterials, Microwave Communication

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